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  1. COYOTE

    Energy Science and Technology Software Center (OSTI)

    2012-07-30

    COYOTE is designed for the analysis of steady and transient, multi-dimensional, nonlinear heat conduction problems. The spatial discretization technique is based on the Galerkin finite element method. The code contains a library of linear and quadratic elements and incudes bars and shells. COYOTE Implicit and explicit time integration methods, with adaptive time step control, are available for transient problems and fixed-point methods are used for Conjugate gradient iterative methods are used for the matrix solution.more » Coupled enclosure radiation with efficient view factor computation is included. Simulation capabilities include material motion, dynamic radiation enclosures, contact boundary conditions, multipoint constraints, material (element) addition, and deletion, bulk nodes, chemically reactive materials, and coupling with other mechanics codes. The code is designed for single or multi-processor computing« less

  2. CX-005140: Categorical Exclusion Determination

    Broader source: Energy.gov [DOE]

    G0313 Coyote Crest Wind Park Interconnection RequestCX(s) Applied: B1.7, B4.6Date: 02/09/2011Location(s): Lewis County, WashingtonOffice(s): Bonneville Power Administration

  3. CREST HPX

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    HPX » CREST HPX CREST HPX CREST HPX or HPX-5 is the High Performance ParalleX runtime library from the Center for Research in Extreme Scale Technology (CREST) at Indiana University for petascale/exascale computing. Building on CREST's commitment to developing new approaches for achieving the highest levels of performance on current and next-generation supercomputing platforms, CREST HPX is provided to support the international high-performance computing community in addressing significant

  4. The coyote universe III: simulation suite and precision emulator...

    Office of Scientific and Technical Information (OSTI)

    simulation suite and precision emulator for the nonlinear matter power spectrum Citation Details In-Document Search Title: The coyote universe III: simulation suite and ...

  5. CREST Geothermal | Open Energy Information

    Open Energy Info (EERE)

    CREST Geothermal Jump to: navigation, search Tool Summary LAUNCH TOOL Name: CREST Geothermal AgencyCompany Organization: Sustainable Energy Advantage Partner: NREL Sector: Energy...

  6. CrestEnergy | Open Energy Information

    Open Energy Info (EERE)

    CrestEnergy Jump to: navigation, search Name: CrestEnergy Region: New Zealand Sector: Marine and Hydrokinetic Website: www.crest-energy.com This company is listed in the Marine and...

  7. EIS-0201: Coyote Springs Cogeneration Project, Morrow County, Oregon

    Broader source: Energy.gov [DOE]

    This environmental impact statement analyzes the protential impacts of the Coyote Springs Cogeneration Project, a proposed natural gas-fired cogeneration power plant near Boardman, Oregon. The proposed power plant would be built on a 22-acre site in the Port of Morrow Industrial Park. The plant would have two combustion turbines that would generate 440 average megawatts of energy when completed.

  8. The influence of coyotes on an urban Canada goose population in the Chicago metropolitan area

    SciTech Connect (OSTI)

    Brown, Justin L.; /Ohio State U.

    2007-01-01

    Canada geese (Branta canadensis) have become common in many urban areas, often creating nuisance problems for human residents. The presence of urban geese has raised concerns about the spread of disease, increased erosion, excessive noise, eutrophication of waterways, and general nuisance problems. Goose populations have grown due to an increase in urbanization resulting in an abundance of high quality food (urban grass) and suitable nesting sites, as well as a decrease in some predators. I monitored nest predation in the Chicago suburbs during the 2004 and 2005 nesting seasons using 3 nest monitoring techniques to identify predators: video cameras, plasticine eggs, and sign from nest using a classification tree analysis. Of 58 nests monitored in 2004 and 286 in 2005, only raccoons (Procyon lotor) and coyotes (Canis latrans) were identified as nest predators. Raccoons were responsible for 22-25% of depredated nests, but were rarely capable of depredating nests that were actively defended by a goose. Coyotes were responsible for 75-78% of all Canada goose nest depredation and were documented killing one adult goose and feeding on several others. The coyote is a top-level predator that had increased in many metropolitan areas in recent years. To determine if coyotes were actively hunting geese or eggs during the nesting season, I analyzed coyote habitat selection between nesting and pre-nesting or post-nesting seasons. Coyote home ranges (95% Minimum Convex Polygon) were calculated for 19 coyotes to examine third order habitat selection related to goose nest abundance. A 100 m buffer (buffer habitat) was created and centered on each waterway edge and contained 90% of all nests. Coyotes showed selection for habitats during all seasons. Buffer habitat was the top ranked habitat in both pre-nesting and nesting seasons, but dropped to third ranked in post-nesting season. Habitat selection across seasons was compared using a repeated measures MANOVA. Habitat selection between pre-nesting and nesting seasons (P=0.72) were similar, while between post-nesting and nesting seasons there was a nearly significant difference (P=0.07). The insignificant change in habitat use across seasons suggests that coyotes did not switch habitat use to take advantage of goose nests. Alternatively, the change in ranking of buffer habitat across seasons suggests that coyotes may have switched habitat use to take advantage of goose nests. The results are not clear as large individual variation between coyotes due to differences in habitat availability, and social status interfere with the results of the analysis. Even though I failed to find strong support for coyotes actively hunting goose nests, they nevertheless were the primary nest predator in the area and may influence Canada goose populations. To determine the potential influence of coyotes on the Canada goose population, I created a Canada goose matrix population model that included variables such as coyote predation on adults and nests as well as coyote influence on nest desertion. Using the base population model I calculated the Canada goose population to be increasing with {lambda} = 1.055. The removal of all coyote influence on the goose population would allow {lambda} to increase to 1.214. Nest predation was the most important factor related to coyotes: the removal of coyote nest predation from the model resulted in a population growth rate {lambda} = 1.157. Modeling results suggest coyotes are serving as a limiting factor for the Canada goose population within the Chicago metropolitan area.

  9. Seasonal food habits of the coyote in the South Carolina coastal plain.

    SciTech Connect (OSTI)

    Schrecengost, J. D.; Kilgo, J. C.; Mallard, D.; Ray, H. Scott; Miller, K. V.

    2008-07-01

    Abstract - Spatial and temporal plasticity in Canis latrans (coyote) diets require regional studies to understand the ecological role of this omnivorous canid. Because coyotes have recently become established in South Carolina, we investigated their food habits by collecting 415 coyote scats on the Savannah River Site in western South Carolina from May 2005-July 2006. Seasonally available soft mast was the most common food item in 12 of the 15 months we sampled. Odocoileus virginianus (white-tailed deer) was the most common food item during December (40%) and March (37%). During May-June, fruits of Prunus spp. and Rubus spp. were the most commonly occurring food items. Fawns were the most common mammalian food item during May and June of both years despite low deer density.

  10. Crest Global Green Energy | Open Energy Information

    Open Energy Info (EERE)

    Global Green Energy Jump to: navigation, search Name: Crest Global Green Energy Place: County Durham, England, United Kingdom Zip: SR7 7EU Product: UK-based biofuel company with...

  11. Cedar Crest, New Mexico: Energy Resources | Open Energy Information

    Open Energy Info (EERE)

    Crest, New Mexico: Energy Resources Jump to: navigation, search Equivalent URI DBpedia Coordinates 35.1075459, -106.3728019 Show Map Loading map... "minzoom":false,"mappingser...

  12. Green Harbor-Cedar Crest, Massachusetts: Energy Resources | Open...

    Open Energy Info (EERE)

    Harbor-Cedar Crest, Massachusetts: Energy Resources Jump to: navigation, search Equivalent URI DBpedia Coordinates 42.0765351, -70.6603435 Show Map Loading map......

  13. Hematology, Parasitology, and Serology of Free-Ranging Coyotes (Canis latrans) from South Carolina.

    SciTech Connect (OSTI)

    Miller, Debra, Lee; Schrecengost, Joshua; Merrill, Anita; Kilgo, John; Ray, H., Scott; Karl V. Miller, Karl, V.; Baldwin, Charles, A.

    2009-07-01

    ABSTRACT: Blood and feces were collected from 34 adult (19 males, 15 females) and seven juvenile (three males, one female, three not reported) free-ranging coyotes (Canis latrans) on the US Department of Energys Savannah River Site (South Carolina, USA). Significant (P,0.05) hematologic differences by sex were noted for red blood cell counts, hemoglobin, and hematocrit. Biochemical differences by sex occurred only for albumen (P,0.05). Twentyone adults were antibody positive for at least one of four viruses: canine adenovirus type 1 (CAV-1; 68%), West Nile virus (WNV; 60%), Eastern equine encephalitis virus (EEEV; 38%), and Canine distemper virus (CDV; 15%). Of the seven Leptospira serovars tested for, seven (25%) of 28 adults were positive for one or more of five serovars: Pomona, Grippotyphosa, Icterohaemorrhagiae, Bratislava, and Autumnalis. Three (43%) of seven juveniles had seropositivity for a virus, one each for CDV, CAV-1, and WNV. No juveniles were seropositive for EEEV or any of the seven Leptospira serovars. Blood smears of 12 adults were positive for Dirofilaria immitis microfilaria, but blood smears from all juveniles were negative. Parvovirus was identified by electron microscopy from the feces of one adult. Ancylostoma spp., Trichuris spp., and Isospora spp. were observed in fecal samples. These data may aid in understanding the role of coyotes in disease ecology.

  14. Himalayan Crest Power Pvt Ltd | Open Energy Information

    Open Energy Info (EERE)

    Pvt. Ltd. Place: Delhi (NCT), India Zip: 110020 Sector: Hydro Product: Okhla-based small hydro project developer. References: Himalayan Crest Power Pvt. Ltd.1 This article is a...

  15. The Coyote Universe II: Cosmological Models and Precision Emulation of the Nonlinear Matter Power Spectrum

    SciTech Connect (OSTI)

    Heitmann, Katrin; Habib, Salman; Higdon, David; Williams, Brian J; White, Martin; Wagner, Christian

    2008-01-01

    The power spectrum of density fluctuations is a foundational source of cosmological information. Precision cosmological probes targeted primarily at investigations of dark energy require accurate theoretical determinations of the power spectrum in the nonlinear regime. To exploit the observational power of future cosmological surveys, accuracy demands on the theory are at the one percent level or better. Numerical simulations are currently the only way to produce sufficiently error-controlled predictions for the power spectrum. The very high computational cost of (precision) N-body simulations is a major obstacle to obtaining predictions in the nonlinear regime, while scanning over cosmological parameters. Near-future observations, however, are likely to provide a meaningful constraint only on constant dark energy equation of state 'wCDM' cosmologies. In this paper we demonstrate that a limited set of only 37 cosmological models -- the 'Coyote Universe' suite -- can be used to predict the nonlinear matter power spectrum at the required accuracy over a prior parameter range set by cosmic microwave background observations. This paper is the second in a series of three, with the final aim to provide a high-accuracy prediction scheme for the nonlinear matter power spectrum for wCDM cosmologies.

  16. Wiley Coyotes Santa Run

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    We want to make sure that nuclear weapons function properly ... issue of how to manage the population within the complex. ... way scientists monitor the movement of an imploding surface. ...

  17. Sex ratios, bill deformities, and PCBs in nestling double-crested cormorants

    SciTech Connect (OSTI)

    Stromborg, K.L. [Fish and Wildlife Service, Green Bay, WI (United States); Sileo, L. [National Biological Service, Madison, WI (United States); Tuinen, P. van [Medical College of Wisconsin, Milwaukee, WI (United States)

    1995-12-31

    Deformed double-crested cormorant (Phalacrocorax auritus) nestlings examined from 1988--1992 had a sex ratio highly skewed toward females (66 of 81) compared to normal nestlings (43 of 80) (P < 0.005). The collection site, Green Bay, WI, is heavily contaminated with PCBs and the possibility of gender alteration was investigated in a designed study by comparing the sex of nestling birds determined using three techniques. These nestlings were collected at five sites, both contaminated and uncontaminated. Genetic sex was determined by cytogenetic techniques and phenotypic sex was determined by macroscopic and histologic examination of gonads. Differences between techniques resulted in a few instances of classifying genetic males as females by one or the other gonadal examinations. Sex ratios of the nestlings from the five sites were compared to binomial distributions assuming equal probabilities of males and females. Sex ratios of normal nestlings were not different from expected regardless of sex determination technique (P > 0.10). Deformed nestlings sexed cytogenetically or histologically did not differ from expected (P > 0.40), but deformed nestlings tended to be classified , macroscopically as females at a higher rate than expected (P = 0.092). The observed sex ratios obtained by macroscopic techniques did not differ between the 1968--1992 observational study and the designed study (P > 0.50). Histologic examination suggested two explanations for the skewed sex ratio: nestlings with undeterminable macroscopic sex usually had testes and, some gonads which grossly resembled ovaries were, in fact, testes. If phenotypic gender alteration is present in these birds, it is more evident at the gross structural level than at the histologic level.

  18. Savannah River Ecology Laboratory - Outreach Program

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Program Coyote's webpage

  19. Coyote Canyon Geothermal Area | Open Energy Information

    Open Energy Info (EERE)

    Sanyal Classification (Reservoir): Depth to Top of Reservoir: Depth to Bottom of Reservoir: Average Depth to Reservoir: Use the "Edit with Form" button at the top of the...

  20. Coyote Canyon Geothermal Area | Open Energy Information

    Open Energy Info (EERE)

    (Reservoir): Depth to Top of Reservoir: Depth to Bottom of Reservoir: Average Depth to Reservoir: Use the "Edit with Form" button at the top of the page to add a Well Field...

  1. Coyote Canyon Geothermal Project | Open Energy Information

    Open Energy Info (EERE)

    Geothermal Resource Area Geothermal Region Geothermal Project Profile Developer Terra-Gen Project Type Hydrothermal GEA Development Phase Phase IV - Resource Production and...

  2. In vitro cementoblast-like differentiation of postmigratory neural crest-derived p75{sup +} stem cells with dental follicle cell conditioned medium

    SciTech Connect (OSTI)

    Wen, Xiujie; Liu, Luchuan; Deng, Manjing; Liu, Rui; Zhang, Li; Nie, Xin

    2015-09-10

    Cranial neural crest-derived cells (CNCCs) play important role in epithelial–mesenchymal interactions during tooth morphogenesis. However, the heterogeneity of CNCCs and their tendency to spontaneously differentiate along smooth muscle or osteoblast lineages in vitro limit further understanding of their biological properties. We studied the differentiation properties of isolated rat embryonic postmigratory CNCCs, expressing p75 neurotrophin receptor (p75NTR). These p75NTR positive (p75{sup +}) CNCCs, isolated using fluorescence activated cell sorter, exhibited fibroblast-like morphology and characteristics of mesenchymal stem cells. Incubation of p75{sup +} CNCCs in dental follicle cell conditioned medium (DFCCM) combined with dentin non-collagenous proteins (dNCPs), altered their morphological features to cementoblast-like appearance. These cells also showed low proliferative activity, high ALP activity and significantly increased calcified nodule formation. Markers related to mineralization or specific to cementoblast lineage were highly expressed in dNCPs/DFCCM-treated p75{sup +} cells, suggesting their differentiation along cementoblast-like lineage. p75{sup +} stem cells selected from postmigratory CNCCs represent a pure stem cell population and could be used as a stem cell model for in vitro studies due to their intrinsic ability to differentiate to neuronal cells and transform from neuroectoderm to ectomesenchyme. They can provide a potential stem cell resource for tooth engineering studies and help to further investigate mechanisms of epithelial–mesenchymal interactions in tooth morphogenesis. - Highlights: • Cranial neural crest-derived cells (CNCCs) take part in tooth morphogenesis. • positive (p75{sup +}) CNCCs are fibroblast-like and resemble mesenchymal stem cells. • p75{sup +} CNCCs in dental follicle cell medium (DFCCM/dNCP) appear like cementoblasts. • DFCCM/dNCP-treated p75{sup +} cells express cementoblast specific mineralization markers. • p75{sup +} cells are pure stem cells and able to differentiate to neuronal cells.

  3. CREST Cost of Renewable Energy Spreadsheet Tool: A Model for Developing Cost-Based Incentives in the United States; User Manual Version 4, August 2009 - March 2011 (Updated July 2013)

    SciTech Connect (OSTI)

    Gifford, J. S.; Grace, R. C.

    2013-07-01

    The objective of this document is to help model users understand how to use the CREST model to support renewable energy incentives, FITs, and other renewable energy rate-setting processes. This user manual will walk the reader through the spreadsheet tool, including its layout and conventions, offering context on how and why it was created. This user manual will also provide instructions on how to populate the model with inputs that are appropriate for a specific jurisdiction's policymaking objectives and context. Finally, the user manual will describe the results and outline how these results may inform decisions about long-term renewable energy support programs.

  4. CREST Wind | Open Energy Information

    Open Energy Info (EERE)

    and cherry-picked the best features. For those who find NREL's System Advisor Model (SAM) too complex for their analysis needs but still want an analytically robust levelized...

  5. CREST Solar | Open Energy Information

    Open Energy Info (EERE)

    and cherry-picked the best features. For those who find NREL's System Advisor Model (SAM) too complex for their analysis needs but still want an analytically robust levelized...

  6. Coyote Canyon Steam Plant Biomass Facility | Open Energy Information

    Open Energy Info (EERE)

    W 17,000,000,000 mW 0.017 GW Commercial Online Date 1989 Heat Rate (BTUkWh) 16797.3 References EPA Web Site1 Loading map... "minzoom":false,"mappingservice":"googlemaps3...

  7. The coyote universe III: simulation suite and precision emulator...

    Office of Scientific and Technical Information (OSTI)

    We have recently shown that it is possible to obtain predictions for the nonlinear matter power spectrum at the level of one-percent accuracy and that we can build a precise ...

  8. Microsoft Word - XX 13 Coyote Creek land acquisition provides...

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Wingert, 503-230-4140 or 503-230-5131 Rare wet prairie, wildlife corridor protected by land acquisition in Willamette Valley Portland, Ore. - Building upon a well-established...

  9. The coyote universe extended: Precision emulation of the matter...

    Office of Scientific and Technical Information (OSTI)

    Modern sky surveys are returning precision measurements of cosmological statistics such as weak lensing shear correlations, the distribution of galaxies, and cluster abundance. To ...

  10. Pacific Crest Wind Farm | Open Energy Information

    Open Energy Info (EERE)

    Caithness Developer NextEra Energy Resources Energy Purchaser Southern California Edison Co Location Tehachapi CA Coordinates 35.07665, -118.25529 Show Map Loading map......

  11. Coyote Springs Cogeneration Project, Morrow County, Oregon: Draft Environmental Impact Statement.

    SciTech Connect (OSTI)

    United States. Bonneville Power Administration.

    1994-01-01

    BPA is considering whether to transfer (wheel) electrical power from a proposed privately-owned, combustion-turbine electrical generation plant in Oregon. The plant would be fired by natural gas and would use combined-cycle technology to generate up to 440 average megawatts (aMW) of energy. The plant would be developed, owned, and operated by Portland General Electric Company (PGE). The project would be built in eastern Oregon, just east of the City of Boardman in Morrow County. The proposed plant would be built on a site within the Port of Morrow Industrial Park. The proposed use for the site is consistent with the County land use plan. Building the transmission line needed to interconnect the power plant to BPA`s transmission system would require a variance from Morrow County. BPA would transfer power from the plant to its McNary-Slatt 500-kV transmission line. PGE would pay BPA for wheeling services. Key environmental concerns identified in the scoping process and evaluated in the draft Environmental Impact Statement (DEIS) include these potential impacts: (1) air quality impacts, such as emissions and their contributions to the {open_quotes}greenhouse{close_quotes} effect; (2) health and safety impacts, such as effects of electric and magnetic fields, (3) noise impacts, (4) farmland impacts, (5) water vapor impacts to transportation, (6) economic development and employment impacts, (7) visual impacts, (8) consistency with local comprehensive plans, and (9) water quality and supply impacts, such as the amount of wastewater discharged, and the source and amount of water required to operate the plant. These and other issues are discussed in the DEIS. The proposed project includes features designed to reduce environmental impacts. Based on studies completed for the DEIS, adverse environmental impacts associated with the proposed project were identified, and no evidence emerged to suggest that the proposed action is controversial.

  12. Hot spot-ridge crest convergence in the northeast Pacific

    SciTech Connect (OSTI)

    Karsten, J.L.; Delaney, J.R. )

    1989-01-10

    Evolution of the Juan de Fuca Ridge during the past 7 m.y. has been reconstructed taking into account both the propagating rift history and migration of the spreading center in the 'absolute' (fixed hot spot) reference frame. Northwestward migration of the spreading center (at a rate of 30 km/m.y.) has resulted in progressive encroachment of the ridge axis on the Cobb Hot Spot and westward jumping of the central third of the ridge axis more recently than 0.5 Ma. Seamounts in the Cobb-Eickelberg chain are predicted to display systematic variations in morphology and petrology, and a reduction in the age contrast between the edifice and underlying crust, as a result of the ridge axis approach. Relative seamount volumes also indicate that magmatic output of the hot spot varied during this interval, with a reduction in activity between 2.5 and 4.5 Ma, compared with relatively more robust activity before and after this period. Spatial relationships determined in this reconstruction allow hypotheses relating hot spot activity and rift propagation to be evaluated. In most cases, rift propagation has been directed away from the hot spot during the time period considered. Individual propagators show some reduction in propagation rate as separation between the propagating rift tip and hot spot increases, but cross comparison of multiple propagators does not uniformly display the same relationship. No obvious correlation exists between propagation rate and increasing proximity of the hot spot to the ridge axis or increasing hot spot output. Taken together, these observations do not offer compelling support for the concept of hot spot driven rift propagation. However, short-term reversals in propagation direction at the Cobb Offset coincide with activity of the Heckle melting anomaly, suggesting that local propagation effects may be related to excess magma supply at the ridge axis.

  13. Study plan for critical renewable energy storage technology (CREST)

    SciTech Connect (OSTI)

    None, None

    2009-01-18

    Now is the time to plan to integrate significant quantities of distributed renewable energy into the electricity grid. Concerns about climate change, the adoption of state-level renewable portfolio standards and incentives, and accelerated cost reductions are driving steep growth in U.S. renewable energy technologies. The number of distributed solar photovoltaic (PV) installations and wind farms are growing rapidly. The potential for concentrated solar power (CSP) also continues to grow. As renewable energy technologies mature, they can provide a significant share of our nations electricity requirements.

  14. Crest Hill, Illinois: Energy Resources | Open Energy Information

    Open Energy Info (EERE)

    Hill, Illinois: Energy Resources Jump to: navigation, search Equivalent URI DBpedia Coordinates 41.554753, -88.0986709 Show Map Loading map... "minzoom":false,"mappingservice"...

  15. Cost of Renewable Energy Spreadsheet Tool (CREST) | Open Energy...

    Open Energy Info (EERE)

    cleanenergysolutions.orgcontentcost-renewable-energy-spreadsheet-too Language: English Policies: Regulations Regulations: Feed-in Tariffs Assess projects, design cost-based...

  16. DOI-BLM-NV-CO1000-2010-0011-CX | Open Energy Information

    Open Energy Info (EERE)

    11-CX CX at Coyote Canyon Geothermal Area for GeothermalExploration CX for Electromagnetic Survey at Coyote Canyon Geothermal Area for GeothermalExploration General NEPA Document...

  17. EIS-0201: Final Environmental Impact Statement

    Broader source: Energy.gov [DOE]

    Coyote Springs Cogeneration Project and Portland General Electric Company's Request for Transmission Service

  18. Property:County | Open Energy Information

    Open Energy Info (EERE)

    Fort Geothermal Project + Millard County, Utah + Coyote Canyon Geothermal Project + Churchill County, NV + Crump Geyser Geothermal Project + Lake County, UT + D Darrough Hot...

  19. DOI-BLM-NV-CO1000-2010-0021-CX | Open Energy Information

    Open Energy Info (EERE)

    21-CX CX at Coyote Canyon Geothermal Area for GeothermalExploration, CX for Electromagnetic Survey at Dixie Meadows Geothermal Lease for GeothermalExploration General NEPA...

  20. CX-012224: Categorical Exclusion Determination

    Broader source: Energy.gov [DOE]

    Coyote Creek Property Acquisition Funding CX(s) Applied: B1.25 Date: 06/25/2014 Location(s): Oregon Offices(s): Bonneville Power Administration

  1. Glen Wurden

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    safety of one's driveway is not always as undisturbed and peaceful as one may wish. "Java gets excited when coyotes are nearby," Wurden notes, "and one night I got excited, too,...

  2. DOI-BLM-NV-CO1000-2010-0022-CX | Open Energy Information

    Open Energy Info (EERE)

    CX Jump to: navigation, search NEPA Document Collection for: DOI-BLM-NV-CO1000-2010-0022-CX CX at Coyote Canyon Geothermal Area for GeothermalExploration, CX for Electromagnetic...

  3. DOI-BLM-NV-CO1000-2010-0010-CX | Open Energy Information

    Open Energy Info (EERE)

    CX Jump to: navigation, search NEPA Document Collection for: DOI-BLM-NV-CO1000-2010-0010-CX CX at Coyote Canyon Geothermal Area for GeothermalExploration CX for Seismic Survey at...

  4. CX-002532: Categorical Exclusion Determination

    Broader source: Energy.gov [DOE]

    Spacer Damper Replacements on the McNary-Coyote Springs Number-1 Transmission LineCX(s) Applied: B1.3Date: 05/26/2010Location(s): MorrowCounty, OregonOffice(s): Bonneville Power Administration

  5. CX-001414: Categorical Exclusion Determination

    Broader source: Energy.gov [DOE]

    Coyote Springs-Slatt #1: Spacer Damper ReplacementsCX(s) Applied: B1.3Date: 04/12/2010Location(s): Gilliam County, Oregon Office(s): Bonneville Power Administration

  6. CX-009788: Categorical Exclusion Determination

    Broader source: Energy.gov [DOE]

    Provision of Funds to Acquire a Conservation Easement Over the 310-acre Coyote Creek property. CX(s) Applied: B1.25 Date: 01/23/2013 Location(s): Oregon Offices(s): Bonneville Power Administration

  7. NVN-017283A | Open Energy Information

    Open Energy Info (EERE)

    OF LAND MGMT Lessee 1 TGP COYOTE CANYON LLC Lessee 2 none provided Effective Date 1111977 Expire Date Held By Production (HBP) HELD BY LOCATION IN A PRODUCING UNIT HBP Date 6...

  8. NVN-017282 | Open Energy Information

    Open Energy Info (EERE)

    OF LAND MGMT Lessee 1 TGP COYOTE CANYON LLC Lessee 2 none provided Effective Date 1111977 Expire Date Held By Production (HBP) HELD BY LOCATION IN A PRODUCING UNIT HBP Date 6...

  9. NVN-060688 | Open Energy Information

    Open Energy Info (EERE)

    BUREAU OF LAND MGMT Lessee 1 TGP COYOTE CANYON LLC Lessee 2 none provided Effective Date 711996 Expire Date Held By Production (HBP) HBP Date RoyaltyRate Most Recent Action...

  10. NVN-086892 | Open Energy Information

    Open Energy Info (EERE)

    BUREAU OF LAND MGMT Lessee 1 TGP COYOTE CANYON LLC Lessee 2 none provided Effective Date 912009 Expire Date Held By Production (HBP) HBP Date RoyaltyRate Most Recent Action...

  11. NVN-089605 | Open Energy Information

    Open Energy Info (EERE)

    BUREAU OF LAND MGMT Lessee 1 TGP COYOTE CANYON LLC Lessee 2 none provided Effective Date 512011 Expire Date Held By Production (HBP) HBP Date RoyaltyRate Most Recent Action...

  12. Carter County, Tennessee: Energy Resources | Open Energy Information

    Open Energy Info (EERE)

    Carter County, Tennessee Central, Tennessee Elizabethton, Tennessee Hunter, Tennessee Johnson City, Tennessee Pine Crest, Tennessee Roan Mountain, Tennessee Watauga, Tennessee...

  13. Multidimensional thermal-chemical cookoff modeling

    SciTech Connect (OSTI)

    Baer, M.R.; Gross, R.J.; Gartling, D.K.; Hobbs, M.L.

    1994-08-01

    Multidimensional thermal/chemical modeling is an essential step in the development of a predictive capability for cookoff of energetic materials in systems subjected to abnormal thermal environments. COYOTE II is a state-of-the-art two- and three-dimensional finite element code for the solution of heat conduction problems including surface-to-surface thermal radiation heat transfer and decomposition chemistry. Multistep finite rate chemistry is incorporated into COYOTE II using an operator-splitting methodology; rate equations are solved element-by-element with a modified matrix-free stiff solver, CHEMEQ. COYOTE II is purposely designed with a user-oriented input structure compatible with the database, the pre-processing mesh generation, and the post-processing tools for data visualization shared with other engineering analysis codes available at Sandia National Laboratories. As demonstrated in a companion paper, decomposition during cookoff in a confined or semi-confined system leads to significant mechanical behavior. Although mechanical effect are not presently considered in COYOTE II, the formalism for including mechanics in multidimensions is under development.

  14. CX-003182: Categorical Exclusion Determination

    Broader source: Energy.gov [DOE]

    Los Coyotes Band of Cahuilla and Cupeno IndiansCX(s) Applied: A9, A11, B2.5, B5.1Date: 07/22/2010Location(s): CaliforniaOffice(s): Energy Efficiency and Renewable Energy

  15. Harvest Energy | Open Energy Information

    Open Energy Info (EERE)

    Energy Address: 220 Park Crest Place: Newport Coast Region: United States Sector: Marine and Hydrokinetic Year Founded: 2008 Phone Number: 949-940-8825 This company is listed...

  16. HPX - 5 on Edison, Cori and Babbage

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Storage & File Systems Data & Analytics Connecting to ... Center for Research in Extreme Scale Technology (CREST) at Indiana University for petascaleexascale computing. Building ...

  17. NREL: Dynamic Maps, GIS Data, and Analysis Tools - Marine & Hydrokinet...

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    transfer of wave energy along wave crests, which enables densities within a few kilometers of a linear array, even for fixed terminator devices. The total available energy...

  18. Browse by Discipline -- E-print Network Subject Pathways: Environmenta...

    Office of Scientific and Technical Information (OSTI)

    Technology (CREST)- Renewable Energy Policy Project Columbia University - Waste-to-Energy Research and Technology Council (WTERT) Columbia University, Department of Earth ...

  19. MHK Technologies/The DUCK | Open Energy Information

    Open Energy Info (EERE)

    Technology Description The Duck is a crest spanning spine mounted slack moored deep water floating electricity generating terminator Tank tests showed that it could capture...

  20. EA-1374-SA-02: Supplment Analysis | Department of Energy

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    in the Lower Columbia River Research Project The Bonneville Power Administration (BPA) is funding ongoing research on Caspian terns, double-crested cormorants, and several...

  1. EA-1374-SA-05: Supplement Analysis | Department of Energy

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    in the Lower Columbia River Research Project The Bonneville Power Administration (BPA) is funding ongoing research on Caspian terns, double-crested cormorants, and several...

  2. EA-1374-SA-03: Supplement Analysis | Department of Energy

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    in the Lower Columbia River Research Project The Bonneville Power Administration (BPA) is funding ongoing research on Caspian terns, double-crested cormorants, and several...

  3. Beasley Lab | Savannah River Ecology Laboratory

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Field & Molecular Techniques in Wildlife Research & Management student with coyote Course Information: Offered each year through the UGA Warnell School of Forestry and Natural Resources Course Number: WILD 4650/6650 Duration: Two weeks in May, dates vary by year Faculty Directors: Jim Beasley and Stacey Lance Course Description: This is a 4-hour graduate/undergraduate-level summer course held at the Savannah River Ecology Laboratory. The course will expose students to a variety of field

  4. Beasley Lab | Savannah River Ecology Laboratory

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Carnivore Ecology Across the globe populations of large carnivores have significantly declined due to a multitude of human-related factors. In contrast, some smaller carnivores (e.g., raccoons, red fox, coyotes) have thrived in landscapes dominated by human activity and thus are often a significant source of human-wildlife conflict. As a result, carnivores are an important group of species of both conservation and management concern. We are interested in all aspects of carnivore ecology, with

  5. DOE - NNSA/NFO -- Photo Library Animals

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Animals NNSA/NFO Language Options U.S. DOE/NNSA - Nevada Field Office Photo Library - Animals Coyotes, kit foxes, pronghorn antelope, desert tortoises, sidewinder snakes, bald eagles, kangaroo rats and peregrine falcons are just a few of the more than 1,500 animal species found on the Nevada National Security Site. Instructions: Click the document THUMBNAIL to view the photograph details. Click the Category, Number, or Date table header links to sort the information. Thumbnail Category Number

  6. Northern Cheyenne Tribe30 MW Wind Energy Development Grant

    Energy Savers [EERE]

    4 Northern Cheyenne Tribe 30 MW Wind Energy Development Grant Renewable Energy Development on Tribal lands Joe Little Coyote, Sr., Tribal Planner Dale Osborn, President Distributed Generation Systems, Inc. (Disgen) Contractor 10-18-04 Northern Cheyenne Tribe 30 MW Wind Energy Development Grant Discussion Outline Project Overview Objectives Project Location Project Participants Requested Technical Support 10-18-04 Northern Cheyenne Tribe 30 MW Wind Energy Development Grant Project Overview *

  7. Chu, Locke, Browner Call for Comprehensive Energy Plan at Clean...

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    CA NRDC, FL Nth Power, CA Object Management Group, NJ Orbit Energy, Inc., NC Osage Bio Energy, VA Outpost Solar, TN Pacific Carbon Exchange, CA Pacific Crest Securities, OR...

  8. MHK Technologies/Open HydroTurbine | Open Energy Information

    Open Energy Info (EERE)

    CrestEnergy Project(s) where this technology is utilized *MHK ProjectsPaimpol Brehat tidal farm Technology Resource Click here CurrentTidal Technology Description See Open...

  9. Research Update: Interface-engineered oxygen octahedral tilts...

    Office of Scientific and Technical Information (OSTI)

    Authors: Kan, Daisuke, E-mail: dkan@scl.kyoto-u.ac.jp ; Aso, Ryotaro ; Kurata, Hiroki 1 ; Shimakawa, Yuichi 1 ; Japan Science and Technology Agency, CREST, Uji, Kyoto 611-0011 ...

  10. Energy efficiency CD ROM. Final technical report

    SciTech Connect (OSTI)

    Totten, Michael

    1998-01-01

    The Center for Renewable Energy and SustainableTechnology (CREST) has completed the three tasks of subcontract DE-FC36-97GO10228. Three separate multimedia CD-ROM products were developed.

  11. OCEANS'13 MTS/IEEE SAN DIEGO, SEPTEMBER

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Microgrid Testbed (SSMTB) 4, 5, 6. Given a time-indexed weather profile (i.e. wind speed (msec), wave crest (m), river currents (msec), solar irradiance (Wm 2 ), etc.)...

  12. MHK Technologies/New Pendulor | Open Energy Information

    Open Energy Info (EERE)

    the incident wave power to be reflected, absorbed and transmitted through a hydraulic pump. The back wall has low crest elevation to decrease wave force at storm waves, and a...

  13. Yucca Mountain | Department of Energy

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    production of nuclear power Nuclear fuel pellets 2 of 13 Nuclear fuel pellets Aerial view of north end of the Yucca Mountain crest in February 1993 3 of 13 Aerial view of north...

  14. CX-002303: Categorical Exclusion Determination

    Broader source: Energy.gov [DOE]

    Center for Renewable Energy Science and Technology (CREST)CX(s) Applied: B3.6, A11Date: 05/17/2010Location(s): Arlington, TexasOffice(s): Fossil Energy, National Energy Technology Laboratory

  15. Financing Initiatives Toolkit | Open Energy Information

    Open Energy Info (EERE)

    wind, and geothermal technologies, respectively. CREST was originally designed for the U.S. market but could be applied elsewhere if metric conversations are made (e.g., currency...

  16. Students from Aurora Triumph in Competition of the Mind

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Competition of the Mind For more information contact: e:mail: Public Affairs Golden, Colo., February 8, 1997 -- Students from Aurora's Eagle Crest High School won top honors at the 1997 Colorado Science Bowl today at the Auraria Campus of Metropolitan State College in Denver. In the final round of fast-paced questions about physics, math, biology, astronomy, chemistry, computers and the earth sciences, Eagle Crest was victorious over students from Aurora's Smoky Hill High School. Some 40 student

  17. 05-05-2010 NNSA-B-10-0144

    National Nuclear Security Administration (NNSA)

    5-05-2010 NNSA-B-10-0144 The U.S. Department of Energy/National Nuclear Security Administration (DOE/NNSA) proposes to modify the overflow lines for the twin, 10,000 (10K) gallon (gal), elevated water storage tanks located in Coyote Test Field (CTF). The overflow lines are required to extend to within 18 inches (in.) of ground level by the American Water Workers Association (AWWA) M42, Standard Specification D100, and New Mexico Administrative Code (NMAC). These two, 10K-gal, elevated water

  18. On the application of computational fluid dynamics codes for liquefied natural gas dispersion.

    SciTech Connect (OSTI)

    Luketa-Hanlin, Anay Josephine; Koopman, Ronald P.; Ermak, Donald

    2006-02-01

    Computational fluid dynamics (CFD) codes are increasingly being used in the liquefied natural gas (LNG) industry to predict natural gas dispersion distances. This paper addresses several issues regarding the use of CFD for LNG dispersion such as specification of the domain, grid, boundary and initial conditions. A description of the k-{var_epsilon} model is presented, along with modifications required for atmospheric flows. Validation issues pertaining to the experimental data from the Burro, Coyote, and Falcon series of LNG dispersion experiments are also discussed. A description of the atmosphere is provided as well as discussion on the inclusion of the Coriolis force to model very large LNG spills.

  19. Sandia National Laboratories approach to emergency preparedness

    SciTech Connect (OSTI)

    Galegar, F.H.; Yourick, P.D.; Ross, S.A.

    1997-12-31

    Sandia National Laboratories is located on Kirtland AFB on Albuquerque, NM. The Air Force Base proper covers about 74 square miles in which SNL maintains 5 technical areas and the Coyote Test Field. These SNL areas add up to about 18,000 acres. However, SNL has other locations where we conduct corporate emergency planning: Kauai Test Facility (at Pacific Missile Range Facility in Kauai, Hawaii), and the Tonopah Test Range (Nevada). SNL/California located in Livermore has an independent emergency preparedness organization for their emergency planning activities.

  20. Metallic nut for use with ceramic threads

    DOE Patents [OSTI]

    Norton, Paul F.; Shaffer, James E.

    1996-01-01

    A nozzle guide vane assembly has ceramic components therein having a conventional thread thereon including a preestablished pitch and having a preestablished rate of thermal expansion. The nozzle guide vane assembly has a metallic components therein having a preestablished rate of thermal expansion being greater that the rate of thermal expansion of the ceramic components is positioned in a gas turbine engine. The metallic component, a nut, has a thread therein including a plurality of crests being spaced on a pitch equal to that of the ceramic component and has a pair of contacting surfaces extending from the plurality of crests. A notch spirally extends intermediate adjacent ones of the plurality of crests and has a preestablished depth which is at least twice the size of the conventional pitch. Furthermore, the pair of contacting surfaces are in contact with only a portion of the threaded surface of the ceramic components.

  1. Use of incomplete energy recovery for the energy compression of large energy spread charged particle beams

    DOE Patents [OSTI]

    Douglas, David R.; Benson, Stephen V.

    2007-01-23

    A method of energy recovery for RF-base linear charged particle accelerators that allows energy recovery without large relative momentum spread of the particle beam involving first accelerating a waveform particle beam having a crest and a centroid with an injection energy E.sub.o with the centroid of the particle beam at a phase offset f.sub.o from the crest of the accelerating waveform to an energy E.sub.full and then recovering the beam energy centroid a phase f.sub.o+Df relative to the crest of the waveform particle beam such that (E.sub.full-E.sub.o)(1+cos(f.sub.o+Df))>dE/2 wherein dE=the full energy spread, dE/2=the full energy half spread and Df=the wave form phase distance.

  2. Geotechnical characterization of several coal combustion by-products

    SciTech Connect (OSTI)

    Zhang, M.; Feng, A.; Deschamps, R.

    1996-11-01

    The generation of coal combustion by-products (CCBPs) by utility companies and private industries is increasing and the trend is expected to continue in the foreseeable future. A large roadway embankment is currently under construction using several CCBPs as structural fill. The project site is located on the Purdue University campus in West Lafayette, Indiana. A paved road will be constructed on the crest of this embankment to extend Russell Street, providing convenient access to the southern expansion of Purdue University`s campus. The embankment is approximately 700 feet in length, with a maximum crest height of about 40 feet. The crest will be about 50 feet wide and a maximum base width of 250 feet. A comprehensive geotechnical laboratory testing and field monitoring program is being implemented to evaluate the physical and mechanical characteristics of various CCBPs and to predict the performance of the embankment during and after construction. Preliminary geotechnical laboratory testing results are presented in this paper.

  3. Renewable Energy Cost Modeling: A Toolkit for Establishing Cost-Based Incentives in the United States; March 2010 -- March 2011

    SciTech Connect (OSTI)

    Gifford, J. S.; Grace, R. C.; Rickerson, W. H.

    2011-05-01

    This report is intended to serve as a resource for policymakers who wish to learn more about establishing cost-based incentives. The report will identify key renewable energy cost modeling options, highlight the policy implications of choosing one approach over the other, and present recommendations on the optimal characteristics of a model to calculate rates for cost-based incentives, feed-in tariffs (FITs), or similar policies. These recommendations will be utilized in designing the Cost of Renewable Energy Spreadsheet Tool (CREST). Three CREST models will be publicly available and capable of analyzing the cost of energy associated with solar, wind, and geothermal electricity generators. The CREST models will be developed for use by state policymakers, regulators, utilities, developers, and other stakeholders to assist them in current and future rate-setting processes for both FIT and other renewable energy incentive payment structures and policy analyses.

  4. Water resources data for Louisiana, water year 1996. Water-data report (Annual), 1 October 1995-30 September 1996

    SciTech Connect (OSTI)

    Garrison, C.R.; Lovelace, W.M.; Montgomery, P.A.

    1997-05-01

    The report contains records for water discharge at 64 gaging stations; stage only for 41 gaging stations and 5 lakes; water quality for 38 surface-water stations (including 22 gage stations) and 100 wells; and water levels for 235 observation wells. Also included are data for 117 crest-stage and flood-profile partial-record stations.

  5. HPX

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    HPX HPX HPX refers to High Performance ParalleX. There are currently two implementations of HPX on NERSC systems. STELLAR HPX on NERSC is described here. CREST HPX on NERSC is described here. Last edited: 2016-04-29 11:35:1

  6. Degradation Study of the Peel Strength of Mini-Modules Under Damp Heat

    Broader source: Energy.gov (indexed) [DOE]

    Condition | Department of Energy ps4_crest_wu.pdf More Documents & Publications Agenda for the PV Module Reliability Workshop, February 26 - 27 2013, Golden, Colorado QA TG5 UV, temperature and humidity Acceleration Factors for Damp-Heat and HAST with High Voltage Stress

  7. Report of endangered species studies on Naval Petroleum Reserve No. 2, Kern County, California

    SciTech Connect (OSTI)

    O'Farrell, T.P.; Warrick, G.D.; Mathews, N.E.; Kato, T.T.

    1987-09-01

    Between 1983 and 1986 the size of the population of San Joaquin kit foxes (Vulpes macrotis mutica) on Naval Petroleum Reserve No. 2 (NPR-2), Kern County, California, was estimated semiannually using capture-recapture techniques. Although summer population estimates varied between 222 in 1983 and 121 in 1986, and winter estimates varies between 258 in 1984 and 91 in 1983, the population appeared to remain relatively stable at an apparent norm of 165. Kit foxes were abundant even in the intensely developed areas, and numbers and densities (1.12 to 2.49/sq mile) were consistently higher on NPR-2 than on neighboring NPR-1. The percentage of adult vixens that successfully raised pups was 55%, average litter size was 4.0 +- 0.0, and the sex ratio (M:F) of 25 pups was 1:1.5. Most (45.2%) foxes were killed by coyotes (Canis latrans), vehicles killed 6.4%, and 6.5% died of other causes. A cause could not be determined for 41.9% of the deaths. There was a general increase in coyote visitation rates at scent stations, but kit fox visitation rates generally decreased. Kit fox indices were consistently higher on NPR-2 than on NPR-1. Approximately 15% of the kit foxes on NPR-2 dispersed an average of 2.2 +- 0.2 miles. Average dispersal distance did not differ between the sexes. The longest dispersal was 6.9 miles. Proportionately more male than female pups dispersed. Remains of lagomorphs (jackrabbits and cottontails) and kangaroo rats had the highest frequency of occurrence in scats. Frequency of occurrence of lagomorph remains was greater in developed than in undeveloped habitats. Proportions of lagomorph remains increased and kangaroo rat remains decreased between 1983 and 1984. 62 refs., 9 figs., 24 tabs.

  8. Vectorization

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Running jobs File Storage and I/O Software and Tools Coarray Fortran cChapel Shared and Dynamic Libraries Cluster Compatibility Mode Debugging and Profiling Performance and Optimization Cray XC30 Documentation Alva - Test and Development System for Edison CREST HPX on Edison, Cori and Babbage PDSF Genepool Testbeds Retired Systems Storage & File Systems Data & Analytics Connecting to NERSC Queues and Scheduling Job Logs & Statistics Application Performance Training & Tutorials

  9. Microsoft PowerPoint - Weston-Principles of Decoupling-Florida-August 2008.ppt [Compatibility Mode]

    Energy Savers [EERE]

    Customer-Sited Resources and Utility Profits: Aligning Incentives with Public Policy Goals Aligning Incentives with Public Policy Goals Florida Public Service Commission 7 August 2008 Frederick Weston The Regulatory Assistance Project The Regulatory Assistance Project 110 B Water St. Hallowell, Maine USA 04347 Tel: 207.623.8393 50 State Street, Suite 3 Montpelier, Vermont USA 05602 Tel: 802.223.8199 27 Penny Lane Cedar Crest, New Mexico USA 87008 Tel: 505.286.4486 Fax: 207.623.8369 Fax:

  10. ELECTRONIC MULTIPLIER

    DOE Patents [OSTI]

    Collier, D.M.; Meeks, L.A.; Palmer, J.P.

    1961-01-31

    S>An electronic multiplier is described for use in analog computers. Two electrical input signals are received; one controls the slope of a saw-tooth voltage wave while the other controls the time duration of the wave. A condenser and diode clamps are provided to sustain the crest voltage reached by the wave, and for storing that voltage to provide an output signal which is a steady d-c voltage.

  11. Cray XC30 User Documentation

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Software and Tools Coarray Fortran cChapel Shared and Dynamic Libraries Cluster Compatibility Mode Debugging and Profiling Performance and Optimization Cray XC30 Documentation Alva - Test and Development System for Edison CREST HPX on Edison, Cori and Babbage PDSF Genepool Testbeds Retired Systems Storage & File Systems Data & Analytics Connecting to NERSC Queues and Scheduling Job Logs & Statistics Application Performance Training & Tutorials Software Policies User Surveys

  12. A high-elevation, multi-proxy biotic and environmental record of MIS 64 from the Ziegler Reservoir fossil site, Snowmass Village, Colorado, USA

    SciTech Connect (OSTI)

    Ian M. Miller; Mitchell A. Plummer; Various Others

    2014-10-01

    In North America, terrestrial records of biodiversity and climate change that span Marine Oxygen Isotope Stage (MIS) 5 are rare. Where found, they provide insight into how the coupling of the oceanatmosphere system is manifested in biotic and environmental records and how the biosphere responds to climate change. In 20102011, construction at Ziegler Reservoir near Snowmass Village, Colorado (USA) revealed a nearly continuous, lacustrine/wetland sedimentary sequence that preserved evidence of past plant communities between ~140 and 55 ka, including all of MIS 5. At an elevation of 2705 m, the Ziegler Reservoir fossil site also contained thousands of well-preserved bones of late Pleistocene megafauna, including mastodons, mammoths, ground sloths, horses, camels, deer, bison, black bear, coyotes, and bighorn sheep. In addition, the site contained more than 26,000 bones from at least 30 species of small animals including salamanders, otters, muskrats, minks, rabbits, beavers, frogs, lizards, snakes, fish, and birds. The combination of macro- and micro-vertebrates, invertebrates, terrestrial and aquatic plant macrofossils, a detailed pollen record, and a robust, directly dated stratigraphic framework shows that high-elevation ecosystems in the Rocky Mountains of Colorado are climatically sensitive and varied dramatically throughout MIS 5

  13. Microsoft PowerPoint - Wayne_Shirley_Decoupling_Mechanics_and_Issues.ppt [Compatibility Mode]

    Energy Savers [EERE]

    Decoupling: Mechanics and Issues Presentation to the New Mexico Public Regulation Commission Energy Efficiency Incentives Workshop July 16-17, 2008 The Regulatory Assistance Project Presented by Wayne Shirley The Regulatory Assistance Project 110 B Water St. Hallowell, Maine USA 04347 Tel: 207.623.8393 50 State Street, Suite 3 Montpelier, Vermont USA 05602 Tel: 802.223.8199 27 Penny Lane Cedar Crest, New Mexico USA 87008 Tel: 505.286.4486 Fax: 207.623.8369 Fax: 802.223.8172 E-Fax: 773.347.1512

  14. Microsoft PowerPoint - Wayne_Shirley_Overview_of_Incentives2008_08_22.ppt [Compatibility Mode]

    Energy Savers [EERE]

    Utility Incentives Presentation to the Kansas Corporation Commission E Effi i I i W k h Energy Efficiency Incentives Workshop August 26, 2008 Presented by The Regulatory Assistance Project Presented by Wayne Shirley The Regulatory Assistance Project 110 B Water St. Hallowell, Maine USA 04347 Tel: 207.623.8393 50 State Street, Suite 3 Montpelier, Vermont USA 05602 Tel: 802.223.8199 27 Penny Lane Cedar Crest, New Mexico USA 87008 Tel: 505.286.4486 Fax: 207.623.8369 Fax: 802.223.8172 E-Fax:

  15. New hydrocracker complex: The master plan study report, volume 2. Export trade information

    SciTech Connect (OSTI)

    1995-06-16

    The study, conducted by ABB Lummus Crest, was funded by the U.S. Trade and Development Agency. The purpose of the Master Plan is to aid in the implementation of the new hydrocracker complex at the Kirishi Refinery in Russia. The report contains financial information, including the project costs and the development of a financing plan. Also covered in the study is a marketing plan for both the domestic and export scenarios for products produced by the complex. This is Volume 2 of a three volume report and it is divided into the following sections: (2) Background and Introduction; (3) Project Profile; (4) Safety. Appendixes A and B follow.

  16. New hydrocracker complex: The master plan study report. Executive summary. Volume 1. Export trade information

    SciTech Connect (OSTI)

    1995-06-16

    The study, conducted by ABB Lummus Crest, was funded by the U.S. Trade and Development Agency. The purpose of the Master Plan is to aid in the implementation of the new hydrocracker complex at the Kirishi Refinery in Russia. The report contains financial information, including the project costs and the development of a financing plan. Also covered in the study is a marketing plan for both the domestic and export scenarios for products produced by the complex. This is Volume 1 of a three volume report and it contains the Executive Summary.

  17. New hydrocracker complex: The master plan study report. Volume 3. Export trade information

    SciTech Connect (OSTI)

    1995-06-16

    The study, conducted by ABB Lummus Crest, was funded by the U.S. Trade and Development Agency. The purpose of the Master Plan is to aid in the implementation of the new hydrocracker complex at the Kirishi Refinery in Kirishi, Russia. The report contains financial information, including the project costs and the development of a financing plan. Also covered in the study is a marketing plan for both the domestic and export scenarios for products produced by the complex. This is Volume 3 of a three volume report and is divided into the following sections: (5) Marketing Plan; (6) Project Costs and Economics; (7) Project Execution. Appendix C follows.

  18. Hydrodynamic Focusing Micropump Module with PDMS/Nickel Particle

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Hydrodynamic Focusing Micropump Module with PDMS/Nickel Particle Composite Diaphragms for Microfluidic Systems J. Kim 1,2, * , P. Ajmera 1 , J. Goettert 2 , Y. Jin 2,3 and K.-N. Kang 1,2 1 LSU - Department of Electrical and Computer Engineering 2 LSU-Center for Advanced Microstructures and Devices 3 NextGenC3 Composites CREST Center, Southern University and A&M College, USA * Master Thesis J. Kim, LSU-ECE Department Summary As part of the Post-Katrina project, a multi-fluidic

  19. War damages and reconstruction of Peruca dam

    SciTech Connect (OSTI)

    Nonveiller, E.; Rupcic, J.; Sever, Z.

    1999-04-01

    The paper describes the heavy damages caused by blasting in the Peruca rockfill dam in Croatia in January 1993. Complete collapse of the dam by overtopping was prevented through quick action of the dam owner by dumping clayey gravel on the lowest sections of the dam crest and opening the bottom outlet of the reservoir, thus efficiently lowering the water level. After the damages were sufficiently established and alternatives for restoration of the dam were evaluated, it was decided to construct a diaphragm wall through the damaged core in the central dam part as the impermeable dam element and to rebuild the central clay core at the dam abutments. Reconstruction works are described.

  20. Low enthalpy convective system in Western Ohio

    SciTech Connect (OSTI)

    Cannon, M.S.; Tabet, C.A.; Eckstein, Y.

    1980-01-01

    A distinct positive anomaly in the temperatures of the shallow (Pleistocene) aquifers along the Cincinnati-Findlay Arch in Western Ohio coincides with a low geothermal gradient. A conceptual model of convective currents associated with a tensional fault and/or fracture system along the crest of the Arch is suggested as an explanation of the anomaly. Hydrochemical information indicates that various quantities of warmer ground water, with the composition characteristics of deep bedrock aquifers, is present as an admixture in the shallow aquifers. This confirms the conceptual model of convection in fractures.

  1. Microsoft Word - 11319 Final.doc

    Office of Environmental Management (EM)

    Decoupling: Mechanics and Issues Presentation to the New Mexico Public Regulation Commission Energy Efficiency Incentives Workshop July 16-17, 2008 The Regulatory Assistance Project Presented by Wayne Shirley The Regulatory Assistance Project 110 B Water St. Hallowell, Maine USA 04347 Tel: 207.623.8393 50 State Street, Suite 3 Montpelier, Vermont USA 05602 Tel: 802.223.8199 27 Penny Lane Cedar Crest, New Mexico USA 87008 Tel: 505.286.4486 Fax: 207.623.8369 Fax: 802.223.8172 E-Fax: 773.347.1512

  2. 100-N Area Strontium-90 Treatability Demonstration Project: Phytoextraction Along the 100-N Columbia River Riparian Zone – Field Treatability Study

    SciTech Connect (OSTI)

    Fellows, Robert J.; Fruchter, Jonathan S.; Driver, Crystal J.; Ainsworth, Calvin C.

    2010-01-11

    Strontium-90 (90Sr) is present both in the aquifer near the river and in the vadose and riparian zones of the river’s shore at 100-NR-2. Phytoextraction of 90Sr is being considered as a potential remediation system along the riparian zone of the Columbia River. Phytoextraction would employ coyote willow (Salix exigua). Past studies have shown that willow roots share uptake mechanisms for Sr with Ca, a plant macronutrient as well as no discrimination between Sr and 90Sr. Willow 90Sr concentration ratios [CR’s; (pCi 90Sr/g dry wt. of new growth tissue)/(pCi 90Sr/g soil porewater)] were consistently greater than 65 with three-quarters of the assimilated label partitioned into the above ground shoot. Insect herbivore experiments also demonstrated no significant potential for bioaccumulation or food chain transfer from their natural activities. The objectives of this field study were three-fold: (1) to demonstrate that a viable, “managed” plot of coyote willows can be established on the shoreline of the Columbia River that would survive the same microenvironment to be encountered at the 100-NR-2 shoreline; (2) to show through engineered barriers that large and small animal herbivores can be prevented from feeding on these plants; and (3) to show that once established, the plants will provide sufficient biomass annually to support the phytoextraction technology. A field treatability demonstration plot was established on the Columbia River shoreline alongside the 100-K West water intake at the end of January 2007. The plot was delimited by a 3.05 m high chain-link fence and was approximately 10 x 25 m in size. A layer of fine mesh metal small animal screening was placed around the plot at the base of the fencing to a depth of 45 cm. A total of sixty plants were placed in six slightly staggered rows with 1-m spacing between plants. The actual plot size was 0.00461 hectare (ha). At the time of planting (March 12, 2007), the plot was located about 10 m from the river’s edge. Less than two weeks later (March 21), the river began the spring rise. Periodic (daily) or continuous flooding occurred at the site over the next 3 to 4 months. River levels at times were over the top of the enclosure’s fence. This same pattern was repeated for the next 2 years. It was however evident that even submerged for part, or all of the day, that the plants continued to flourish. There were no indications of herbivory or animal tracks observed within the plot although animals were present in the area. Biomass production over the three years followed a typical growth curve with a yield of about 1 kg for the first year when the trees were establishing themselves, 4 kg for the second, and over 20 kg for the third when the trees were entering the exponential phase of growth. On a metric Ton per hectare (mT/ha) basis this would be 0.2 mT/ha in 2007, 0.87 mT/ha in 2008, and 4.3 mT/ha in 2009. Growth curve extrapolation predicts 13.2 mT/ha during a fourth year and potentially 29.5 mT/ha following a fifth year. Using the observed Ca and Sr concentrations found in the plant tissues, and Sr CR’s calculated from groundwater analysis, projected biomass yields suggest the trees could prove effective in removing the contaminant from the 100-NR-2 riparian zone.

  3. 100-N Area Strontium-90 Treatability Demonstration Project: Food Chain Transfer Studies for Phytoremediation Along the 100-N Columbia River Riparian Zone

    SciTech Connect (OSTI)

    Fellows, Robert J.; Fruchter, Jonathan S.; Driver, Crystal J.

    2009-04-01

    Strontium-90 (90Sr) exceeds the U.S. Environmental Protection Agencys drinking water standards for groundwater (8 picocuries/L) by as much as a factor of 1000 at several locations within the Hanford 100-N Area and along the 100-N Area Columbia River shoreline). Phytoextraction, a managed remediation technology in which plants or integrated plant/rhizosphere systems are employed to phytoextract and/or sequester 90Sr, is being considered as a potential remediation system along the riparian zone of the Columbia River as part of a treatment train that includes an apatite barrier to immobilize groundwater transport of 90Sr. Phytoextraction would employ coyote willow (Salix exigua) to extract 90Sr from the vadose zone soil and aquifer sediments (phytoextraction) and filter 90Sr (rhizofiltration) from the shallow groundwater along the riparian zone of the Columbia River. The stem and foliage of coyote willows accumulating 90Sr may present not only a mechanism to remove the contaminant but also can be viewed as a source of nutrition for natural herbivores, therefore becoming a potential pathway for the isotope to enter the riparian food chain. Engineered barriers such as large and small animal fencing constructed around the field plot will control the intrusion of deer, rodents, birds, and humans. These efforts, however, will have limited effect on mobile phytophagous insects. Therefore, this study was undertaken to determine the potential for food chain transfer by insects prior to placement of the remediation technology at 100-N. Insect types include direct consumers of the sap or liquid content of the plants vascular system (xylem and phloem) by aphids as well as those that would directly consume the plant foliage such as the larvae (caterpillars) of Lepidoptera species. Heavy infestations of aphids feeding on the stems and leaves of willows growing in 90Sr-contaminated soil can accumulate a small amount (~0.15 0.06%) of the total label removed from the soil by the plant over a 17-day exposure period. The 90Sr in the exuded honeydew during this period amounted to 1.17 0.28% of this total label. The honeydew would eventually be deposited into the soil at the base of the plant, but the activity would be so dispersed as to be undetectable. Moth larvae will consume 90Sr contaminated leaves but retain very little of the label (~0.02%) and only that contained in their digestive tracts. As the moths pupated and became adults, they contained no detectable amounts of 90Sr. Over the 10-day exposure period, ~4% of the phytoextracted 90Sr was lost from the plant as moth feces. However, like the honeydew, feces dispersed into the soil were undetectable. As the plant diminishes the content of 90Sr in the soil, the activity of the label in the leaves and new stems would also diminish. The results of these studies indicate that the risk for detectable transfer of 90Sr from willow trees growing in the contaminated soil along the 100-N shoreline through the food chain of herbivorous insects would be very slight to non-existent

  4. Vortices catapult droplets in atomization

    SciTech Connect (OSTI)

    Jerome, J. John Soundar Zaleski, Stphane; Hoepffner, Jrme; Marty, Sylvain; Matas, Jean-Philippe

    2013-11-15

    A droplet ejection mechanism in planar two-phase mixing layers is examined. Any disturbance on the gas-liquid interface grows into a Kelvin-Helmholtz wave, and the wave crest forms a thin liquid film that flaps as the wave grows downstream. Increasing the gas speed, it is observed that the film breaks up into droplets which are eventually thrown into the gas stream at large angles. In a flow where most of the momentum is in the horizontal direction, it is surprising to observe these large ejection angles. Our experiments and simulations show that a recirculation region grows downstream of the wave and leads to vortex shedding similar to the wake of a backward-facing step. The ejection mechanism results from the interaction between the liquid film and the vortex shedding sequence: a recirculation zone appears in the wake of the wave and a liquid film emerges from the wave crest; the recirculation region detaches into a vortex and the gas flow over the wave momentarily reattaches due to the departure of the vortex; this reattached flow pushes the liquid film down; by now, a new recirculation vortex is being created in the wake of the wavejust where the liquid film is now located; the liquid film is blown up from below by the newly formed recirculation vortex in a manner similar to a bag-breakup event; the resulting droplets are catapulted by the recirculation vortex.

  5. Potential effects of four Flaming Gorge Dam hydropower operational scenarios on riparian vegetation of the Green River, Utah and Colorado

    SciTech Connect (OSTI)

    LaGory, K.E.; Van Lonkhuyzen, R.A.

    1995-06-01

    Four hydropower operational scenarios at Flaming Gorge Dam were evaluated to determine their potential effects on riparian vegetation along the Green River in Utah and Colorado. Data collected in June 1992 indicated that elevation above the river had the largest influence on plant distribution. A lower riparian zone occupied the area between the approximate elevations of 800 and 4,200-cfs flows--the area within the range of hydropower operational releases. The lower zone was dominated by wetland plants such as cattail, common spikerush, coyote willow, juncus, and carex. An upper riparian zone was above the elevation of historical maximum power plant releases from the dam (4,200 cfs), and it generally supported plants adapted to mesic, nonwetland conditions. Common species in the upper zone included box elder, rabbitbrush, grasses, golden aster, and scouring rush. Multispectral aerial videography of the Green River was collected in May and June 1992 to determine the relationship between flow and the areas of water and the riparian zone. From these relationships, it was estimated that the upper zone would decrease in extent by about 5% with year-round high fluctuation, seasonally adjusted high fluctuation, and seasonally adjusted moderate fluctuation, but it would increase by about 8% under seasonally adjusted steady flow. The lower zone would increase by about 13% for both year-round and seasonally adjusted high fluctuation scenarios but would decrease by about 40% and 74% for seasonally adjusted moderate fluctuation and steady flows, respectively. These changes are considered to be relatively minor and would leave pre-dam riparian vegetation unaffected. Occasional high releases above power plant capacity would be needed for long-term maintenance of this relict vegetation.

  6. Endangered species and cultural resources program, Naval Petroleum Reserves in California: Annual report FY95

    SciTech Connect (OSTI)

    1996-04-01

    In FY95, EG and G Energy Measurements, Inc. (EG and G/EM) continued to support efforts to protect endangered species and cultural resources at the Naval Petroleum Reserves in California (NPRC). These efforts are conducted to ensure NPRC compliance with regulations regarding the protection of listed species and cultural resources on Federal properties. Population monitoring activities are conducted annually for San Joaquin kit foxes, giant kangaroo rats, blunt-nosed leopard lizards, and Hoover`s wooly-star. To mitigate impacts of oil field activities on listed species, 674 preactivity surveys covering approximately 211 hectares (521 acres) were conducted in FY95. EG and G/EM also assisted with mitigating effects from third-party projects, primarily by conducting biological and cultural resource consultations with regulatory agencies. EG and G/EM has conducted an applied habitat reclamation program at NPRC since 1985. In FY95, an evaluation of revegetation rates on reclaimed and non-reclaimed disturbed lands was completed, and the results will be used to direct future habitat reclamation efforts at NPRC. In FY95, reclamation success was monitored on 50 sites reclaimed in 1985. An investigation of factors influencing the distribution and abundance of kit foxes at NPRC was initiated in FY94. Factors being examined include habitat disturbance, topography, grazing, coyote abundance, lagomorph abundance, and shrub density. This investigation continued in FY95 and a manuscript on this topic will be completed in FY96. Also, Eg and G/EM completed collection of field data to evaluate the effects of a well blow-out on plant and animal populations. A final report will be prepared in FY96. Finally, EG and G/EM completed a life table analysis on San Joaquin kit foxes at NPRC.

  7. Water resources data for Louisiana, water year 1995. Water data report (Annual), 1 October 1994-30 September 1995

    SciTech Connect (OSTI)

    Garrison, C.R.; Lovelace, W.M.; Montgomery, P.A.

    1996-05-01

    Water resources data for the 1995 water year for Louisiana consists of records of stage, discharge, and water quality of streams; stage, contents, and water quality of lakes and reservoirs; and water levels and water quality of ground water. This report contains records for water discharge at 65 gaging stations; stage only for 40 gaging stations and 6 lakes; water quality for 45 surface-water stations (including 23 gage stations) and 76 wells; and water levels for 217 observation wells. Also included are data for 113 crest-stage and flood-profile partial-record stations. Additional water data were collected at various sites not involved in the systematic data-collection program, and are published as miscellaneous measurements.

  8. Water resources data for Louisiana, water year 1994. Water-data report (Annual), 1 October 1993-30 September 1994

    SciTech Connect (OSTI)

    Garrison, C.R.; Lovelace, W.M.; Montgomery, P.A.

    1995-03-01

    Water resources data for the 1994 water year for Louisiana consists of records for stage, discharge, and water quality of streams; stage, contents, and water quality of lakes and reservoirs; and water levels and water quality of ground water. This report contains records for water discharge at 64 gaging stations; stage only for 45 gaging stations and 6 lakes; water quality for 51 surface-water stations (including 24 gage stations) and 84 wells; and water levels for 209 observations wells. Also included are data for 115 crest-stage and flood-profile partial-record stations. Additional water data were collected at various sites not involved in the systematic data-collection program, and are published as miscellaneous measurements.

  9. Marine pipeline dynamic response to waves from directional wave spectra

    SciTech Connect (OSTI)

    Lambrakos, K.F.

    1982-07-01

    A methodology has been developed to calculate the dynamic probabilistic movement and resulting stresses for marine pipelines subjected to storm waves. A directional wave spectrum is used with a Fourier series expansion to simulate short-crested waves and calculate their loads on the pipeline. The pipeline displacements resulting from these loads are solutions to the time-dependent beam-column equation which also includes the soil resistance as external loading. The statistics of the displacements for individual waves are combined with the wave statistics for a given period of time, e.g. pipeline lifetime, to generate probabilistic estimates for net pipeline movement. On the basis of displacements for specified probability levels the pipeline configuration is obtained from which pipeline stresses can be estimated using structural considerations, e.g. pipeline stiffness, end restraints, etc.

  10. Recuperator construction for a gas turbine engine

    DOE Patents [OSTI]

    Kang, Yungmo; McKeirnan, Jr., Robert D.

    2006-12-12

    A counter-flow recuperator formed from annular arrays of recuperator core segments. The recuperator core segments are formed from two opposing sheets of fin fold material coined to form a primary surface zone disposed between two flattened manifold zones. Each primary surface zone has undulating corrugations including a uniform, full height central portion and a transition zone disposed between the central portion and one of the manifold zones. Corrugations of the transition zone rise from zero adjacent to the manifold zone and increase along a transition length to full crest height at the central portion. The transition lengths increase in a direction away from an inner edge containing the air inlet so as to equalize air flow to the distal regions of the primary surface zone.

  11. The challenge for the coiled-tubing industry

    SciTech Connect (OSTI)

    Blount, C.G.

    1994-05-01

    From Aug. 9 through 14, 1992, approximately 80 individuals from throughout the globe met in a seemingly remote area of the Colorado Rocky Mountains with one common bond: advancement of coiled-tubing (CT) technology. Numerous ideas and opinions were generated at the SPE Forum Series meeting to create a long list of areas with high leveraging potential (high return on investment) for an oil industry well below the crest of a boom'' cycle. However, from the master list, each individual was given the opportunity to vote for only three issues that they felt were the most pressing. The 17 items that survived the exercise are listed below, prioritized'' by this group's vote. A year and a half later, where do these leveraging ideas fit into the overall CT industry picture The paper reviews progress.

  12. Near-Field Spectroscopy and Imaging of Subwavelength Plasmonic Terahertz Resonators

    DOE Public Access Gateway for Energy & Science Beta (PAGES Beta)

    Mitrofanov, Oleg; Khromova, Irina; Siday, Thomas; Thompson, Robert J.; Ponomarev, Andrey N.; Brener, Igal; Reno, John L.

    2016-04-22

    We describe the temporal evolution of the terahertz (THz) field leading to the excitation of plasmonic resonances in carbon microfibers. The field evolution is mapped in space and time for the 3/2 wavelength resonance using a subwavelength aperture THz near-field probe with an embedded THz photoconductive detector. The excitation of surface waves at the fiber tips leads to the formation of a standing wave along the fiber. Local THz time-domain spectroscopy at one of the standing wave crests shows a clear third-order resonance peak at 1.65 THz, well described by the Lorentz model. Lastly, this application of the subwavelength aperturemore » THz near-field microscopy for mode mapping and local spectroscopy demonstrates the potential of near-field methods for studies of subwavelength plasmonic THz resonators.« less

  13. Geothermal Brief: Market and Policy Impacts Update

    SciTech Connect (OSTI)

    Speer, B.

    2012-10-01

    Utility-scale geothermal electricity generation plants have generally taken advantage of various government initiatives designed to stimulate private investment. This report investigates these initiatives to evaluate their impact on the associated cost of energy and the development of geothermal electric generating capacity using conventional hydrothermal technologies. We use the Cost of Renewable Energy Spreadsheet Tool (CREST) to analyze the effects of tax incentives on project economics. Incentives include the production tax credit, U.S. Department of Treasury cash grant, the investment tax credit, and accelerated depreciation schedules. The second half of the report discusses the impact of the U.S. Department of Energy's (DOE) Loan Guarantee Program on geothermal electric project deployment and possible reasons for a lack of guarantees for geothermal projects. For comparison, we examine the effectiveness of the 1970s DOE drilling support programs, including the original loan guarantee and industry-coupled cost share programs.

  14. Research, Monitoring, and Evaluation of Avian Predation on Salmonid Smolts in the Lower and Mid-Columbia River, 2006 Final Season Summary.

    SciTech Connect (OSTI)

    Roby, Daniel D.; Collis, Ken; Lyons, Donald E.

    2009-06-18

    This study investigates predation by piscivorous waterbirds on juvenile salmonids (Oncorhynchus spp.) from throughout the Columbia River Basin. During 2006, study objectives in the Columbia River estuary, work funded by the Bonneville Power Administration, were to (1) monitor and evaluate previous management initiatives to reduce Caspian tern (Hydroprogne caspia) predation on juvenile salmonids (smolts); (2) measure the impact of double-crested cormorant (Phalacrocorax auritus) predation on smolt survival, and assess potential management options to reduce cormorant predation; and (3) monitor large colonies of other piscivorous waterbirds in the estuary (i.e., glaucous-winged/western gulls [Larus glaucescens/occidentalis]) to determine the potential impacts on smolt survival. Study objectives on the mid-Columbia River, work funded by the Walla Walla District of the U.S. Army Corps of Engineers, were to (1) measure the impact of predation by Caspian terns and double-crested cormorants on smolt survival; and (2) monitor large nesting colonies of other piscivorous waterbirds (i.e., California gulls [L. californicus], ring-billed gulls [L. delawarensis], American white pelicans [Pelecanus erythrorhynchos]) on the mid-Columbia River to determine the potential for significant impacts on smolt survival. Our efforts to evaluate system-wide losses of juvenile salmonids to avian predation indicated that Caspian terns and double-crested cormorants were responsible for the vast majority of smolt losses to avian predators in the Columbia Basin, with most losses occurring in the Columbia River estuary. In 2006, East Sand Island in the Columbia River estuary supported the largest known breeding colonies of Caspian terns and double-crested cormorants in the world. The Caspian tern colony on East Sand Island consisted of about 9,200 breeding pairs in 2006, up slightly (but not significantly so) from the estimate of colony size in 2005 (8,820 pairs). There has not been a statistically significant change in the size of the Caspian tern colony on East Sand Island since 2000. Tern nesting success averaged 0.72 fledglings per breeding pair in 2006, significantly higher than in 2005 (0.37 fledglings per breeding pair), a year of poor ocean conditions. Despite the presumably higher availability of marine forage fishes in 2006, the proportion of juvenile salmonids in diets of Caspian terns (32% of prey items) averaged higher than in 2005 (23% of prey items) and 2004 (18% of prey items). Steelhead smolts were particular vulnerable to predation by East Sand Island terns in 2006, with predation rates as high as 20% on particular groups of PIT-tagged fish reaching the estuary. Consumption of juvenile salmonids by terns nesting at the East Sand Island colony in 2006 was approximately 5.3 million smolts (95% c.i. = 4.4-6.2 million), significantly higher than the estimated 3.6 million smolts consumed in 2005, but still roughly 7 million fewer smolts consumed compared to 1998 (when all terns nested on Rice Island in the upper estuary). Caspian terns nesting on East Sand Island continue to rely primarily on marine forage fishes as a food supply, even in 2005 when availability of marine forage fishes declined due to poor ocean conditions. Further management of Caspian terns to reduce losses of juvenile salmonids would be implemented under the Caspian Tern Management Plan for the Columbia River Estuary; the Records of Decision (RODs) authorizing implementation of the plan were signed in November 2006. The ROD lists as the management goal the redistribution of approximately half of the East Sand Island Caspian tern colony to alternative colony sites in interior Oregon and San Francisco Bay, California (USFWS 2006). Implementation of the management plan is stalled, however, because of the lack of appropriated funds.

  15. Renewable Energy Cost Modeling. A Toolkit for Establishing Cost-Based Incentives in the United States

    SciTech Connect (OSTI)

    Gifford, Jason S.; Grace, Robert C.; Rickerson, Wilson H.

    2011-05-01

    This report serves as a resource for policymakers who wish to learn more about levelized cost of energy (LCOE) calculations, including cost-based incentives. The report identifies key renewable energy cost modeling options, highlights the policy implications of choosing one approach over the other, and presents recommendations on the optimal characteristics of a model to calculate rates for cost-based incentives, FITs, or similar policies. These recommendations shaped the design of NREL's Cost of Renewable Energy Spreadsheet Tool (CREST), which is used by state policymakers, regulators, utilities, developers, and other stakeholders to assist with analyses of policy and renewable energy incentive payment structures. Authored by Jason S. Gifford and Robert C. Grace of Sustainable Energy Advantage LLC and Wilson H. Rickerson of Meister Consultants Group, Inc.

  16. SPUF - a simple polyurethane foam mass loss and response model.

    SciTech Connect (OSTI)

    Hobbs, Michael L.; Lemmon, Gordon H.

    2003-07-01

    A Simple PolyUrethane Foam (SPUF) mass loss and response model has been developed to predict the behavior of unconfined, rigid, closed-cell, polyurethane foam-filled systems exposed to fire-like heat fluxes. The model, developed for the B61 and W80-0/1 fireset foam, is based on a simple two-step mass loss mechanism using distributed reaction rates. The initial reaction step assumes that the foam degrades into a primary gas and a reactive solid. The reactive solid subsequently degrades into a secondary gas. The SPUF decomposition model was implemented into the finite element (FE) heat conduction codes COYOTE [1] and CALORE [2], which support chemical kinetics and dynamic enclosure radiation using 'element death.' A discretization bias correction model was parameterized using elements with characteristic lengths ranging from 1-mm to 1-cm. Bias corrected solutions using the SPUF response model with large elements gave essentially the same results as grid independent solutions using 100-{micro}m elements. The SPUF discretization bias correction model can be used with 2D regular quadrilateral elements, 2D paved quadrilateral elements, 2D triangular elements, 3D regular hexahedral elements, 3D paved hexahedral elements, and 3D tetrahedron elements. Various effects to efficiently recalculate view factors were studied -- the element aspect ratio, the element death criterion, and a 'zombie' criterion. Most of the solutions using irregular, large elements were in agreement with the 100-{micro}m grid-independent solutions. The discretization bias correction model did not perform as well when the element aspect ratio exceeded 5:1 and the heated surface was on the shorter side of the element. For validation, SPUF predictions using various sizes and types of elements were compared to component-scale experiments of foam cylinders that were heated with lamps. The SPUF predictions of the decomposition front locations were compared to the front locations determined from real-time X-rays. SPUF predictions of the 19 radiant heat experiments were also compared to a more complex chemistry model (CPUF) predictions made with 1-mm elements. The SPUF predictions of the front locations were closer to the measured front locations than the CPUF predictions, reflecting the more accurate SPUF prediction of mass loss. Furthermore, the computational time for the SPUF predictions was an order of magnitude less than for the CPUF predictions.

  17. CPUF - a chemical-structure-based polyurethane foam decomposition and foam response model.

    SciTech Connect (OSTI)

    Fletcher, Thomas H. (Brigham Young University, Provo, UT); Thompson, Kyle Richard; Erickson, Kenneth L.; Dowding, Kevin J.; Clayton, Daniel (Brigham Young University, Provo, UT); Chu, Tze Yao; Hobbs, Michael L.; Borek, Theodore Thaddeus III

    2003-07-01

    A Chemical-structure-based PolyUrethane Foam (CPUF) decomposition model has been developed to predict the fire-induced response of rigid, closed-cell polyurethane foam-filled systems. The model, developed for the B-61 and W-80 fireset foam, is based on a cascade of bondbreaking reactions that produce CO2. Percolation theory is used to dynamically quantify polymer fragment populations of the thermally degrading foam. The partition between condensed-phase polymer fragments and gas-phase polymer fragments (i.e. vapor-liquid split) was determined using a vapor-liquid equilibrium model. The CPUF decomposition model was implemented into the finite element (FE) heat conduction codes COYOTE and CALORE, which support chemical kinetics and enclosure radiation. Elements were removed from the computational domain when the calculated solid mass fractions within the individual finite element decrease below a set criterion. Element removal, referred to as ?element death,? creates a radiation enclosure (assumed to be non-participating) as well as a decomposition front, which separates the condensed-phase encapsulant from the gas-filled enclosure. All of the chemistry parameters as well as thermophysical properties for the CPUF model were obtained from small-scale laboratory experiments. The CPUF model was evaluated by comparing predictions to measurements. The validation experiments included several thermogravimetric experiments at pressures ranging from ambient pressure to 30 bars. Larger, component-scale experiments were also used to validate the foam response model. The effects of heat flux, bulk density, orientation, embedded components, confinement and pressure were measured and compared to model predictions. Uncertainties in the model results were evaluated using a mean value approach. The measured mass loss in the TGA experiments and the measured location of the decomposition front were within the 95% prediction limit determined using the CPUF model for all of the experiments where the decomposition gases were vented sufficiently. The CPUF model results were not as good for the partially confined radiant heat experiments where the vent area was regulated to maintain pressure. Liquefaction and flow effects, which are not considered in the CPUF model, become important when the decomposition gases are confined.

  18. Geologic reconnaissance of natural fore-reef slope and a large submarine rockfall exposure, Enewetak Atoll

    SciTech Connect (OSTI)

    Halley, R.B.; Slater, R.A.

    1987-05-01

    In 1958 a submarine rockfall exposed a cross section through the reef and fore-reef deposits along the northwestern margin of Enewetak Atoll, Marshall Islands. Removal of more than 10/sup 8/ MT of rock left a cirque-shaped submarine scarp 220 m high, extending back 190 m into the modern reef, and 1000 m along the reef trend. The scarp exposed older, steeply dipping beds below 220 m along which the rockfall detached. They sampled this exposure and the natural fore-reef slope surrounding it in 1984 and 1985 using a manned submersible. The natural slope in this area is characterized by three zone: (1) the reef plate, crest, and near fore reef that extends from sea level to -16 m, with a slope of less than 10/sup 0/, (2) the bypass slope that extends from -16 to -275 m, with slopes of 55/sup 0/ decreasing to 35/sup 0/ near the base, and (3) a debris slope of less than 35/sup 0/ below -275 m. Vertical walls, grooves, and chutes, common on other fore-reef slopes, are sparse on the northwestern slope of Enewetak. The scarp exposes three stratigraphic units that are differentiated by surficial appearance: (1) a near-vertical wall from the reef crest to 76 m that appears rubbly, has occasional debris-covered ledges, and is composed mainly of coral; (2) a vertical to overhanging wall from -76 m to -220 m that is massive and fractured, and has smooth, blocky surfaces; and (3) inclined bedding below -220 m along which the slump block has fractured, exposing a dip slope of hard, dense, white limestone and dolomite that extends below -400 m. Caves occur in all three units. Open cement-lined fractures and voids layered with cements are most common in the middle unit, which now lies within the thermocline. Along the sides of the scarp are exposed fore-reef boulder beds dipping at 30/sup 0/ toward the open sea; the steeper (55/sup 0/) dipping natural surface truncates these beds, which gives evidence of the erosional nature of the bypass slope.

  19. Ethanol-induced impairment of polyamine homeostasis – A potential cause of neural tube defect and intrauterine growth restriction in fetal alcohol syndrome

    SciTech Connect (OSTI)

    Haghighi Poodeh, Saeid; Alhonen, Leena; Salonurmi, Tuire; Savolainen, Markku J.

    2014-03-28

    Highlights: • Polyamine pools in embryonic and extraembryonic tissues are developmentally regulated. • Alcohol administration perturbs polyamine levels in the tissues with various patterns. • Total absence of polyamines in the embryo head at 9.5 dpc is critical for development. • The deficiency is associated with reduction in endothelial cell sprouting in the head. • Retarded migration of neural crest cells may cause development of neural tube defect. - Abstract: Introduction: Polyamines play a fundamental role during embryogenesis by regulating cell growth and proliferation and by interacting with RNA, DNA and protein. The polyamine pools are regulated by metabolism and uptake from exogenous sources. The use of certain inhibitors of polyamine synthesis causes similar defects to those seen in alcohol exposure e.g. retarded embryo growth and endothelial cell sprouting. Methods: CD-1 mice received two intraperitoneal injections of 3 g/kg ethanol at 4 h intervals 8.75 days post coitum (dpc). The fetal head, trunk, yolk sac and placenta were collected at 9.5 and 12.5 dpc and polyamine concentrations were determined. Results: No measurable quantity of polyamines could be detected in the embryo head at 9.5 dpc, 12 h after ethanol exposure. Putrescine was not detectable in the trunk of the embryo at that time, whereas polyamines in yolk sac and placenta were at control level. Polyamine deficiency was associated with slow cell growth, reduction in endothelial cell sprouting, an altered pattern of blood vessel network formation and consequently retarded migration of neural crest cells and growth restriction. Discussion: Our results indicate that the polyamine pools in embryonic and extraembryonic tissues are developmentally regulated. Alcohol administration, at the critical stage, perturbs polyamine levels with various patterns, depending on the tissue and its developmental stage. The total absence of polyamines in the embryo head at 9.5 dpc may explain why this stage is so vulnerable to the development of neural tube defect, and growth restriction, the findings previously observed in fetal alcohol syndrome.

  20. An experimental investigation of the dynamics of submarine leveed channel initiation as sediment-laden density currents experience sudden unconfinement

    SciTech Connect (OSTI)

    Rowland, Joel C; Hilley, George E; Fildani, Andrea

    2009-01-01

    Leveed submarine channels play a critical role in the transfer of sediment from the upper continental slopes to interslope basins and ultimately deepwater settings. Despite a reasonable understanding of how these channels grow once established, how such channels initiate on previously unchannelized portions of the seafloor remains poorly understood. We conducted a series of experiments that elucidate the influence of excess density relative to flow velocity on the dynamics of, and depositional morphologies arising from, density currents undergoing sudden unconfinement across a sloped bed. Experimental currents transported only suspended sediment across a non-erodible substrate. Under flow conditions ranging from supercritical to subcritical (bulk Richardson numbers of 0.02 to 1.2) our experiments failed to produce deposits resembling or exhibiting the potential to evolve into self-formed leveed channels. In the absence of excess density, a submerged sediment-laden flow produced sharp crested lateral deposits bounding the margins of the flow for approximately a distance of two outlet widths down basin. These lateral deposits terminated in a centerline deposit that greatly exceeded marginal deposits in thickness. As excess density increased relative to the outlet velocity, the rate of lateral spreading of the flow increased relative to the downstream propagation of the density current, transitioning from a narrow flow aligned with the channel outlet to a broad radially expanding flow. Coincident with these changes in flow dynamics, the bounding lateral deposits extended for shorter distances, had lower, more poorly defined crests that were increasingly wider in separation than the initial outlet, and progressively became more oblong rather than linear. Based on our results, we conclude that leveed channels cannot initiate from sediment-laden density currents under strictly depositional conditions. Partial confinement of these currents appears to be necessary to establish the hydrodynamic conditions needed for sediment deposition along the margins of a density current which ultimately may evolve into confining levees. We suggest that erosion into a previously unchannelized substrate is the mostly likely source of this partial confinement.

  1. Eder Acquisition 2007 Habitat Evaluation Procedures Report.

    SciTech Connect (OSTI)

    Ashley, Paul R.

    2008-01-01

    A habitat evaluation procedures (HEP) analysis was conducted on the Eder acquisition in July 2007 to determine how many protection habitat units to credit Bonneville Power Administration (BPA) for providing funds to acquire the project site as partial mitigation for habitat losses associated with construction of Grand Coulee and Chief Joseph Dams. Baseline HEP surveys generated 3,857.64 habitat units or 1.16 HUs per acre. HEP surveys also served to document general habitat conditions. Survey results indicated that the herbaceous plant community lacked forbs species, which may be due to both livestock grazing and the late timing of the surveys. Moreover, the herbaceous plant community lacked structure based on lower than expected visual obstruction readings (VOR); likely a direct result of livestock impacts. In addition, introduced herbaceous vegetation including cultivated pasture grasses, e.g. crested wheatgrass and/or invader species such as cheatgrass and mustard, were present on most areas surveyed. The shrub element within the shrubsteppe cover type was generally a mosaic of moderate to dense shrubby areas interspersed with open grassland communities while the 'steppe' component was almost entirely devoid of shrubs. Riparian shrub and forest areas were somewhat stressed by livestock. Moreover, shrub and tree communities along the lower reaches of Nine Mile Creek suffered from lack of water due to the previous landowners 'piping' water out of the stream channel.

  2. ANS complex of St John's wort PR-10 protein with 28 copies in the asymmetric unit: A fiendish combination of pseudosymmetry with tetartohedral twinning

    DOE Public Access Gateway for Energy & Science Beta (PAGES Beta)

    Sliwiak, Joanna; Dauter, Zbigniew; Kowiel, Marcin; McCoy, Airlie J.; Read, Randy J.; Jaskolski, Mariusz

    2015-03-26

    Hyp-1, a pathogenesis-related class 10 (PR-10) protein from St John's wort (Hypericum perforatum), was crystallized in complex with the fluorescent probe 8-anilino-1-naphthalene sulfonate (ANS). The highly pseudosymmetric crystal has 28 unique protein molecules arranged in columns with sevenfold translational noncrystallographic symmetry (tNCS) along c and modulated X-ray diffraction with intensity crests at l = 7n and l = 7n ± 3. The translational NCS is combined with pseudotetragonal rotational NCS. The crystal was a perfect tetartohedral twin, although detection of twinning was severely hindered by the pseudosymmetry. The structure determined at 2.4 Å resolution reveals that the Hyp-1 molecules (packedmore » as β-sheet dimers) have three novel ligand-binding sites (two internal and one in a surface pocket), which was confirmed by solution studies. In addition to 60 Hyp-1-docked ligands, there are 29 interstitial ANS molecules distributed in a pattern that violates the arrangement of the protein molecules and is likely to be the generator of the structural modulation. In particular, whenever the stacked Hyp-1 molecules are found closer together there is an ANS molecule bridging them.« less

  3. Shrub-Steppe Seasons A Natural History of the Mid-Columbia Basin

    SciTech Connect (OSTI)

    LE Rogers

    1995-08-01

    This book collects and updates a series of articles about the natural history of the Mid-Columbia region. The articles first appeared as a monthly column titled ''Natural History'' in the Tri-City Herald, beginning in May 1991. My approach has been to condense the best of what is known about the ecology of the region to a manageable length with little in the way of technical language and terms. Admittedly, there is a bias toward those topics and species on which I have either been personally involved or observed as part of the ecology research programs conducted on the Fitzner/Eberhardt Arid Lands Ecology (ALE) Reserve. The ALE Reserve is situated on the northeast-facing flank of the Rattlesnake Hills. Rattlesnake Mountain with a crest of over 3,600 feet is visible throughout much of the Mid-Columbia. Shrub-steppe grasslands once covered a large part of the western United States but most have been converted to other uses. The ALE site is the only remaining sizeable acreage (120 square miles) that is in near pristine condition and provides the only clear indication as to what the early trappers, traders, pioneers, and tribal members may have encountered in their day-to-day activities. In this respect, ALE provides a visible touchstone linking the past with the present for all of us.

  4. Evaluating Cumulative Ecosystem Response to Restoration Projects in the Lower Columbia River and Estuary, 2009

    SciTech Connect (OSTI)

    Johnson, Gary E.; Diefenderfer, Heida L.; Borde, Amy B.; Bryson, Amanda J.; Cameron, April; Coleman, Andre M.; Corbett, C.; Dawley, Earl M.; Ebberts, Blaine D.; Kauffman, Ronald; Roegner, G. Curtis; Russell, Micah T.; Silva, April; Skalski, John R.; Thom, Ronald M.; Vavrinec, John; Woodruff, Dana L.; Zimmerman, Shon A.

    2010-10-26

    This is the sixth annual report of a seven-year project (2004 through 2010) to evaluate the cumulative effects of habitat restoration actions in the lower Columbia River and estuary (LCRE). The project, called the Cumulative Effects Study, is being conducted for the U.S. Army Corps of Engineers Portland District (USACE) by the Marine Sciences Laboratory of the Pacific Northwest National Laboratory (PNNL), the Pt. Adams Biological Field Station of the National Marine Fisheries Service (NMFS), the Columbia River Estuary Study Taskforce (CREST), and the University of Washington. The goal of the Cumulative Effects Study is to develop a methodology to evaluate the cumulative effects of multiple habitat restoration projects intended to benefit ecosystems supporting juvenile salmonids in the 235-km-long LCRE. Literature review in 2004 revealed no existing methods for such an evaluation and suggested that cumulative effects could be additive or synergistic. From 2005 through 2009, annual field research involved intensive, comparative studies paired by habitat type (tidal swamp versus marsh), trajectory (restoration versus reference site), and restoration action (tidegate replacement vs. culvert replacement vs. dike breach).

  5. Italy - Adriatic Sea - Barbara - A giant gas field marked by seismic velocity anomaly - A subtle trap

    SciTech Connect (OSTI)

    Ianniello, A.; Bolelli, W.; Di Scala, L. )

    1990-09-01

    Barbara gas field, discovered in 1971, is located in the northern sector of the Adriatic offshore. The field is a gentle anticline involving Quaternary clastic sediments and shaped by carbonate Mesozoic morphology. The presence of shallow gas pockets at the crest of the structure distort the seismic signal to such an extent that structural reconstruction using seismic data is not possible. Moreover, time delays and ray-path anomalies do not allow the use of staking velocities for the depth conversion. Seismic attribute analysis, instead of velocities, and time delays on the isochrone maps are providing a key to the understanding of seismic anomalies and are an indirect tool for reconstructing the real structural configuration of the field. The appraisal story of the field illustrates how the previously mentioned complications influenced its delineation and how an understanding of these complications helped in upgrading the reserves from an initial value of 10 billion ECM of gas to 40 billion ECM. Additional data acquired with the development wells tend to increase the estimate. Therefore, Barbara field is the most important Italian gas field of the decade. The producing formation is composed of very thin-bedded sandstone and shale intercalations, representing the peculiarity of this reservoir. Development of the field is being achieved with six production platforms and 72 wells.

  6. Geothermal-resource assessment of Ranger Warm Spring, Colorado. Resources Series 24

    SciTech Connect (OSTI)

    Zacharakis, T.G.; Pearl, R.H.; Ringrose, C.D.

    1983-01-01

    In 1977 a program was initiated to delineate the geological features controlling the occurrence of geothermal resources in Colorado. This program consisted of literature search, reconnaissance geologic and hydrogeologic mapping and geophysical and geochemical surveys. During 1980 and 1981 geothermal resource assessment efforts were conducted in the Cement Creek Valley south of Crested Butte. In this valley are two warm springs, Cement Creek and Ranger, about 4 mi (6.4 km) apart. The temperature of both springs is 77 to 79/sup 0/F (25 to 26/sup 0/C) and the discharge ranges from 60 to 195 gallons per minute. Due to access problems no work was conducted in the Cement Creek Warm Springs area. At Ranger Warm Springs electrical resistivity and soil mercury surveys were conducted. The warm springs are located in the Elk Mountains of west central Colorado. The bedrock of the area consists of sedimentary rocks ranging in age from Precambrian to Recent. Several faults with displacements of up to 3000 ft (194 m) are found in the area. One of these faults passes close to the Ranger Warm Springs. The electrical resistivity survey indicated that the waters of Ranger Warm Springs are moving up along a buried fault which parallels Cement Creek.

  7. Energy Efficiency Strategies for Municipal Wastewater Treatment Facilities

    SciTech Connect (OSTI)

    Daw, J.; Hallett, K.; DeWolfe, J.; Venner, I.

    2012-01-01

    Water and wastewater systems are significant energy consumers with an estimated 3%-4% of total U.S. electricity consumption used for the movement and treatment of water and wastewater. Water-energy issues are of growing importance in the context of water shortages, higher energy and material costs, and a changing climate. In this economic environment, it is in the best interest for utilities to find efficiencies, both in water and energy use. Performing energy audits at water and wastewater treatment facilities is one way community energy managers can identify opportunities to save money, energy, and water. In this paper the importance of energy use in wastewater facilities is illustrated by a case study of a process energy audit performed for Crested Butte, Colorado's wastewater treatment plant. The energy audit identified opportunities for significant energy savings by looking at power intensive unit processes such as influent pumping, aeration, ultraviolet disinfection, and solids handling. This case study presents best practices that can be readily adopted by facility managers in their pursuit of energy and financial savings in water and wastewater treatment. This paper is intended to improve community energy managers understanding of the role that the water and wastewater sector plays in a community's total energy consumption. The energy efficiency strategies described provide information on energy savings opportunities, which can be used as a basis for discussing energy management goals with water and wastewater treatment facility managers.

  8. Geological and Geothermal Investigation of the Lower Wind River Valley, Southwestern Washington Cascade Range

    SciTech Connect (OSTI)

    Berri, Dulcy A.; Korosec, Michael A.

    1983-01-01

    The Wind River Valley, on the west slope of the Cascade Range, is a northwest-trending drainage that joins the Columbia River near Carson, Washington. The region has been heavily dissected by fluvial and glacial erosion. Ridges have sharp crests and deep subsidiary valleys typical of a mature topography, with a total relief of as much as 900 m. The region is vegetated by fir and hemlock, as well as dense, brushy ground-cover and undergrowth. The lower 8 km of the valley is privately owned and moderately populated. The upper reaches lies within the Gifford Pinchot National Forest, and include several campgrounds and day parks, the Carson National Fish Hatchery, and the Wind River Ranger Station and Wind River Nursery of the US Forest Service. Logging activity is light due to the rugged terrain, and consequently, most valley slopes are not accessible by vehicle. The realization that a potential for significant geothermal resources exists in the Wind River area was brought about by earlier exploration activities. Geologic mapping and interpretation was needed to facilitate further exploration of the resource by providing a knowledge of possible geologic controls on the geothermal system. This report presents the detailed geology of the lower Wind River valley with emphasis on those factors that bear significantly on development of a geothermal resource.

  9. A review of wind field models for atmospheric transport

    SciTech Connect (OSTI)

    Ramsdell, J.V. Jr.; Skyllingstad, E.D.

    1993-06-01

    The primary objective of the Hanford Environmental Dose Reconstruction (HEDR) Project is to estimate the radiation dose that individuals could have received as a result of emissions since 1944 from the US Department of Energy`s (DOE) Hanford Site near Richland, Washington. The HEDR Project is developing a computer code to estimate these doses and their uncertainties. The code, known as the HEDR integrated Code (HEDRIC), consists of four separate component codes. One of the component codes, called the Regional Atmospheric Transport Code for Hanford Emission Tracking (RATCHET) combines meteorological and release data to estimate time-integrated air concentrations and surface contamination at specific locations in the vicinity of the Hanford Site. The RATCHET domain covers approximately 75,000 square miles, extending from the crest of the Cascade Mountains on the west to the eastern edge of the Idaho panhandle and from central Oregon on the south to the Canadian border. This letter report explains the procedures in RATCHET that transform observed wind data into the wind fields used in atmospheric transport calculations. It also describes and evaluates alternative procedures not selected for use in RATCHET.

  10. Geologic technical assessment of the Chacahoula Salt Dome, Louisiana, for potential expansion of the U.S. strategic petroleum reserve.

    SciTech Connect (OSTI)

    Snider, Anna C.; Rautman, Christopher Arthur; Looff, Karl M.

    2006-03-01

    The Chacahoula salt dome, located in southern Louisiana, approximately 66 miles southwest of New Orleans, appears to be a suitable site for a 160-million-barrel-capacity expansion facility for the U.S. Strategic Petroleum Reserve, comprising sixteen 10-million barrel underground storage caverns. The overall salt dome appears to cover an area of some 1800 acres, or approximately 2.8 square miles, at a subsea elevation of 2000 ft, which is near the top of the salt stock. The shallowest known salt is present at 1116 ft, subsea. The crest of the salt dome is relatively flatlying, outward to an elevation of -4000 ft. Below this elevation, the flanks of the dome plunge steeply in all directions. The dome appears to comprise two separate spine complexes of quasi-independently moving salt. Two mapped areas of salt overhang, located on the eastern and southeastern flanks of the salt stock, are present below -8000 ft. These regions of overhang should present no particular design issues, as the conceptual design SPR caverns are located in the western portion of the dome. The proposed cavern field may be affected by a boundary shear zone, located between the two salt spines. However, the large size of the Chacahoula salt dome suggests that there is significant design flexibility to deal with such local geologic issues.

  11. A Bunch Compression Method for Free Electron Lasers that Avoids Parasitic Compressions

    SciTech Connect (OSTI)

    Benson, Stephen V.; Douglas, David R.; Tennant, Christopher D.; Wilson, Frederick G.; Nguyen, Dinh

    2015-09-01

    Virtually all existing high energy (>few MeV) linac-driven FELs compress the electron bunch length though the use of off-crest acceleration on the rising side of the RF waveform followed by transport through a magnetic chicane. This approach has at least three flaws: 1) it is difficult to correct aberrations- particularly RF curvature, 2) rising side acceleration exacerbates space charge-induced distortion of the longitudinal phase space, and 3) all achromatic "negative compaction" compressors create parasitic compression during the final compression process, increasing the CSR-induced emittance growth. One can avoid these deficiencies by using acceleration on the falling side of the RF waveform and a compressor with M56>0. This approach offers multiple advantages: 1) It is readily achieved in beam lines supporting simple schemes for aberration compensation, 2) Longitudinal space charge (LSC)-induced phase space distortion tends, on the falling side of the RF waveform, to enhance the chirp, and 3) Compressors with M56>0 can be configured to avoid spurious over-compression. We will discuss this bunch compression scheme in detail and give results of a successful beam test in April 2012 using the JLab UV Demo FEL

  12. RIVERTON DOME GAS EXPLORATION AND STIMULATION TECHNOLOGY DEMONSTRATION, WIND RIVER BASIN, WYOMING

    SciTech Connect (OSTI)

    Ronald C. Surdam; Zunsheng Jiao; Nicholas K. Boyd

    1999-11-01

    The new exploration technology for basin center gas accumulations developed by R.C. Surdam and Associates at the Institute for Energy Research, University of Wyoming, was applied to the Riverton Dome 3-D seismic area. Application of the technology resulted in the development of important new exploration leads in the Frontier, Muddy, and Nugget formations. The new leads are adjacent to a major north-south trending fault, which is downdip from the crest of the major structure in the area. In a blind test, the drilling results from six new Muddy test wells were accurately predicted. The initial production values, IP, for the six test wells ranged from < one mmcf/day to four mmcf/day. The three wells with the highest IP values (i.e., three to four mmcf/day) were drilled into an intense velocity anomaly (i.e., anomalously slow velocities). The well drilled at the end of the velocity anomaly had an IP value of one mmcf/day, and the two wells drilled outside of the velocity anomaly had IP values of < one mmcf/day and are presently shut in. Based on these test results, it is concluded that the new IER exploration strategy for detecting and delineating commercial, anomalously pressured gas accumulation is valid in the southwestern portions of the Wind River Basin, and can be utilized to significantly reduce exploration risk and to increase profitability of so-called basin center gas accumulations.

  13. Multipacting in a grooved choke joint at SRF gun for BNL ERL prototype

    SciTech Connect (OSTI)

    Xu, W.; Ben-Zvi, I.; Belomestnykh, S.; Burrill, A.; Holmes, D.; Kayran, D.; McIntyre, G.; Sheehy, B.

    2011-03-28

    The 703 MHz superconducting gun for BNL ERL prototype was tested at JLab with and without choke-joint and cathode stalk. Without choke-joint and cathode stalk, the gradient reached was 25 MV/m with Q{sup 0} {approx} 6E9. The gun cathode insertion port is equipped with a grooved choke joint for multipacting suppression. We carried out tests with choke-joint and cathode stalk. The test results show that there are at least two barriers at about 3.5 MV/m and 5 MV/m. We considered several possibilities and finally found that fine details of the grooved shape are important for multipacting suppression. A triangular groove with round crest may cause strong multipacting in the choke-joint at 3.5 MV/m, 5 MV/m and 10 MV/m. This paper presents the primary test results of the gun and discusses the multipacting analysis in the choke-joint. It also suggests possible solutions for the gun and multipacting suppressing for a similar structure.

  14. Regional setting of Niobrara Formation in Northern Great Plains

    SciTech Connect (OSTI)

    Shurr, G.W.

    1984-05-01

    Natural gas is currently produced from the Upper Cretaceous Niobrara Formation in northeastern Colorado, northwestern Kansas, and several small fields in Nebraska. As a part of studies of low-permeability gas reservoirs in the northern Great Plains, the regional geologic setting of the Niobrara has been investigated in North Dakota, South Dakota, and Nebraska. Structural contours of the Ardmore Bentonite Bed suggest that the area of thin Niobrara strata presently approximates the south flank of the Williston basin and north flank of the Denver and Kennedy basins. Chalk tongues are interpreted as low-angle shelf surfaces, known as carbonate ramps, which sloped gently to the northwest and southeast off a paleotectonic high. The paleotectonic high cut obliquely across the seaway and was close to the position of the Transcontinental arch that influenced Paleozoic sedimentation. As a result, the present-day stratigraphy and structural setting of the Niobrara are different north and south of the arch crest. 58 references, 13 figures, 1 table.

  15. Relationship between alveolar bone measured by /sup 125/I absorptiometry with analysis of standardized radiographs: 2. Bjorn technique

    SciTech Connect (OSTI)

    Ortman, L.F.; McHenry, K.; Hausmann, E.

    1982-05-01

    The Bjorn technique is widely used in periodontal studies as a standardized measure of alveolar bone. Recent studies have demonstrated the feasibility of using /sup 125/I absorptiometry to measure bone mass. The purpose of this study was to compare /sup 125/I absorptiometry with the Bjorn technique in detecting small sequential losses of alveolary bone. Four periodontal-like defects of incrementally increasing size were produced in alveolar bone in the posterior segment of the maxilla of a human skull. An attempt was made to sequentially reduce the amount of bone in 10% increments until no bone remained, a through and through defect. The bone remaining at each step was measured using /sup 125/I absorptiometry. At each site the /sup 125/I absorptiometry measurements were made at the same location by fixing the photon source to a prefabricated precision-made occlusal splint. This site was just beneath the crest and midway between the borders of two adjacent teeth. Bone loss was also determined by the Bjorn technique. Standardized intraoral films were taken using a custom-fitted acrylic clutch, and bone measurements were made from the root apex to coronal height of the lamina dura. A comparison of the data indicates that: (1) in early bone loss, less than 30%, the Bjorn technique underestimates the amount of loss, and (2) in advanced bone loss, more than 60% the Bjorn technique overestimates it.

  16. Nonlinear dynamic response of submarine pipelines in contact with the ocean floor

    SciTech Connect (OSTI)

    Chung, C.K.

    1986-01-01

    The nonlinear dynamic response of a submarine pipeline to wave and current excitation is investigated by the finite-element method. The pipeline, in contact with soft clay on the ocean floor, is modeled as a continuous beam. Small-deflection theory with geometric stiffening is employed. Pipeline tension, used in the geometric stiffness matrix, is calculated using pipeline stretch. The hydrodynamic forces are calculated using the modified Morison equation. The excitation involves a long-crested regular wave propagating perpendicular to the pipeline axis with or with out the current. The distributed drag and lift forces are converted into multisegment concentrated forces by means of the beam shape functions, and the inertia force is treated as a uniformly distributed force on each element. The soil-resistance forces due to lateral sliding on a plane surface are calculated using either an elasto-plastic or a hysteretic pipeline-soil interaction model. The Newmark Method is used to integrate the nonlinear equations of dynamic equilibrium using an iterative scheme within each time step. It is found from this study that the use of geometric stiffness is necessary for pipelines in a marine environment. The significant effect of geometric stiffening on pipeline responses for cases involving current is demonstrated.

  17. ANS complex of St John’s wort PR-10 protein with 28 copies in the asymmetric unit: a fiendish combination of pseudosymmetry with tetartohedral twinning

    SciTech Connect (OSTI)

    Sliwiak, Joanna; Dauter, Zbigniew; Kowiel, Marcin; McCoy, Airlie J.; Read, Randy J.; Jaskolski, Mariusz

    2015-04-01

    Hyp-1, a pathogenesis-related class 10 (PR-10) protein from H. perforatum, was crystallized in complex with the fluorescent probe 8-anilino-1-naphthalene sulfonate (ANS). The asymmetric unit of the tetartohedrally twinned crystal contains 28 copies of the protein arranged in columns with noncrystallographic sevenfold translational symmetry and with additional pseudotetragonal rotational NCS. Hyp-1, a pathogenesis-related class 10 (PR-10) protein from St John’s wort (Hypericum perforatum), was crystallized in complex with the fluorescent probe 8-anilino-1-naphthalene sulfonate (ANS). The highly pseudosymmetric crystal has 28 unique protein molecules arranged in columns with sevenfold translational noncrystallographic symmetry (tNCS) along c and modulated X-ray diffraction with intensity crests at l = 7n and l = 7n ± 3. The translational NCS is combined with pseudotetragonal rotational NCS. The crystal was a perfect tetartohedral twin, although detection of twinning was severely hindered by the pseudosymmetry. The structure determined at 2.4 Å resolution reveals that the Hyp-1 molecules (packed as β-sheet dimers) have three novel ligand-binding sites (two internal and one in a surface pocket), which was confirmed by solution studies. In addition to 60 Hyp-1-docked ligands, there are 29 interstitial ANS molecules distributed in a pattern that violates the arrangement of the protein molecules and is likely to be the generator of the structural modulation. In particular, whenever the stacked Hyp-1 molecules are found closer together there is an ANS molecule bridging them.

  18. ANS complex of St John's wort PR-10 protein with 28 copies in the asymmetric unit: A fiendish combination of pseudosymmetry with tetartohedral twinning

    SciTech Connect (OSTI)

    Sliwiak, Joanna; Dauter, Zbigniew; Kowiel, Marcin; McCoy, Airlie J.; Read, Randy J.; Jaskolski, Mariusz

    2015-03-26

    Hyp-1, a pathogenesis-related class 10 (PR-10) protein from St John's wort (Hypericum perforatum), was crystallized in complex with the fluorescent probe 8-anilino-1-naphthalene sulfonate (ANS). The highly pseudosymmetric crystal has 28 unique protein molecules arranged in columns with sevenfold translational noncrystallographic symmetry (tNCS) along c and modulated X-ray diffraction with intensity crests at l = 7n and l = 7n ± 3. The translational NCS is combined with pseudotetragonal rotational NCS. The crystal was a perfect tetartohedral twin, although detection of twinning was severely hindered by the pseudosymmetry. The structure determined at 2.4 Å resolution reveals that the Hyp-1 molecules (packed as β-sheet dimers) have three novel ligand-binding sites (two internal and one in a surface pocket), which was confirmed by solution studies. In addition to 60 Hyp-1-docked ligands, there are 29 interstitial ANS molecules distributed in a pattern that violates the arrangement of the protein molecules and is likely to be the generator of the structural modulation. In particular, whenever the stacked Hyp-1 molecules are found closer together there is an ANS molecule bridging them.

  19. Movement of tagged dredged sand at thalweg disposal sites in the Upper Mississippi River. Volume 3. Additional results at Gordon's Ferry and Whitney Island sites

    SciTech Connect (OSTI)

    McCown, D.L.; Paddock, R.A.

    1985-04-01

    During routine channel maintenance, hydraulically dredged sand was tagged with sand coated with fluorescent dye before being deposited as a pile in the thalweg at three sites on the Upper Mississippi River. As discussed in the first two volumes of this report, bathymetry was measured and surface sediments were sampled to study changes in the topography of the disposal pile and the downstream movement of the tagged sand. At all three sites, topographic evidence of the pile disappeared after the first period of high river flow, which was followed by redevelopment of dunes in the disposal area. The tagged sand did not migrate into nearby border areas, backwaters, or sloughs, remaining in the main channel as it moved downstream. This volume presents the results of additional surveys at the Gordon's Ferry and Whitney Island sites. At Gordon's Ferry, 25 bottom cores were taken to examine the three-dimensional distribution of tagged sand in the bottom sediments. The core analyses indicated that much of the tagged sand had been incorporated into the dune structure and that it resided primarily in the crests of the dunes.

  20. Geologyy of the Yucca Mountain Site Area, Southwestern Nevada, Chapter in Stuckless, J.S., ED., Yucca Mountain, Nevada - A Proposed Geologic Repository for High-Level Radioactive Waste (Volume 1)

    SciTech Connect (OSTI)

    W.R. Keefer; J.W. Whitney; D.C. Buesch

    2006-09-25

    Yucca Mountain in southwestern Nevada is a prominent, irregularly shaped upland formed by a thick apron of Miocene pyroclastic-flow and fallout tephra deposits, with minor lava flows, that was segmented by through-going, large-displacement normal faults into a series of north-trending, eastwardly tilted structural blocks. The principal volcanic-rock units are the Tiva Canyon and Topopah Spring Tuffs of the Paintbrush Group, which consist of volumetrically large eruptive sequences derived from compositionally distinct magma bodies in the nearby southwestern Nevada volcanic field, and are classic examples of a magmatic zonation characterized by an upper crystal-rich (> 10% crystal fragments) member, a more voluminous lower crystal-poor (< 5% crystal fragments) member, and an intervening thin transition zone. Rocks within the crystal-poor member of the Topopah Spring Tuff, lying some 280 m below the crest of Yucca Mountain, constitute the proposed host rock to be excavated for the storage of high-level radioactive wastes. Separation of the tuffaceous rock formations into subunits that allow for detailed mapping and structural interpretations is based on macroscopic features, most importantly the relative abundance of lithophysae and the degree of welding. The latter feature, varying from nonwelded through partly and moderately welded to densely welded, exerts a strong control on matrix porosities and other rock properties that provide essential criteria for distinguishing hydrogeologic and thermal-mechanical units, which are of major interest in evaluating the suitability of Yucca Mountain to host a safe and permanent geologic repository for waste storage. A thick and varied sequence of surficial deposits mantle large parts of the Yucca Mountain site area. Mapping of these deposits and associated soils in exposures and in the walls of trenches excavated across buried faults provides evidence for multiple surface-rupturing events along all of the major faults during Pleistocene and Holocene times; these paleoseismic studies form the basis for evaluating the potential for future earthquakes and fault displacements. Thermoluminescence and U-series analyses were used to date the surficial materials involved in the Quaternary faulting events. The rate of erosional downcutting of bedrock on the ridge crests and hillslopes of Yucca Mountain, being of particular concern with respect to the potential for breaching of the proposed underground storage facility, was studied by using rock varnish cation-ratio and {sup 10}Be and {sup 36}Cl cosmogenic dating methods to determine the length of time bedrock outcrops and hillslope boulder deposits were exposed to cosmic rays, which then served as a basis for calculating long-term erosion rates. The results indicate rates ranging from 0.04 to 0.27 cm/k.y., which represent the maximum downcutting along the summit of Yucca Mountain under all climatic conditions that existed there during most of Quaternary time. Associated studies include the stratigraphy of surficial deposits in Fortymile Wash, the major drainage course in the area, which record a complex history of four to five cut-and-fill cycles within the channel during middle to late Quaternary time. The last 2 to 4 m of incision probably occurred during the last pluvial climatic period, 22 to 18 ka, followed by aggradation to the present time.

  1. Making the transition to automation

    SciTech Connect (OSTI)

    Christenson, D.J. )

    1992-10-01

    By 1995, the Bureau of Reclamation's hydropower plant near Hungry Horse, Montana, will be remotely operated from Grand Coulee dam (about 300 miles away) in Washington State. Automation at Hungry Horse will eliminate the need for four full-time power plant operators. Between now and then, a transition plan that offers employees choices for retraining, transferring, or taking early retirement will smooth the transition in reducing from five operators to one. The transition plan also includes the use of temporary employees to offset risks of reducing staff too soon. When completed in 1953, the Hungry Horse structure was the world's fourth largest and fourth highest concrete dam. The arch-gravity structure has a crest length of 2,115 feet; it is 3,565 feet above sea level. The four turbine-generator units in the powerhouse total 284 MW, and supply approximately 1 billion kilowatt-hours of electricity annually to the federal power grid managed by the Bonneville Power Administration. In 1988, Reclamation began to automate operations at many of its hydro plants, and to establish centralized control points. The control center concept will increase efficiency. It also will coordinate water movements and power supply throughout the West. In the Pacific Northwest, the Grand Coulee and Black Canyon plants are automated control centers. Several Reclamation-owned facilities in the Columbia River Basin, including Hungry Horse, will be connected to these centers via microwave and telephone lines. When automation is complete, constant monitoring by computer will replace hourly manual readings and equipment checks. Computers also are expected to increase water use efficiency by 1 to 2 percent by ensuring operation for maximum turbine efficiency. Unit efficiency curves for various heads will be programmed into the system.

  2. Habitat of oil in the Lindsborg field, Salina basin, north-central Kansas

    SciTech Connect (OSTI)

    Newell, K.D. )

    1991-03-01

    The Lindsborg field was discovered in 1938, and is now 14 mi in length and 1-2 mi in width. It has a projected ultimate recovery of 16 MMBO. Three pay zones (5-20 ft thick) produce in the field. The Simpson pay zone (Middle Ordovician) is a well-rounded, quartzitic sandstone that is interpreted to be a paralic, high-energy shelf deposit. The Viola pay (Middle Ordovician) appears to be a dolomitic, lime grainstone but no cores are available to confirm this. The uppermost pay zone, the Upper Ordovician Maquoketa, is a finely laminated, vuggy, cherry dolomite interpreted to have been deposited as a subtidal lime mudstone in a restricted lagoon. The Simpson and Viola pays are structurally trapped in culminations along the crest of the Lindsborg anticline. Although the Maquoketa pay is structurally trapped with the other pay zones in the southern half of the field, its locus of production in the north half of the fields extends 100 ft vertically down the western flank of the anticline. The trapping mechanism is unclear due to lack of core control and modern logging suites, but it may be subtle updip diagenetic change from vuggy to nonvuggy dolomite. The Simpson and Maquoketa oils are geochemically distinct. Both may reflect efficient local source-to-reservoir migration from originally rich but marginally mature Ordovician and Devonian shales that contact each pay zone. If oil in the Lindsborg field is locally generated, the prospectivity of the relatively unproductive and underexplored Salina basin may be enhanced.

  3. Mapping and Assessment of the United States Ocean Wave Energy Resource

    SciTech Connect (OSTI)

    Paul T. Jacobson; George Hagerman; George Scott

    2011-12-01

    This project estimates the naturally available and technically recoverable U.S. wave energy resources, using a 51-month Wavewatch III hindcast database developed especially for this study by National Oceanographic and Atmospheric Administration’s (NOAA’s) National Centers for Environmental Prediction. For total resource estimation, wave power density in terms of kilowatts per meter is aggregated across a unit diameter circle. This approach is fully consistent with accepted global practice and includes the resource made available by the lateral transfer of wave energy along wave crests, which enables wave diffraction to substantially reestablish wave power densities within a few kilometers of a linear array, even for fixed terminator devices. The total available wave energy resource along the U.S. continental shelf edge, based on accumulating unit circle wave power densities, is estimated to be 2,640 TWh/yr, broken down as follows: 590 TWh/yr for the West Coast, 240 TWh/yr for the East Coast, 80 TWh/yr for the Gulf of Mexico, 1570 TWh/yr for Alaska, 130 TWh/yr for Hawaii, and 30 TWh/yr for Puerto Rico. The total recoverable wave energy resource, as constrained by an array capacity packing density of 15 megawatts per kilometer of coastline, with a 100-fold operating range between threshold and maximum operating conditions in terms of input wave power density available to such arrays, yields a total recoverable resource along the U.S. continental shelf edge of 1,170 TWh/yr, broken down as follows: 250 TWh/yr for the West Coast, 160 TWh/yr for the East Coast, 60 TWh/yr for the Gulf of Mexico, 620 TWh/yr for Alaska, 80 TWh/yr for Hawaii, and 20 TWh/yr for Puerto Rico.

  4. Water Resources Data Ohio: Water year 1994. Volume 1, Ohio River Basin excluding Project Data

    SciTech Connect (OSTI)

    1994-12-31

    The Water Resources Division of the US Geological Survey (USGS) in cooperation with State agencies, obtains a large amount of data each water year (a water year is the 12-month period from October 1 through September 30 and is identified by the calendar year in which it ends) pertaining to the water resources of Ohio. These data, accumulated during many years, constitute a valuable data base for developing an improved understanding of the water resources of the State. To make these data readily available to interested parties outside the USGS, they are published annually in this report series entitled ``Water Resources Data--Ohio.`` This report (in two volumes) includes records on surface water and ground water in the State. Specifically, it contains: (1) Discharge records for streamflow-gaging stations, miscellaneous sites, and crest-stage stations; (2) stage and content records for streams, lakes, and reservoirs; (3) water-quality data for streamflow-gaging stations, wells, synoptic sites, and partial-record sit -aid (4) water-level data for observation wells. Locations of lake-and streamflow-gaging stations, water-quality stations, and observation wells for which data are presented in this volume are shown in figures 8a through 8b. The data in this report represent that part of the National Water Data System collected by the USGS and cooperating State and Federal agencies in Ohio. This series of annual reports for Ohio began with the 1961 water year with a report that contained only data relating to the quantities of surface water. For the 1964 water year, a similar report was introduced that contained only data relating to water quality. Beginning with the 1975 water year, the report was changed to present (in two or three volumes) data on quantities of surface water, quality of surface and ground water, and ground-water levels.

  5. Estuarine Habitats for Juvenile Salmon in the Tidally-Influenced Lower Columbia River and Estuary : Reporting Period September 15, 2008 through May 31, 2009.

    SciTech Connect (OSTI)

    Baptista, António M.

    2009-08-02

    This work focuses on the numerical modeling of Columbia River estuarine circulation and associated modeling-supported analyses conducted as an integral part of a multi-disciplinary and multi-institutional effort led by NOAA's Northwest Fisheries Science Center. The overall effort is aimed at: (1) retrospective analyses to reconstruct historic bathymetric features and assess effects of climate and river flow on the extent and distribution of shallow water, wetland and tidal-floodplain habitats; (2) computer simulations using a 3-dimensional numerical model to evaluate the sensitivity of salmon rearing opportunities to various historical modifications affecting the estuary (including channel changes, flow regulation, and diking of tidal wetlands and floodplains); (3) observational studies of present and historic food web sources supporting selected life histories of juvenile salmon as determined by stable isotope, microchemistry, and parasitology techniques; and (4) experimental studies in Grays River in collaboration with Columbia River Estuary Study Taskforce (CREST) and the Columbia Land Trust (CLT) to assess effects of multiple tidal wetland restoration projects on various life histories of juvenile salmon and to compare responses to observed habitat-use patterns in the mainstem estuary. From the above observations, experiments, and additional modeling simulations, the effort will also (5) examine effects of alternative flow-management and habitat-restoration scenarios on habitat opportunity and the estuary's productive capacity for juvenile salmon. The underlying modeling system is part of the SATURN1coastal-margin observatory [1]. SATURN relies on 3D numerical models [2, 3] to systematically simulate and understand baroclinic circulation in the Columbia River estuary-plume-shelf system [4-7] (Fig. 1). Multi-year simulation databases of circulation are produced as an integral part of SATURN, and have multiple applications in understanding estuary/plume variability, the role of the estuary and plume on salmon survival, and functional changes in the estuary-plume system in response to climate and human activities.

  6. A low-cost float method of harnessing wave energy

    SciTech Connect (OSTI)

    George, M.P.

    1983-12-01

    The author proposes in this paper a low-cost and simple method of harnessing wave energy that should enable coastal regions to be self-sufficient in electric power. The method is eminently applicable to India and such developing countries, being simple and involving a small capital investment. The method was evolved after study of the Indian West Coast fronting the Arabian Sea, and can harness about 50% of the wave energy. A log of wood about 5 metres long and 50 cm. in diameter, having a specific gravity of 0.8 to 0.9, is made to float parallel to the beach and about 50 metres away from it. Its movement is restricted to the vertical plane by means of poles. Two roller chains are attached to the ends of the log which pass over two sprocket free-wheels. When the log is lifted with the crest of the wave, the roller chain moves over the free-wheel. When the trough of the wave reaches the log, its weight is applied to the sprocket wheels through the roller chains. Each sprocket wheel rotates and the rotation is multiplied with a gear wheel. The torque from the high speed spindle of the gear is applied to a small alternating current generator. The AC output from the generator is rectified and used either for charging a battery bank, or connected to the lighting system, or supplied to electrolytic tank for producing hydrogen and other chemicals at the site. A chain of such systems along the coast can supply enough power to light the fishermen's hamlets stretching along the coast.

  7. Source of the tsunami associated with the Kalapana (Hawaii) earthquake of November 1975

    SciTech Connect (OSTI)

    Cox, D.C.

    1980-12-01

    The travel times of the tsunami generated on 29 November 1975 off the Kau-Puna coast of Hawaii to the tide gages at Hilo, Kahului, Honolulu, and Nawiliwili have been calculated from the arrival times indicated on the tide-gage records, applying gage-time corrections, assuming that the tsunami was generated at the time of the earthquake it accompanied. Travel times have also been calculated similarly to other places on the coast of Hawaii where arrival times of the tsunami were reported, and to Johnston Atoll. Inverse tsunami refraction diagrams have been constructed by graphical means for the path of the tsunami between the vicinity of its source and the places of known arrival times. The isochrones of the refraction diagrams corresponding to the respective calculated travel times for the tsunami front have been used to define the boundary of the area of upward sea-floor displacement from which the tsunami propagated. This area is about 15 or 20 miles long (parallel to the southeast coast of Hawaii) and on the order of 14 or 15 miles wide, considerably smaller than the area earlier considered the tsunami source. Coastal subsidence measured soon after the earthquake indicates that the area of initial upward displacement was separated from the coast by a narrow belt of downward displacement. Comparisons between the crest arrival times and the travel times indicated by the inverse refraction diagrams indicate a lag of about four minutes between the time of the earthquake and the accomplishment of the maximum upward displacement. Accuracies of estimation are insufficient to determine whether the maximum upward displacement occurred within the area of initial displacement or seaward of it within a distance of about 15 miles. Displacement resulting from a mega-landslide cannot be distinguished from strictly tectonic displacement by the comparison of arrival times and travel times. 14 references, 19 figures, 8 tables.

  8. Deep structure of the Texas Gulf passive margin and its Ouachita-Precambrian basement: Results of the COCORP San Marcos arch survey

    SciTech Connect (OSTI)

    Culotta, R.; Latham, T.; Oliver, J.; Brown, L.; Kaufman, S. (Cornell Univ., Ithaca, NY (United States)); Sydow, M. (Pennzoil, Houston, TX (United States))

    1992-02-01

    This COCORP deep seismic survey provides a comprehensive image of the southeast-Texas part of the Gulf passive margin and its accreted Ouachita arc foundation. Beneath the updip limit of the Cenozoic sediment wedge, a prominent antiformal structure is imaged within the interior zone of the buried late Paleozoic Ouachita orogen. The structure appears to involve Precambrian Grenville basement. The crest of the antiform is coincident with the Cretaceous-Tertiary Luling-Mexia-Talco fault zone. Some of these faults dip to the northwest, counter to the general regional pattern of down-to-the-basin faulting, and appear to sole into the top of the antiform, suggesting that the Ouachita structure has been reactivated as a hingeline to the subsiding passive margin. The antiform may be tied via this fault system and the Ouachita gravity gradient to the similar Devils River, Waco, and Benton uplifts, interpreted as Precambrian basement-cored massifs. Above the Paleozoic sequence, a possible rift-related graben is imaged near the updip limit of Jurassic salt. Paleoshelf edges of the major Tertiary depositional sequences are marked by expanded sections disrupted by growth faults and shale diapirs. Within the Wilcox Formation, the transect crosses the mouth of the 900-m-deep Yoakum Canyon, a principal pathway of sediment delivery from the Laramide belt to the Gulf. Beneath the Wilcox, the Comanchean (Lower Cretaceous) shelf edge, capped by the Stuart City reef, is imaged as a pronounced topographic break onlapped by several moundy sediment packages. Because this segment of the line parallels strike, the topographic break may be interpreted as a 2,000-m-deep embayment in the Cretaceous shelf-edge, and possibly a major submarine canyon older and deeper than the Yoakum Canyon.

  9. In-Situ Sampling and Characterization of Naturally Occurring Marine Methane Hydrate Using the D/V JOIDES Resolution

    SciTech Connect (OSTI)

    Rack, Frank; Storms, Michael; Schroeder, Derryl; Dugan, Brandon; Schultheiss, Peter

    2002-12-31

    The primary accomplishments of the JOI Cooperative Agreement with DOE/NETL in this quarter were (1) the preliminary postcruise evaluation of the tools and measurement systems that were used during ODP Leg 204 to study hydrate deposits on Hydrate Ridge, offshore Oregon from July through September 2002; and (2) the preliminary study of the hydrate-bearing core samples preserved in pressure vessels and in liquid nitrogen cryofreezers, which are now stored at the ODP Gulf Coast Repository in College Station, TX. During ODP Leg 204, several newly modified downhole tools were deployed to better characterize the subsurface lithologies and environments hosting microbial populations and gas hydrates. A preliminary review of the use of these tools is provided herein. The DVTP, DVTP-P, APC-methane, and APC-Temperature tools (ODP memory tools) were used extensively and successfully during ODP Leg 204 aboard the D/V JOIDES Resolution. These systems provided a strong operational capability for characterizing the in situ properties of methane hydrates in subsurface environments on Hydrate Ridge during ODP Leg 204. Pressure was also measured during a trial run of the Fugro piezoprobe, which operates on similar principles as the DVTP-P. The final report describing the deployments of the Fugro Piezoprobe is provided in Appendix A of this report. A preliminary analysis and comparison between the piezoprobe and DVTP-P tools is provided in Appendix B of this report. Finally, a series of additional holes were cored at the crest of Hydrate Ridge (Site 1249) specifically geared toward the rapid recovery and preservation of hydrate samples as part of a hydrate geriatric study partially funded by the Department of Energy (DOE). In addition, the preliminary results from gamma density non-invasive imaging of the cores preserved in pressure vessels are provided in Appendix C of this report. An initial visual inspection of the samples stored in liquid nitrogen is provided in Appendix D of this report.

  10. Center for Renewable Energy Science and Technology

    SciTech Connect (OSTI)

    Billo, Richard; Rajeshwar, Krishnan

    2013-01-15

    The CREST research team conducted research that optimized catalysts used for the conversion of southwestern lignite into synthetic crude oil that can be shipped to nearby Texas refineries and power plants for development of transportation fuels and power generation. Research was also undertaken to convert any potential by-products of this process such as CO2 to useful chemicals and gases which could be recycled and used as feedstock to the synthetic fuel process. These CO2 conversion processes used light energy to drive the endogonic reduction reactions involved. The project was divided into two tasks: A CO2 Conversion Task, and a Catalyst Optimization Task. The CO2 Conversion task was aimed at developing molecular and solid state catalysts for the thermal, electro- and photocatalytic reduction of CO2 to reduced products such as simple feedstock compounds (e.g. CO, H2, CHOOH, CH2O, CH3OH and CH4). For example, the research team recycled CO that was developed from this Task and used it as a feedstock for the production of synthetic crude in the Catalyst Optimization Task. In the Catalyst Optimization Task, the research team conducted bench-scale experiments with the goal of reducing overall catalyst cost in support of several synthetic crude processes that had earlier been developed. This was accomplished by increasing the catalyst reactivity thus reducing required concentrations or by using less expensive metals. In this task the team performed parametric experiments in small scale batch reactors in an effort to improve catalyst reactivity and to lower cost. They also investigated catalyst robustness by testing lignite feedstocks that vary in moisture, h, and volatile content.

  11. Monitoring of vibrating machinery using artificial neural networks

    SciTech Connect (OSTI)

    Alguindigue, I.E.; Loskiewicz-Buczak, A. . Dept. of Nuclear Engineering); Uhrig, R.E. . Dept. of Nuclear Engineering Oak Ridge National Lab., TN )

    1991-01-01

    The primary source of vibration in complex engineering systems is rotating machinery. Vibration signatures collected from these components render valuable information about the operational state of the system and may be used to perform diagnostics. For example, the low frequency domain contains information about unbalance, misalignment, instability in journal bearing and mechanical looseness; analysis of the medium frequency range can render information about faults in meshing gear teeth; while the high frequency domain will contain information about incipient faults in rolling-element bearings. Trend analysis may be performed by comparing the vibration spectrum for each machine with a reference spectrum and evaluating the vibration magnitude changes at different frequencies. This form of analysis for diagnostics is often performed by maintenance personnel monitoring and recording transducer signals and analyzing the signals to identify the operating condition of the machine. With the advent of portable fast Fourier transform (FFT) analyzers and laptop'' computers, it is possible to collect and analyze vibration data an site and detect incipient failures several weeks or months before repair is necessary. It is often possible to estimate the remaining life of certain systems once a fault has been detected. RMS velocity, acceleration, displacements, peak value, and crest factor readings can be collected from vibration sensors. To exploit all the information embedded in these signals, a robust and advanced analysis technique is required. Our goal is to design a diagnostic system using neural network technology, a system such as this would automate the interpretation of vibration data coming from plant-wide machinery and permit efficient on-line monitoring of these components.

  12. Monitoring of vibrating machinery using artificial neural networks

    SciTech Connect (OSTI)

    Alguindigue, I.E.; Loskiewicz-Buczak, A.; Uhrig, R.E. |

    1991-12-31

    The primary source of vibration in complex engineering systems is rotating machinery. Vibration signatures collected from these components render valuable information about the operational state of the system and may be used to perform diagnostics. For example, the low frequency domain contains information about unbalance, misalignment, instability in journal bearing and mechanical looseness; analysis of the medium frequency range can render information about faults in meshing gear teeth; while the high frequency domain will contain information about incipient faults in rolling-element bearings. Trend analysis may be performed by comparing the vibration spectrum for each machine with a reference spectrum and evaluating the vibration magnitude changes at different frequencies. This form of analysis for diagnostics is often performed by maintenance personnel monitoring and recording transducer signals and analyzing the signals to identify the operating condition of the machine. With the advent of portable fast Fourier transform (FFT) analyzers and ``laptop`` computers, it is possible to collect and analyze vibration data an site and detect incipient failures several weeks or months before repair is necessary. It is often possible to estimate the remaining life of certain systems once a fault has been detected. RMS velocity, acceleration, displacements, peak value, and crest factor readings can be collected from vibration sensors. To exploit all the information embedded in these signals, a robust and advanced analysis technique is required. Our goal is to design a diagnostic system using neural network technology, a system such as this would automate the interpretation of vibration data coming from plant-wide machinery and permit efficient on-line monitoring of these components.

  13. Wadter Resources Data Ohio: Water year 1994. Volume 2, St. Lawrence River Basin and Statewide Project Data

    SciTech Connect (OSTI)

    1994-12-31

    The Water Resources Division of the US Geological Survey (USGS), in cooperation with State agencies, obtains a large amount of data each water year (a water year is the 12-month period from October 1 through September 30 and is identified by the calendar year in which it ends) pertaining to the water resources of Ohio. These data, accumulated during many years, constitute a valuable data base for developing an improved understanding of the water resources of the State. To make these data readily available to interested parties outside the USGS, they are published annually in this report series entitled ``Water Resources Data--Ohio.`` This report (in two volumes) includes records on surface water and ground water in the State. Specifically, it contains: (1) Discharge records for streamflow-gaging stations, miscellaneous sites, and crest-stage stations; (2) stage and content records for streams, lakes, and reservoirs; (3) water-quality data for streamflow-gaging stations, wells, synaptic sites, and partial-record sites; and (4) water-level data for observation wells. Locations of lake- and streamflow-gaging stations, water-quality stations, and observation wells for which data are presented in this volume are shown in figures ga through 8b. The data in this report represent that part of the National Water Data System collected by the USGS and cooperating State and Federal agencies in Ohio. This series of annual reports for Ohio began with the 1961 water year with a report that contained only data relating to the quantities of surface water. For the 1964 water year, a similar report was introduced that contained only data relating to water quality. Beginning with the 1975 water year, the report was changed to present (in two to three volumes) data on quantities of surface water, quality of surface and ground water, and ground-water levels.

  14. Lunette dunes and yardangs of the Carson desert, Nevada: Implications for Holocene eolian activity in the northern Great Basin

    SciTech Connect (OSTI)

    Lancaster, N. (Desert Research Inst., Reno, NV (United States). Quaternary Sciences Center)

    1993-04-01

    A large complex of lunette dunes consisting of two and locally three ridges up to 40 m high occurs on the northeast margin of the Carson Sink playa. The outer, or north-easterly, ridge consists of a core of fine and coarse and partially cemented by saline clay and silt (Unit 1) with avalanche face cross-beds dipping to the north-east at 25--30[degree], as well as planar sets of wind ripple laminae with dips to both the northeast and west at 2--5[degree]. Overlying this unit on the crest and lee side of the ridge is 2--5 m of mobile poorly sorted, very fine and coarse sand that forms an active avalanche face up to 25 m high on the east side of the ridge (Unit 3). At a number of localities, the indurated core of the larger dune ridge is carved into yardanges, or streamlined small hills with a lemniscate shape that result from wind erosion of homogeneous sediments. The dunes overlie, with an erosional contact, Late Pleistocene saline lacustrine clays of paleolake Lahontan. They represent at least two episodes of mid- to late-Holocene deflation of sediments from the Carson Sink playa. Erosion of the dunes and yardang formation suggests: (1) termination of sediment supply from the playa as a result of reduced sediment supply and runoff from the Carson River, (2) cementation of the dunes by clay and silt accumulation, and (3) modern eolian erosion through flow acceleration on dune windward slopes.

  15. Research, Monitoring, and Evaluation of Avian Predation on Salmonid Smolts in the Lower and Mid-Columbia River, 2008 Draft Season Summary.

    SciTech Connect (OSTI)

    Roby, Daniel D.; Collis, Ken; Lyons, Donald E.

    2009-07-08

    This report describes investigations into predation by piscivorous colonial waterbirds on juvenile salmonids (Oncorhynchus spp.) from throughout the Columbia River basin during 2008. East Sand Island in the Columbia River estuary again supported the largest known breeding colony of Caspian terns (Hydroprogne caspia) in the world (approximately 10,700 breeding pairs) and the largest breeding colony of double-crested cormorants (Phalacrocorax auritus) in western North America (approximately 10,950 breeding pairs). The Caspian tern colony increased from 2007, but not significantly so, while the double-crested cormorant colony experienced a significant decline (20%) from 2007. Average cormorant nesting success in 2008, however, was down only slightly from 2007, suggesting that food supply during the 2008 nesting season was not the principal cause of the decline in cormorant colony size. Total consumption of juvenile salmonids by East Sand Island Caspian terns in 2008 was approximately 6.7 million smolts (95% c.i. = 5.8-7.5 million). Caspian terns nesting on East Sand Island continued to rely primarily on marine forage fishes as a food supply. Based on smolt PIT tag recoveries on the East Sand Island Caspian tern colony, predation rates were highest on steelhead in 2008; minimum predation rates on steelhead smolts detected passing Bonneville Dam averaged 8.3% for wild smolts and 10.7% for hatchery-raised smolts. In 2007, total smolt consumption by East Sand Island double-crested cormorants was about 9.2 million juvenile salmonids (95% c.i. = 4.4-14.0 million), similar to or greater than that of East Sand Island Caspian terns during that year (5.5 million juvenile salmonids; 95% c.i. = 4.8-6.2 million). The numbers of smolt PIT tags recovered on the cormorant colony in 2008 were roughly proportional to the relative availability of PIT-tagged salmonids released in the Basin, suggesting that cormorant predation on salmonid smolts in the estuary was less selective than tern predation. Cormorant predation rates in excess of 30%, however, were observed for some groups of hatchery-reared fall Chinook salmon released downstream of Bonneville Dam. Implementation of the federal plan 'Caspian Tern Management to Reduce Predation of Juvenile Salmonids in the Columbia River Estuary' was initiated in 2008 with construction by the Corps of Engineers of two alternative colony sites for Caspian terns in interior Oregon: a 1-acre island on Crump Lake in the Warner Valley and a 1-acre island on Fern Ridge Reservoir near Eugene. We deployed Caspian tern social attraction (decoys and sound systems) on these two islands and monitored for Caspian tern nesting. Caspian terns quickly colonized the Crump Lake tern island; about 430 pairs nested there, including 5 terns that had been banded at the East Sand Island colony in the Columbia River estuary, over 500 km to the northwest. No Caspian terns nested at the Fern Ridge tern island in 2008, but up to 9 Caspian terns were recorded roosting on the island after the nesting season. There were two breeding colonies of Caspian terns on the mid-Columbia River in 2008: (1) about 388 pairs nested at the historical colony on Crescent Island in the McNary Pool and (2) about 100 pairs nested at a relatively new colony site on Rock Island in the John Day Pool. Nesting success at the Crescent Island tern colony was only 0.28 young fledged per breeding pair, the lowest nesting success recorded at that colony since monitoring began in 2000, while only three fledglings were raised at the Rock Island tern colony. The diet of Crescent Island Caspian terns consisted of 68% salmonid smolts; total smolt consumption was estimated at 330,000. Since 2004, total smolt consumption by Crescent Island terns has declined by 34%, due mostly to a decline in colony size, while steelhead consumption has increased 10% during this same period. In 2008, approximately 64,000 steelhead smolts were consumed by Caspian terns nesting at Crescent Island. Based on smolt PIT tag recoveries on the Crescent Island Caspian tern colony, the average

  16. Remedial Investigation Report on Chestnut Ridge Operable Unit 2 (Filled Coal Ash Pond/Upper McCoy Branch) at the Oak Ridge Y-12 Plant, Oak Ridge, Tennessee. Volume 1. Main Text

    SciTech Connect (OSTI)

    Not Available

    1994-08-01

    This document is a report on the remedial investigation (RI) of Chestnut Ridge Operable Unit (OU) 2 at the Oak Ridge Y-12 Plant. Chestnut Ridge OU 2 consists of Upper McCoy Branch (UMB), the Filled Coal Ash Pond (FCAP), and the area surrounding the Sluice Channel formerly associated with coal ash disposal in the FCAP. Chestnut Ridge OU 2 is located within the U.S. Department of Energy`s (DOE`s) Oak Ridge Reservation in Anderson County, Tennessee, approximately 24 miles west of Knoxville. The pond is an 8.5-acre area on the southern slope of Chestnut Ridge, 0.5 mile south of the main Y-12 Plant and geographically separated from the Y-12 Plant by Chestnut Ridge. The elevation of the FCAP is {approximately} 950 ft above mean sea level (msl), and it is relatively flat and largely vegetated. Two small ponds are usually present at the northeast and northwest comers of the FCAP. The Sluice Channel Area extends {approximately}1000 ft from the northern margin of the FCAP to the crest of Chestnut Ridge, which has an elevation of {approximately}1100 ft above msl. The Sluice Channel Area is largely vegetated also. McCoy Branch runs from the top of Chestnut Ridge across the FCAP into Rogers Quarry and out of the quarry where it runs a short distance into Milton Hill Lake at McCoy Embayment, termed UMB. The portion south of Rogers Quarry, within Chestnut Ridge OU 4, is termed Lower McCoy Branch. The DOE Oak Ridge Y-12 Plant disposed of coal ash from its steam plant operations as a slurry that was discharged into an ash retention impoundment; this impoundment is the FCAP. The FCAP was built in 1955 to serve as a settling basin after coal ash slurried over Chestnut Ridge from the Y-12 Plant. The FCAP was constructed by building an earthen dam across the northern tributary of McCoy Branch. The dam was designed to hold 20 years of Y-12 steam plant ash. By July 1967, ash had filled up the impoundment storage behind the dam to within 4 ft of the top.

  17. Testing of GFL Geosiphon

    SciTech Connect (OSTI)

    Steimke, J.L.

    2001-07-10

    A full-scale, transparent replica of a GeoSiphon was constructed in the TFL to test a new concept, using a solar powered vacuum pump to remove accumulated gases from the air chamber. It did not have a treatment cell containing iron filings as do the actual TNX GeoSiphons in the field, but it was accurate in all other respects. The gas generation that is observed in an actual GeoSiphon was simulated by air injection at the inlet of the TFL GeoSiphon. After facility shakedown, three stages of testing were conducted: verification testing, parametric testing and long term testing. In verification testing, the TFL GeoSiphon was used to reproduce a particular test at TNX in which the water flowrate decreased gradually as the result of air accumulation at the crest of a siphon without an air chamber. For this test the vacuum pump was not used and the air chamber was initially filled with air rather than water. Agreement between data from the TNX GeoSiphon and the TFL GeoSiphon was good, which gave confidence that the TFL GeoSiphon was a good hydraulic representation of the TNX GeoSiphon. For the remaining tests, the solar powered vacuum pump and air chamber were used. In parametric testing, steady state runs were made for water flowrates ranging from 1 gpm to 19 gpm, air injection rates ranging from 0 to 77 standard cc/min and outfall line angles ranging from vertical to 60 degrees from vertical. In all cases, the air chamber and vacuum pump removed nearly all of the air and the GeoSiphon operated without problems. In long term testing, the GeoSiphon was allowed to run continuously for 21 days at one set of conditions. During this time the solar cell kept the storage battery fully charged at all times and the control circuit for the vacuum pump operated reliably. The solar panel was observed to have a large excess capacity when used with the vacuum pump. With two changes, the concept of using a solar powered vacuum pump attached to an air chamber should be ready for long term use in the field. Those changes are to insulate the air chamber of the GeoSiphon so it will not freeze in the winter and to make the tank from steel rather than transparent plastic.

  18. Respiratory motion effects on whole breast helical tomotherapy

    SciTech Connect (OSTI)

    Moeckly, Steven R.; Lamba, Michael; Elson, Howard R.

    2008-04-15

    The effects of intrafraction respiratory motion on nonhelical intensity-modulated radiotherapy have been well addressed in the literature, both theoretically and experimentally. However, the consequences of respiratory motion on helical tomotherapy, for patient-specific treatment plans, are less well known. Parameters specific to this treatment modality such as pitch, gantry speed, and degree of modulation may play prominent roles in radiation delivery with respect to intrafraction respiratory motion. This phantom-based study specifically addressed the effects of intrafraction respiratory motion on whole breast helical tomotherapy. A device capable of driving an acrylic phantom with reproducible, one-dimensional, anterior-posterior motion resembling a sinusoid of 4.6 mm crest-trough amplitude was developed. A plan to irradiate the corner of an acrylic phantom using parameters typical of a whole breast helical tomotherapy technique was developed using the TomoTherapy Hi-Art-II System registered . The treatment was delivered to the phantom, with Kodak EDR2 film in the axial plane, for each of the following conditions: (i) phantom at 270 deg. initial sinusoidal phase and 12 cycles/min motion, (ii) phantom at 270 deg. initial sinusoidal phase and 18 cycles/min motion, and (iii)-(v) phantom at 18 cycles/min motion with 0 deg., 90 deg., and 180 deg. initial sinusoidal phases. A measure of technique reproducibility was also performed for several irradiations with the phantom static at 270 deg. initial sinusoidal phase. Films were processed using a Kodak MIN-R mammography film processor, scanned with a Vidar NXR-16 Dosimetry Pro scanner and analyzed with RIT113 v.4.2 software. Films were compared to a reference film irradiated under the conditions of no motion and 270 deg. sinusoidal phase. For all comparisons, 5% dose difference threshold, 3% dose difference and 2 mm distance-to-agreement gamma analysis, and isodose plots were generated. The results of this study show a small area of greater than 5% decrease in dose at the phantom's anterior surface and a 1.5-3 mm posterior-medial shift of isodose lines in the penumbral and apex regions of the PTV. Frequency and phase effects are apparent within the PTV where dose varies with high spatial frequency. As the reference film was produced by delivering the treatment plan to the phantom static and in the position corresponding to maximum expiration, results are representative of extreme deviations between planned and delivered dose with respect to sinusoidal motion of clinically relevant magnitudes and frequencies.

  19. Cycloidal Wave Energy Converter

    SciTech Connect (OSTI)

    Stefan G. Siegel, Ph.D.

    2012-11-30

    This program allowed further advancing the development of a novel type of wave energy converter, a Cycloidal Wave Energy Converter or CycWEC. A CycWEC consists of one or more hydrofoils rotating around a central shaft, and operates fully submerged beneath the water surface. It operates under feedback control sensing the incoming waves, and converts wave power to shaft power directly without any intermediate power take off system. Previous research consisting of numerical simulations and two dimensional small 1:300 scale wave flume experiments had indicated wave cancellation efficiencies beyond 95%. The present work was centered on construction and testing of a 1:10 scale model and conducting two testing campaigns in a three dimensional wave basin. These experiments allowed for the first time for direct measurement of electrical power generated as well as the interaction of the CycWEC in a three dimensional environment. The Atargis team successfully conducted two testing campaigns at the Texas A&M Offshore Technology Research Center and was able to demonstrate electricity generation. In addition, three dimensional wave diffraction results show the ability to achieve wave focusing, thus increasing the amount of wave power that can be extracted beyond what was expected from earlier two dimensional investigations. Numerical results showed wave cancellation efficiencies for irregular waves to be on par with results for regular waves over a wide range of wave lengths. Using the results from previous simulations and experiments a full scale prototype was designed and its performance in a North Atlantic wave climate of average 30kW/m of wave crest was estimated. A full scale WEC with a blade span of 150m will deliver a design power of 5MW at an estimated levelized cost of energy (LCOE) in the range of 10-17 US cents per kWh. Based on the new results achieved in the 1:10 scale experiments these estimates appear conservative and the likely performance at full scale will exceed this initial performance estimates. In advancing the Technology Readiness Level (TRL) of this type of wave energy converter from 3 to 4, we find the CycWEC to exceed our initial estimates in terms of hydrodynamic performance. Once fully developed and optimized, it has the potential to not just outperform all other WEC technologies, but to also deliver power at a lower LCOE than competing conventional renewables like wind and solar. Given the large wave power resource both domestically and internationally, this technology has the potential to lead to a large improvement in our ability to produce clean electricity at affordable cost.

  20. Ecological Monitoring and Compliance Program 2014 Report

    SciTech Connect (OSTI)

    Hall, Derek B.; Anderson, David C.; Greger, Paul D.; Ostler, W. Kent

    2015-05-12

    The Ecological Monitoring and Compliance Program (EMAC), funded through the U.S. Department of Energy, National Nuclear Security Administration Nevada Field Office (NNSA/NFO, formerly Nevada Site Office), monitors the ecosystem of the Nevada National Security Site (NNSS) and ensures compliance with laws and regulations pertaining to NNSS biota. This report summarizes the program’s activities conducted by National Security Technologies, LLC (NSTec), during calendar year 2014. Program activities included (a) biological surveys at proposed activity sites, (b) desert tortoise compliance, (c) ecosystem monitoring, (d) sensitive plant species monitoring, (e) sensitive and protected/regulated animal monitoring, and (f) habitat restoration monitoring. During 2014, all applicable laws, regulations, and permit requirements were met, enabling EMAC to achieve its intended goals and objectives. Sensitive and protected/regulated species of the NNSS include 42 plants, 1 mollusk, 2 reptiles, 236 birds, and 27 mammals. These species are protected, regulated, or considered sensitive according to state or federal regulations and natural resource agencies and organizations. The desert tortoise (Gopherus agassizii) and the western yellow-billed cuckoo (Coccyzus americanus) are the only species on the NNSS protected under the Endangered Species Act, both listed as threatened. However, only one record of the cuckoo has ever been documented on the NNSS, and there is no good habitat for this species on the NNSS. It is considered a rare migrant. Biological surveys for the presence of sensitive and protected/regulated species and important biological resources on which they depend were conducted for 18 projects. A total of 199.18 hectares (ha) was surveyed for these projects. Sensitive and protected/regulated species and important biological resources found during these surveys included a predator burrow, one sidewinder rattlesnake (Crotalus cerastes), two mating speckled rattlesnakes (Crotalus mitchellii), and several species of cacti. NSTec provided to project managers a written summary report of all survey findings and mitigation recommendations, where applicable. Of the 18 projects on the NNSS, 15 occurred within the range of the threatened desert tortoise. Approximately 2.19 ha of desert tortoise habitat were disturbed. No desert tortoises were accidentally injured or killed by project activities, and no tortoises were killed by vehicles. On 13 occasions, tortoises were moved off the road and out of harm’s way. Six tortoises were found and transmitters attached as part of an approved study to assess impacts of vehicles on tortoises on the NNSS. NSTec biologists continued to monitor 37 juvenile desert tortoises as part of a collaborative effort to study survival and temperament of translocated animals. From 1978 until 2013, there has been an average of 11.2 wildland fires per year on the NNSS with an average of about 83.7 ha burned per fire. There were no wildland fires documented on the NNSS during 2014. Results from the wildland fuel surveys showed a very low risk of wildland fire due to reduced fuel loads caused by limited natural precipitation. Limited reptile trapping and reptile roadkill surveys were conducted to better define species distribution on the NNSS. Sixteen reptiles were trapped representing five species. Combined with data from 2013, 183 road kills were detected, representing 11 snake and 8 lizard species. Selected natural water sources were monitored to assess trends in physical and biological parameters, and one new water source was found. Wildlife use at five water troughs and four radiologically contaminated sumps was documented using motion-activated cameras. As part of the statewide effort to disseminate information throughout the botanical community, NSTec prepared a shape file with site-specific data for all 17 sensitive plants on the NNSS and provided it to the Nevada Natural Heritage Program for inclusion in their statewide database. No field surveys were conducted this year for sensitive plants on the NNSS due to poor growing conditions. Surveys of sensitive and protected/regulated animals during 2014 focused on winter raptors, bats, wild horses (Equus caballus), mule deer (Odocoileus hemionus), desert bighorn sheep (Ovis Canadensis nelsoni), and mountain lions (Puma concolor). Two permanent, long-term winter raptor survey routes were established and sampled in January and February. A total of 27 raptors representing 4 species were observed. The wild horse population increased from 30 to 41, with several yearlings recruiting into the population, possibly due to the death of a mountain lion known to prey on horse foals. Mule deer abundance and density measured with standardized deer surveys was similar to 2013 and appears to be stable. Desert bighorn sheep, including rams, ewes, and lambs, were detected using motion-activated cameras at four water sources. There are plans to conduct helicopter surveys to census the population during September 2015 and then capture and radio-collar up to 20 sheep during November 2015. Over 150 sheep scat samples have been collected for genetic analysis to try to determine how sheep on the NNSS are related to surrounding sheep populations. Information is presented about bird mortalities, Migratory Bird Treaty Act compliance, and a summary of nuisance animals and their control on the NNSS. A total of 93 mountain lion images (i.e., photographs or video clips) were taken during 220,379 camera hours at 16 of 32 sites sampled and another 11,946 images of at least 29 species other than mountain lions were taken as well. A mountain lion telemetry study continued in 2014. NNSS7 was tracked from January 1 to November 15 using a global positioning system satellite transmitter. He consumed 21 mule deer, 17 desert bighorn sheep, 1 juvenile bobcat, and 3 coyotes. Mule deer were primarily taken in the summer and fall. No new mountain lions were captured. A minimum of four adult lions (two males, two females), a subadult male, and three kittens were known to inhabit the NNSS during 2014. Two previously revegetated sites on the NNSS and one on the Tonopah Test Range (TTR) were monitored in 2014. The cover cap on the U-3ax/bl disposal unit, revegetated in 2000, and the 92-Acre Site at the Area 5 Radioactive Waste Management Complex, revegetated in 2011, were the restoration sites monitored on the NNSS. The Corrective Action Unit 407 Rollercoaster RADSAFE site, revegetated in 2000, was the restoration site monitored on the TTR. Plant cover and density were recorded at all sites except U-3ax/bl (qualitative monitoring), and reclamation success standards were evaluated, where applicable.

  1. Increasing the efficiency of organic solar cells by photonic and electrostatic-field enhancements

    SciTech Connect (OSTI)

    Nalwa, Kanwar

    2012-11-03

    Organic photovoltaic (OPV) technology is an attractive solar-electric conversion paradigm due to the promise of low cost roll-to-roll production and amenability to flexible substrates. Power conversion efficiency (PCE) exceeding 7% has recently been achieved. OPV cells suffer from low charge carrier mobilities of polymers, leading to recombination losses, higher series resistances and lower fill-factors. Thus, it is imperative to develop fabrication methodologies that can enable efficient optical absorption in films thinner than optical absorption length. Active layers conformally deposited on light-trapping, microscale textured, grating-type surfaces is one possible approach to achieve this objective. In this study, 40% theoretical increase in photonic absorption over flat OPVs is shown for devices with textured geometry by the simulation results. For verifying this theoretical result and improving the efficiency of OPVs by light trapping, OPVs were fabricated on grating-type textured substrates possessing t pitch and -coat PV active-layer on these textured substrates led to over filling of the valleys and shunts at the crest, which severely affected the performance of the resultant PV devices. Thus, it is established that although the optical design is important for OPV performance but the potential of light trapping can only be effectively tapped if the textures are amenable for realizing a conformal active layer. It is discovered that if the height of the underlying topographical features is reduced to sub-micron regime (e.g. 300 nm) and the pitch is increased to more than a micron (e.g. 2 μm), the textured surface becomes amenable to coating a conformal PV active-layer. The resultant PV cells showed 100% increase in average light absorption near the band edge due to trapping of higher wavelength photons, and 20% improvement in power conversion efficiency as compared with the flat PV cell. Another factor that severely limits the performance of OPVs is recombination of charge carriers. Thus it becomes imperative to understand the effect of processing conditions such as spin coating speed and drying rate on defect density and hence induced carrier recombination mechanism. In this study, It is shown that slow growth (longer drying time) of the active-layer leads to reduction of sub-bandgap traps by an order of magnitude as compared to fast grown active-layer. By coupling the experimental results with simulations, it is demonstrated that at one sun condition, slow grown device has bimolecular recombination as the major loss mechanism while in the fast grown device with high trap density, the trap assisted recombination dominates. It has been estimated that non-radiative recombination accounts nearly 50% of efficiency loss in modern OPVs. Generally, an external bias (electric field) is required to collect all the photogenerated charges and thus prevent their recombination. The motivation is to induce additional electric field in otherwise low mobility conjugated polymer based active layer by incorporating ferroelectric dipoles. This is expected to facilitate singlet exciton dissociation in polymer matrix and impede charge transfer exciton (CTE) recombination at polymer:fullerene interface. For the first time, it is shown that the addition of ferroelectric dipoles to modern bulk heterojunction (BHJ) can significantly improve exciton dissociation, resulting in a ~50% enhancement of overall solar cell efficiency. The devices also exhibit the unique ferroelectric-photovoltaic effect with polarization-controlled power conversion efficiency.

  2. INTEGRATED GEOLOGIC-ENGINEERING MODEL FOR REEF AND CARBONATE SHOAL RESERVOIRS ASSOCIATED WITH PALEOHIGHS: UPPER JURASSIC SMACKOVER FORMATION, NORTHEASTERN GULF OF MEXICO

    SciTech Connect (OSTI)

    Ernest A. Mancini

    2004-02-25

    The University of Alabama, in cooperation with Texas A&M University, McGill University, Longleaf Energy Group, Strago Petroleum Corporation, and Paramount Petroleum Company, has undertaken an integrated, interdisciplinary geoscientific and engineering research project. The project is designed to characterize and model reservoir architecture, pore systems and rock-fluid interactions at the pore to field scale in Upper Jurassic Smackover reef and carbonate shoal reservoirs associated with varying degrees of relief on pre-Mesozoic basement paleohighs in the northeastern Gulf of Mexico. The project effort includes the prediction of fluid flow in carbonate reservoirs through reservoir simulation modeling which utilizes geologic reservoir characterization and modeling and the prediction of carbonate reservoir architecture, heterogeneity and quality through seismic imaging. The primary goal of the project is to increase the profitability, producibility and efficiency of recovery of oil from existing and undiscovered Upper Jurassic fields characterized by reef and carbonate shoals associated with pre-Mesozoic basement paleohighs. Geoscientific reservoir property, geophysical seismic attribute, petrophysical property, and engineering property characterization has shown that reef (thrombolite) and shoal reservoir lithofacies developed on the flanks of high-relief crystalline basement paleohighs (Vocation Field example) and on the crest and flanks of low-relief crystalline basement paleohighs (Appleton Field example). The reef thrombolite lithofacies have higher reservoir quality than the shoal lithofacies due to overall higher permeabilities and greater interconnectivity. Thrombolite dolostone flow units, which are dominated by dolomite intercrystalline and vuggy pores, are characterized by a pore system comprised of a higher percentage of large-sized pores and larger pore throats. Rock-fluid interactions (diagenesis) studies have shown that although the primary control on reservoir architecture and geographic distribution of Smackover reservoirs is the fabric and texture of the depositional lithofacies, diagenesis (chiefly dolomitization) is a significant factor that preserves and enhances reservoir quality. The evaporative pumping mechanism is favored to explain the dolomitization of the thrombolite doloboundstone and dolostone reservoir flow units at Appleton and Vocation Fields. Geologic modeling, reservoir simulation, and the testing and applying the resulting integrated geologic-engineering models have shown that little oil remains to be recovered at Appleton Field and a significant amount of oil remains to be recovered at Vocation Field through a strategic infill drilling program. The drive mechanisms for primary production in Appleton and Vocation Fields remain effective; therefore, the initiation of a pressure maintenance program or enhanced recovery project is not required at this time. The integrated geologic-engineering model developed for a low-relief paleohigh (Appleton Field) was tested for three scenarios involving the variables of present-day structural elevation and the presence/absence of potential reef thrombolite lithofacies. In each case, the predictions based upon the model were correct. From this modeling, the characteristics of the ideal prospect in the basement ridge play include a low-relief paleohigh associated with dendroidal/chaotic thrombolite doloboundstone and dolostone that has sufficient present-day structural relief so that these carbonates rest above the oil-water contact. Such a prospect was identified from the modeling, and it is located northwest of well Permit No. 3854B (Appleton Field) and south of well No. Permit No.11030B (Northwest Appleton Field).

  3. Acoustic Camera Evaluation of Juvenile Salmonid Approach and Fate at Surface Flow Outlets of Two Hydropower Dams

    SciTech Connect (OSTI)

    Ploskey, Gene R.; Johnson, Gary E.; Weiland, Mark A.; Khan, Fenton; Mueller, Robert P.; Serkowski, John A.; Rakowski, Cynthia L.; Hedgepeth, J.; Skalski, John R.; Ebberts, Blaine D.; Klatte, Bernard A.

    2006-08-04

    The objective of this study was to estimate and compare fate probabilities for juvenile salmon approaching two surface flow outlets (SFOs) to identify effective design characteristics. The SFOs differed principally in forebay location, depth, discharge, and water velocity over a sharp-crested weir. Both outlets were about 20 ft wide. The 22-ft deep Bonneville Powerhouse 2 Corner Collector (B2CC) was located in the southwest corner of the forebay and passed 5,000 ft3/s of water at normal-pool elevation. In contrast, The Dalles Dam ice and trash sluiceway outlet above Main Unit 1-3 (TDITC) was not located in a forebay corner, was only 7-ft deep, and discharged about 933 ft3/s at normal-pool elevation. The linear velocity of water over the weir was about 15 ft/s at the B2CC and 5 ft/s at the TDITC. We used a Dual-Frequency Identification Sonar (DIDSON) to record movements of fish within about 65 ft of the B2CC and within 35 ft of the TDITC. We actively tracked fish by manually adjusting pan and tilt rotator angles to keep targets in view. Contrary to expectations, active tracking did not provide a predominance of long tracks that clearly indicated fish fate because most tracks were incomplete. Active tracking did increase error in fish-position estimation, which complicated data processing, so we plan to sample multiple fixed zones in the future. The probability of fish entering each SFO was estimated by a Markov chain analysis, which did not require complete fish tracks. At the B2CC, we tracked 7,943 juvenile salmonids and most of them entered the B2CC. Fish moving south 40 to 60 ft upstream of the dam face were more likely to enter the eddy at the south end of the powerhouse than to enter the B2CC. At the TDITC, we tracked 2,821 smolts. Fish movement was complex with active swimming toward and away from the entrance. The high entrance probability zone (EPZ), where over 90% of tracked fish entered the SFO, extended 32 ft out at the B2CC and only 8 ft out at the TDITC. Greater discharge at the B2CC pushed the entrainment zone (EZ - where flow exceeded 7 ft/s) upstream from the entrance so that fish were entrained before they began to struggle against the flow. The high EPZ also was extended by flow along the powerhouse face at both sites, but more at the B2CC (about 450 ft) than at the TDITC (about 50 ft). Fish entering the large south eddy that circulated past the B2CC entrance were provided multiple opportunities to discover and enter. In contrast, fish moving past the sampled TDITC entrance either entered adjacent sluiceway openings or moved west to the spillway because there was no eddy to provide additional opportunities. Information from our study should be useful to fisheries managers and engineers seeking to transfer SFO technologies from one site to another. There are two important components to designing SFOs, the location within the forebay to take advantage of forebay circulation and specific entrance characteristics such as discharge and depth which affect the size and shape of the EZ and the high EPZ. Providing SFOs with an EZ extending upstream of structure could reduce entrance rejection, decrease forebay residence time and risk of predation, and increase passage of schools of smolts.

  4. Parameter Selection and Longitudinal Phase Space Simulation for a Single Stage X-Band FEL Driver at 250 MeV

    SciTech Connect (OSTI)

    Sun, Yipeng; Raubenheimer, Tor; Wu, Juhao; ,

    2011-08-19

    Hard x-ray Free electron lasers (FEL) are being built or proposed at many accelerator laboratories as it supports wide range of applications in many aspects. Most of the hard x-ray FEL design is similar with the SLAC Linac Coherent Light Source (LCLS), which features a two (or multiple) stage bunch compression. For the first stage of the bunch compression, usually the beam is accelerated in a lower-frequency RF section (such as S-band for LCLS), and then the longitudinal phase space is linearized by a higher-frequency RF section (harmonic RF, such as X-band for LCLS). In this paper, a compact hard x-ray FEL design is proposed, which is based on X-band RF acceleration and eliminating the need of a harmonic RF. The parameter selection and relation is discussed, and the longitudinal phase space simulation is presented. The FEL coherence condition of the electron beam in the undulators requires a large charge density, a small emittance and small energy spread. The RMS electron bunch length from the injector is in the ps scale, with a bunch charge in the range of hundreds pC to several nC, which means that the current is roughly 0.1 kA. According to the requirement from soft x-ray lasing and hard x-ray lasing, a peak current of 1 kA and 3 kA is needed respectively. Thus the bunch has to be compressed. Usually a two stage bunch compression or multipole stage bunch compression is adopted. The z-correlated energy chirp is normally established by letting the beam pass through a section of RF cavities, with a RF phase off crest. As stated above, S-band RF (3 GHz) acceleration could be applied in this section. Due to the nature of RF acceleration wave, the chirp on the bunch is not linear, but has the RF curvature on it. In order to linearize the energy chirp, a harmonic RF section with higher frequency is needed. For LCLS a short X-band RF section (12 GHz) is used which is a fourth order harmonic. The linearized bunch is then passing by a dispersive region, in which the particles with different energy have different path length. A four dipole chicane is the natural choice for the dispersive region. As the example illustrated in Figure 1, the head of the bunch has smaller energy, and gets a stronger bending kick from the dipole magnet, then has a longer path length in the dispersive region. Similarly, the tail of the bunch has larger energy and shorter path length in the dispersive region. At the exit of the dispersive region, the relative longitudinal position of the head and tail of the bunch both move to the center of the bunch, so the bunch length will be shorter.

  5. A Systems Approach to Identifying Exploration and Development Opportunities in the Illinois Basin: Digital Portifolio of Plays in Underexplored Lower Paleozoic Rocks

    SciTech Connect (OSTI)

    Beverly Seyler; David Harris; Brian Keith; Bryan Huff; Yaghoob Lasemi

    2008-06-30

    This study examined petroleum occurrence in Ordovician, Silurian and Devonian reservoirs in the Illinois Basin. Results from this project show that there is excellent potential for additional discovery of petroleum reservoirs in these formations. Numerous exploration targets and exploration strategies were identified that can be used to increase production from these underexplored strata. Some of the challenges to exploration of deeper strata include the lack of subsurface data, lack of understanding of regional facies changes, lack of understanding the role of diagenetic alteration in developing reservoir porosity and permeability, the shifting of structural closures with depth, overlooking potential producing horizons, and under utilization of 3D seismic techniques. This study has shown many areas are prospective for additional discoveries in lower Paleozoic strata in the Illinois Basin. This project implemented a systematic basin analysis approach that is expected to encourage exploration for petroleum in lower Paleozoic rocks of the Illinois Basin. The study has compiled and presented a broad base of information and knowledge needed by independent oil companies to pursue the development of exploration prospects in overlooked, deeper play horizons in the Illinois Basin. Available geologic data relevant for the exploration and development of petroleum reservoirs in the Illinois Basin was analyzed and assimilated into a coherent, easily accessible digital play portfolio. The primary focus of this project was on case studies of existing reservoirs in Devonian, Silurian, and Ordovician strata and the application of knowledge gained to future exploration and development in these underexplored strata of the Illinois Basin. In addition, a review of published reports and exploration in the New Albany Shale Group, a Devonian black shale source rock, in Illinois was completed due to the recent increased interest in Devonian black shales across the United States. The New Albany Shale is regarded as the source rock for petroleum in Silurian and younger strata in the Illinois Basin and has potential as a petroleum reservoir. Field studies of reservoirs in Devonian strata such as the Geneva Dolomite, Dutch Creek Sandstone and Grassy knob Chert suggest that there is much additional potential for expanding these plays beyond their current limits. These studies also suggest the potential for the discovery of additional plays using stratigraphic concepts to develop a subcrop play on the subkaskaskia unconformity boundary that separates lower Devonian strata from middle Devonian strata in portions of the basin. The lateral transition from Geneva Dolomite to Dutch Creek Sandstone also offers an avenue for developing exploration strategies in middle Devonian strata. Study of lower Devonian strata in the Sesser Oil Field and the region surrounding the field shows opportunities for development of a subcrop play where lower Devonian strata unconformably overlie Silurian strata. Field studies of Silurian reservoirs along the Sangamon Arch show that opportunities exist for overlooked pays in areas where wells do not penetrate deep enough to test all reservoir intervals in Niagaran rocks. Mapping of Silurian reservoirs in the Mt. Auburn trend along the Sangamon Arch shows that porous reservoir rock grades laterally to non-reservoir facies and several reservoir intervals may be encountered in the Silurian with numerous exploration wells testing only the uppermost reservoir intervals. Mapping of the Ordovician Trenton and shallower strata at Centralia Field show that the crest of the anticline shifted through geologic time. This study illustrates that the axes of anticlines may shift with depth and shallow structure maps may not accurately predict structurally favorable reservoir locations at depth.

  6. Heat Flow and Gas Hydrates on the Continental Margin of India: Building on Results from NGHP Expedition 01

    SciTech Connect (OSTI)

    Trehu, Anne; Kannberg, Peter

    2011-06-30

    The Indian National Gas Hydrate Program (NGHP) Expedition 01 presented the unique opportunity to constrain regional heat flow derived from seismic observations by using drilling data in three regions on the continental margin of India. The seismic bottom simulating reflection (BSR) is a well-documented feature in hydrate bearing sediments, and can serve as a proxy for apparent heat flow if data are available to estimate acoustic velocity and density in water and sediments, thermal conductivity, and seafloor temperature. Direct observations of temperature at depth and physical properties of the sediment obtained from drilling can be used to calibrate the seismic observations, decreasing the uncertainty of the seismically-derived estimates. Anomalies in apparent heat flow can result from a variety of sources, including sedimentation, erosion, topographic refraction and fluid flow. We constructed apparent heat flow maps for portions of the Krishna-Godavari (K-G) basin, the Mahanadi basin, and the Andaman basin and modeled anomalies using 1-D conductive thermal models. Apparent heat flow values in the Krishna-Godavari (K-G) basin and Mahanadi basin are generally 0.035 to 0.055 watts per square meter (W/m2). The borehole data show an increase in apparent heat flow as water depth increases from 900 to 1500 m. In the SW part of the seismic grid, 1D modeling of the effect of sedimentation on heat flow shows that ~50% of the observed increase in apparent heat flow with increasing water depth can be attributed to trapping of sediments behind a "toe-thrust" ridge that is forming along the seaward edge of a thick, rapidly accumulating deltaic sediment pile. The remainder of the anomaly can be explained either by a decrease in thermal conductivity of the sediments filling the slope basin or by lateral advection of heat through fluid flow along stratigraphic horizons within the basin and through flexural faults in the crest of the anticline. Such flow probably plays a role in bringing methane into the ridge formed by the toe-thrust. Because of the small anomaly due to this process and the uncertainty in thermal conductivity, we did not model this process explicitly. In the NE part of the K-G basin seismic grid, a number of local heat flow lows and highs are observed, which can be attributed to topographic refraction and to local fluid flow along faults, respectively. No regional anomaly can be resolved. Because of lack of continuity between the K-G basin sites within the seismic grid and those ~70 km to the NE in water depths of 1200 to 1500 m, we do not speculate on the reason for higher heat flow at these depths. The Mahanadi basin results, while limited in geographic extent, are similar to those for the KG basin. The Andaman basin exhibits much lower apparent heat flow values, ranging from 0.015 to 0.025 W/m2. Heat flow here also appears to increase with increasing water depth. The very low heat flow here is among the lowest heat flow observed anywhere and gives rise to a very thick hydrate stability zone in the sediments. Through 1D models of sedimentation (with extremely high sedimentation rates as a proxy for tectonic thickening), we concluded that the very low heat flow can probably be attributed to the combined effects of high sedimentation rate, low thermal conductivity, tectonic thickening of sediments and the cooling effect of a subducting plate in a subduction zone forearc. Like for the K-G basin, much of the local variability can be attributed to topography. The regional increase in heat flow with water depth remains unexplained because the seismic grid available to us did not extend far enough to define the local tectonic setting of the slope basin controlling this observational pattern. The results are compared to results from other margins, both active and passive. While an increase in apparent heat flow with increasing water depth is widely observed, it is likely a result of different processes in different places. The very low heat flow due to sedimentation and tectonics in the Andaman basin is at the low end of glob

  7. Heat Flow and Gas Hydrates on the Continental Margin of India: Building on Results from NGHP Expedition 01

    SciTech Connect (OSTI)

    Anne Trehu; Peter Kannberg

    2011-06-30

    The Indian National Gas Hydrate Program (NGHP) Expedition 01 presented the unique opportunity to constrain regional heat flow derived from seismic observations by using drilling data in three regions on the continental margin of India. The seismic bottom simulating reflection (BSR) is a well-documented feature in hydrate bearing sediments, and can serve as a proxy for apparent heat flow if data are available to estimate acoustic velocity and density in water and sediments, thermal conductivity, and seafloor temperature. Direct observations of temperature at depth and physical properties of the sediment obtained from drilling can be used to calibrate the seismic observations, decreasing the uncertainty of the seismically-derived estimates. Anomalies in apparent heat flow can result from a variety of sources, including sedimentation, erosion, topographic refraction and fluid flow. We constructed apparent heat flow maps for portions of the Krishna-Godavari (K-G) basin, the Mahanadi basin, and the Andaman basin and modeled anomalies using 1-D conductive thermal models. Apparent heat flow values in the Krishna-Godavari (K-G) basin and Mahanadi basin are generally 0.035 to 0.055 watts per square meter (W/m{sup 2}). The borehole data show an increase in apparent heat flow as water depth increases from 900 to 1500 m. In the SW part of the seismic grid, 1D modeling of the effect of sedimentation on heat flow shows that {approx}50% of the observed increase in apparent heat flow with increasing water depth can be attributed to trapping of sediments behind a 'toe-thrust' ridge that is forming along the seaward edge of a thick, rapidly accumulating deltaic sediment pile. The remainder of the anomaly can be explained either by a decrease in thermal conductivity of the sediments filling the slope basin or by lateral advection of heat through fluid flow along stratigraphic horizons within the basin and through flexural faults in the crest of the anticline. Such flow probably plays a role in bringing methane into the ridge formed by the toe-thrust. Because of the small anomaly due to this process and the uncertainty in thermal conductivity, we did not model this process explicitly. In the NE part of the K-G basin seismic grid, a number of local heat flow lows and highs are observed, which can be attributed to topographic refraction and to local fluid flow along faults, respectively. No regional anomaly can be resolved. Because of lack of continuity between the K-G basin sites within the seismic grid and those {approx}70 km to the NE in water depths of 1200 to 1500 m, we do not speculate on the reason for higher heat flow at these depths. The Mahanadi basin results, while limited in geographic extent, are similar to those for the K-G basin. The Andaman basin exhibits much lower apparent heat flow values, ranging from 0.015 to 0.025 W/m{sup 2}. Heat flow here also appears to increase with increasing water depth. The very low heat flow here is among the lowest heat flow observed anywhere and gives rise to a very thick hydrate stability zone in the sediments. Through 1D models of sedimentation (with extremely high sedimentation rates as a proxy for tectonic thickening), we concluded that the very low heat flow can probably be attributed to the combined effects of high sedimentation rate, low thermal conductivity, tectonic thickening of sediments and the cooling effect of a subducting plate in a subduction zone forearc. Like for the K-G basin, much of the local variability can be attributed to topography. The regional increase in heat flow with water depth remains unexplained because the seismic grid available to us did not extend far enough to define the local tectonic setting of the slope basin controlling this observational pattern. The results are compared to results from other margins, both active and passive. While an increase in apparent heat flow with increasing water depth is widely observed, it is likely a result of different processes in different places. The very low heat flow due to sedimentation and tectonics in the Andaman basi

  8. Producing Light Oil from a Frozen Reservoir: Reservoir and Fluid Characterization of Umiat Field, National Petroleum Reserve, Alaska

    SciTech Connect (OSTI)

    Hanks, Catherine

    2012-12-31

    Umiat oil field is a light oil in a shallow, frozen reservoir in the Brooks Range foothills of northern Alaska with estimated oil-in-place of over 1 billion barrels. Umiat field was discovered in the 1940’s but was never considered viable because it is shallow, in the permafrost, and far from any transportation infrastructure. The advent of modern drilling and production techniques has made Umiat and similar fields in northern Alaska attractive exploration and production targets. Since 2008 UAF has been working with Renaissance Alaska Inc. and, more recently, Linc Energy, to develop a more robust reservoir model that can be combined with rock and fluid property data to simulate potential production techniques. This work will be used to by Linc Energy as they prepare to drill up to 5 horizontal wells during the 2012-2013 drilling season. This new work identified three potential reservoir horizons within the Cretaceous Nanushuk Formation: the Upper and Lower Grandstand sands, and the overlying Ninuluk sand, with the Lower Grandstand considered the primary target. Seals are provided by thick interlayered shales. Reserve estimates for the Lower Grandstand alone range from 739 million barrels to 2437 million barrels, with an average of 1527 million bbls. Reservoir simulations predict that cold gas injection from a wagon-wheel pattern of multilateral injectors and producers located on 5 drill sites on the crest of the structure will yield 12-15% recovery, with actual recovery depending upon the injection pressure used, the actual Kv/Kh encountered, and other geologic factors. Key to understanding the flow behavior of the Umiat reservoir is determining the permeability structure of the sands. Sandstones of the Cretaceous Nanushuk Formation consist of mixed shoreface and deltaic sandstones and mudstones. A core-based study of the sedimentary facies of these sands combined with outcrop observations identified six distinct facies associations with distinctive permeability trends. The Lower Grandstand sand consists of two coarsening-upward shoreface sands sequences while the Upper Grandstand consists of a single coarsening-upward shoreface sand. Each of the shoreface sands shows a distinctive permeability profile with high horizontal permeability at the top getting progressively poorer towards the base of the sand. In contrast, deltaic sandstones in the overlying Ninuluk are more permeable at the base of the sands, with decreasing permeability towards the sand top. These trends impart a strong permeability anisotropy to the reservoir and are being incorporated into the reservoir model. These observations also suggest that horizontal wells should target the upper part of the major sands. Natural fractures may superimpose another permeability pattern on the Umiat reservoir that need to be accounted for in both the simulation and in drilling. Examination of legacy core from Umiat field indicate that fractures are present in the subsurface, but don't provide information on their orientation and density. Nearby surface exposures of folds in similar stratigraphy indicate there are at least three possible fracture sets: an early, N/S striking set that may predate folding and two sets possibly related to folding: an EW striking set of extension fractures that are parallel to the fold axes and a set of conjugate shear fractures oriented NE and NW. Analysis of fracture spacing suggests that these natural fractures are fairly widely spaced (25-59 cm depending upon the fracture set), but could provide improved reservoir permeability in horizontal legs drilled perpendicular to the open fracture set. The phase behavior of the Umiat fluid needed to be well understood in order for the reservoir simulation to be accurate. However, only a small amount of Umiat oil was available; this oil was collected in the 1940’s and was severely weathered. The composition of this ‘dead’ Umiat fluid was characterized by gas chromatography. This analysis was then compared to theoretical Umiat composition derived using the Pedersen method with original Umiat fluid properties published in the original reports. This comparison allowed estimation of the ‘lost’ light hydrocarbon fractions. An Umiat 'dead' oil sample then could be physically created by adding the lost light ends to the weatherized Umiat dead oil sample. This recreated sample was recombined with solution gas to create a 'pseudo-live' Umiat oil sample which was then used for experimental PVT and phase behavior studies to determine fluid properties over the range of reservoir pressures and temperatures. The phase behavior of the ‘pseudo-live’ oil was also simulated using the Peng- Robinson equations of state (EOS). The EOS model was tuned with measured experimental data to accurately simulate the differential liberation tests in order to obtain the necessary data for reservoir simulation studies, including bubble point pressure and oil viscosity. The bubble point pressure of the reconstructed Umiat oil is 345 psi, suggesting that maintenance of reservoir pressures above that pressure will be important for the any proposed production technique. A major part of predicting how the Umiat reservoir will perform is determining the relative permeability of oil in the presence of ice. Early in the project, UAF work on samples of the Umiat reservoir indicated that there is a significant reduction in the relatively permeability of oil in the presence of ice. However, it was not clear as to why this reduction occurred or where the ice resided. To explore this further, additional experimental and theoretical work was conducted. Core flood experiments were performed on two clean Berea sandstone cores under permafrost conditions to determine the relative permeability to oil (kro) over a temperature range of 23ºC to - 10ºC and for a range of connate water salinities. Both cores showed maximum reduction in relative permeability to oil when saturated with deionized water and less reduction when saturated with saline water. This reduction in relative permeability can be explained by formation of ice crystals in the center of pores. Theoretically, the radius of ice formed in the center of the pore can be determined using the Kozeny–Carman Equation by assuming the pores and pore throats as a cube with ‘N’ identical parallel pipes embedded in it. Using the values of kro obtained from the experimental work as input to the Kozeny–Carman Equation at -10ºC, the radius of ice crystals dropped from 0.145 μm to 0.069 μm when flooding-water salinity is increased to 6467 ppm. This explains the reduction of relative permeability with decreasing salinity but does not take into consideration other effects such as variations in pore throat structure. In addition, fluids like deionized water, saline water, and antifreeze (a mixture of 60% ethylene or propylene glycol with 40% water) were tested to find the best flooding agent for frozen reservoirs. At 0ºC, 9% greater recovery was observed with antifreeze was used as a flooding agent as compared to using saline water. Antifreeze showed 48% recovery even at -10ºC, at which temperature the rest of the fluids failed to increase production. Preliminary evaluation of drilling fluids indicate that the brine-based muds caused significantly less swelling in the Umiat reservoir sands when compared to fresh-water based muds. However since freezing filtrate is another cause of formation damage, a simple water-based-mud may not a viable option. It is recommended that new fluids be tested, including different salts, brines, polymers and oil-based fluids. These fluids should be tested at low temperatures in order to determine the potential for formation damage, the fluid properties under these conditions and to ensure that the freezing point is below that of the reservoir. In order to reduce the surface footprint while accessing the maximum amount of the Lower Grandstand interval, simulations used development from 5 surface locations with a wagon-wheel pattern of multilateral injectors and producers. There is no active aquifer support due to small peizometric head in the area and no existing gas cap, so an alternative method of pressure support is needed. Cold gas injection was used in the simulations as it is considered the most viable means of providing pressure maintenance while maintaining wellbore stability and reducing impact on the permafrost. Saline water injection may be a viable alternative, though this may have a detrimental effect on permafrost. In the short term, the results of this work are being incorporated into Linc Energy’s drilling and development plan. This project has also provided valuable information on the rock and fluid properties of low temperature reservoirs as well as the efficacy of potential production techniques for Umiat or similar shallow frozen reservoirs in the circum-Arctic.

  9. COMPNAME","COMPID","YEAR","PLANTNAME","KIND","CONSTRUC","INSTALLED","MAXCAP","NE

    U.S. Energy Information Administration (EIA) Indexed Site

    EQUIP","TOTCOST","COSTCAP","GROSSEXP","OPERENG","FUEL","COOLANTS","STEXP","STOTH","STTRANS","ELECEXP","MISCST","RENTS","MAINSUP","MAINSTRUC","MAINBOIL","MAINELEC","MAINMISC","TOTPROD","EXPKWH","UNITCL","QUANTCL","AVGHEATCL","ACDELCL","ACBURNCL","ACBTUCL","ACNETGENCL","ABTUNETGCL","UNITGAS","QUANTGAS","AVGHEATGAS","ACDELGAS","ACBURNGAS","ACBTUGAS","ACNETGNGAS","ABTUNETGAS","UNITOIL","QUANTOIL","AVGHEATOIL","ACDELOIL","ACBURNOIL","ACBTUOIL","ACNETGNOIL","ABTUNETOIL" "Tennessee Valley Authority",18642,1999,"Sequoyah","Nuclear","01/01/81",,2441160,2303000,8760,1008,1.8570502e+10,3184031,533636867,2488511062,3025331960,1239,33187938,21080862,86166618,4316783,11925073,0,0,13329621,28360769,0,16330987,1528775,8295886,3650336,7012139,201997849,11,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"MillionBTU",189924066,0,0,0,0.43,0.04,10230 "Tennessee Valley Authority",18642,1999,"Watts Bar","Nuclear","01/01/96","1/1/1996",1269000,1200000,8208,728,8230350000,1953589,2108999339,4827648621,6938601549,5468,30551823,12179502,38261150,3963151,7056493,0,0,10400580,24553068,0,14243155,2328791,9244870,870737,990214,124091711,15,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"MillionBTU",84467683,0,0,0,0.43,0.04,10260 "Tennessee Valley Authority",18642,1999,"Johnsonville","Gas Turbine","01/01/75","1/1/1975",1088000,1407000,8760,14,256798000,0,6064116,119609619,125673735,116,112893140,2747882,9870790,0,0,0,0,0,477926,0,2274,1326,0,475339,7436,13582973,53,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"Gallons",24224936,139600,0,0.41,0.03,0,13170 "Tennessee Valley Authority",18642,1999,"Gallatin","Gas Turbine","01/01/75","1/1/1975",325200,431000,8760,8,176258000,0,3324533,63486109,66810642,205,80539157,665541,6810251,0,0,0,0,0,151587,0,1339166,1553,0,3922,4338,8976358,51,,0,0,0,0,0,0,0,"Mcf",2252179,1024,0,2.67,2.61,0,0,"Gallons",2063233,139100,0,0.37,0,0.03,14710 "Tennessee Valley Authority",18642,1999,"Browns Ferry","Nuclear","01/01/74","1/1/1977",3456000,2529000,8760,1085,1.771301e+10,890631,909522117,3830292072,4740704820,1372,47061477,58344025,102890781,3642332,11672365,0,0,16130309,26099224,0,5560106,0,25822517,1921329,0,252082988,14,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"MillionBTU",186421503,0,0,0,0.53,0,10520 "Tennessee Valley Authority",18642,1999,"Cumberland","Steam","01/01/73","1/1/1973",2600000,2591000,8760,323,1.6530325e+10,1829568,103903145,1638681020,1744413733,671,63827428,5077791,197194700,0,86656,0,0,3945,13987241,0,1210473,1306476,16946838,4232440,841362,240887922,15,"Tons",6868849,10459,26.16,27.86,1.2,0.01,9746,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Tennessee Valley Authority",18642,1999,"Thomas H. Allen","Gas Turbine","01/01/71","1/1/1972",820300,622000,8760,9,264695000,0,3063638,102977658,106041296,129,1709273,879771,11709062,0,0,0,0,0,72128,0,301000,0,0,150309,2816,13115086,50,,0,0,0,0,0,0,0,"Mcf",3589538,1024,0,3.06,3.03,0,0,"Gallons",1173222,139500,0,0.55,0,0.03,14460 "Tennessee Valley Authority",18642,1999,"Colbert","Gas Turbine","01/01/72","1/1/1972",476000,420000,8760,7,326221000,0,2826177,64911682,67737859,142,3078759,1248563,12167389,0,0,0,0,0,69117,0,27275,0,0,74,2699,13515117,41,,0,0,0,0,0,0,0,"Mcf",3866688,1024,0,2.8,2.71,0,0,"Gallons",3619161,138400,0,0.35,0,0.03,13670 "Tennessee Valley Authority",18642,1999,"Bull Run","Steam","01/01/67","1/1/1967",950000,912000,8760,87,4389788000,2220883,35786684,300943172,338950739,357,21987402,2324904,50419615,0,2286709,0,0,1742,6906593,0,754423,481980,8505768,2788903,314448,74785085,17,"Tons",1593346,11895,28.85,30.74,1.24,0.01,9257,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Tennessee Valley Authority",18642,1999,"Thomas H. Allen","Steam","01/01/59","1/1/1959",990000,858000,8760,122,4102572000,142024,73025058,451231229,524398311,530,20254094,1206283,60294160,0,16,0,0,0,9854407,0,392524,824748,8011764,5402527,184253,86170682,21,"Tons",2039487,9680,25.5,29.45,1.39,0.01,10585,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Tennessee Valley Authority",18642,1999,"Watts Bar","Steam","01/01/42","1/1/1945",240000,0,8760,0,-1381000,11997,4933530,18578656,23524183,98,-6629,177,0,0,0,0,0,0,109802,0,908,5,0,0,0,110892,-80,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Tennessee Valley Authority",18642,1999,"Paradise","Steam","01/01/63","1/1/1970",2558200,2286000,8760,296,1.4181992e+10,8519495,115906466,1287447341,1411873302,552,57696636,6093708,168293657,0,752026,0,0,536,10779025,0,3529172,4127133,18094770,3094627,676700,215441354,15,"Tons",6332104,10413,21.43,26.2,1.14,0.01,10280,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Tennessee Valley Authority",18642,1999,"Gallatin","Steam","01/01/56","1/1/1959",1255200,992000,8760,131,7002818000,690082,44703289,427469961,472863332,377,5073325,1612720,80238724,0,1258244,0,0,73323,7350012,0,1803476,714460,6039653,3054984,792751,102938347,15,"Tons",3266195,9540,22.99,24.49,1.19,0.01,9651,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Tennessee Valley Authority",18642,1999,"John Sevier","Steam","01/01/55","1/1/1957",800000,748000,8760,129,5522165000,1570328,37309270,253176616,292056214,365,2993416,946133,70531483,0,3286201,0,0,0,4864155,0,569877,953882,3537596,666934,559907,85916168,16,"Tons",2120222,11710,32.44,33.21,1.3,0.01,9802,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Tennessee Valley Authority",18642,1999,"Kingston","Steam","01/01/54","1/1/1955",1700000,1583000,8760,275,1.0147089e+10,3475653,55125946,433125237,491726836,289,31839874,1201130,133624099,0,732904,0,0,671,15993919,0,2888077,697638,10886872,3114678,359796,169499784,17,"Tons",4038449,11134,31.75,32.96,1.34,0.01,9845,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Tennessee Valley Authority",18642,1999,"Colbert","Steam","01/01/55","1/1/1965",1350000,1283000,8760,222,6557785000,279029,50717782,608908796,659905607,489,12808186,3684548,92134159,0,115314,0,0,3096,11894009,0,1552144,1216679,16776178,4392373,150021,131918521,20,"Tons",2890398,10787,27.4,31.47,1.38,0.01,10066,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Tennessee Valley Authority",18642,1999,"Shawnee","Steam","01/01/53","1/1/1956",1750000,1368000,8760,264,8060005000,504507,64076435,534941906,599522848,343,20760203,5379072,113531307,0,6565666,0,0,278,7470171,0,2988378,2163530,11022440,5415043,396055,154931940,19,"Tons",3766896,10234,28.54,29.83,1.34,0.01,10474,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Tennessee Valley Authority",18642,1999,"Johnsonville","Steam","01/01/51","1/1/1959",1485200,1213000,8760,269,6638234000,87967,76839994,522564850,599492811,404,5328716,12443723,83697340,0,-481100,0,0,6321,6501533,0,2973740,1891947,6444598,2867797,430252,116776151,18,"Tons",2922958,11389,26.49,28.52,1.16,0.01,10912,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Tennessee Valley Authority",18642,1999,"Widows Creek","Steam","01/01/52","1/1/1965",1968760,1652000,8760,332,8498846000,855691,74795817,748521437,824172945,419,22653730,3695032,119092329,0,6555644,0,0,1697,9854746,0,1449646,2594983,13869309,4635675,4932791,166681852,20,"Tons",3858785,10808,28.8,30.16,1.27,0.01,10896,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Salt River Proj Ag I & P Dist",16572,1999,"PALO VERDE 17.49%","n","01/01/86","01/01/88",666364,659000,8760,0,5317709000,1244457,281584974,735793972,1018623403,1529,6013000,4282694,25651422,2986065,4032493,0,0,2276671,26939892,0,5837013,1933729,6303817,3749209,2418208,86411213,16,,0,0,0,0,0,0,0,"BBTU",57406,0,0,440.13,0.44,0.01,10795,,0,0,0,0,0,0,0 "Salt River Proj Ag I & P Dist",16572,1999,"San Tan","Combined Cy","01/01/74","01/01/75",414000,292000,4112,43,714062000,149179,2773141,65463525,68385845,165,-5000,380221,14107193,0,1594474,0,0,0,845877,0,332730,170816,0,7389209,249749,25070269,35,,0,0,0,0,0,0,0,"MCF",6579686,1017,2.12,2.12,2.08,0.02,9372,"BBL",291,485968,0,24.61,4.22,0,0 "Salt River Proj Ag I & P Dist",16572,1999,"SOLAR PV1 & PV2","So1ar","01/01/98","01/01/98",216,100,3000,0,119493,0,0,1676818,1676818,7763,1852000,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Salt River Proj Ag I & P Dist",16572,1999,"KYRENE","Steam","01/01/52","01/01/54",108000,106000,736,12,50072000,313326,2433283,15283485,18030094,167,726000,180057,1483303,0,338591,0,0,169009,304652,0,157896,27729,608781,344347,214929,3829294,76,,0,0,0,0,0,0,0,"MCF",651225,1016,2.16,2.16,2.12,0.03,13215,,0,0,0,0,0,0,0 "Salt River Proj Ag I & P Dist",16572,1999,"KYRENE","Gas Turbine","01/01/71","01/01/73",226850,149000,290,0,18990000,0,0,16888448,16888448,74,0,114913,724438,0,85074,0,0,0,40298,0,64493,11249,0,291038,96634,1428137,75,,0,0,0,0,0,0,0,"MCF",281631,1017,2.09,2.09,2.06,0.04,15094,"BBL",60,488889,0,24.61,4.19,0,0 "Salt River Proj Ag I & P Dist",16572,1999,"MOHAVE 10%","Steam","01/01/71","01/01/71",163620,158000,8715,0,996913000,42812,5046928,50920964,56010704,342,1221000,250561,13703464,0,389195,0,0,245787,1776796,-12611,497248,178489,1673455,685271,112185,19499840,20,"Tons",457815,10939,28.47,29.64,1.35,0.01,10093,"MCF",45107,1028,0,2.94,2.86,0,0,,0,0,0,0,0,0,0 "Salt River Proj Ag I & P Dist",16572,1999,"CORONADO","Steam","01/01/79","01/01/80",821880,760000,8760,213,5039392000,8300198,158523884,696108809,862932891,1050,7523000,1228492,96325127,0,4607490,0,0,403466,4002498,10446,1754276,1703703,12035645,3902862,1238765,127212770,25,"Tons",2632698,9886,34.53,35.42,1.79,0.02,10357,,0,0,0,0,0,0,0,"BBL",24155,137315,24.21,26.79,4.65,0,0 "Salt River Proj Ag I & P Dist",16572,1999,"CRAIG 29%","Steam","01/01/79","01/01/81",259414,248000,8760,0,2050747000,83589,52424794,181936864,234445247,904,680000,368849,22362014,0,1036824,0,0,425951,1689040,12271,323682,251566,1760910,701820,370069,29302996,14,"Coal",1040589,10060,22.56,21.42,1.06,0.01,10223,"MCF",28100,1000,0,2.49,2.49,0,0,,0,0,0,0,0,0,0 "Salt River Proj Ag I & P Dist",16572,1999,"CROSS CUT","Steam","01/01/42","01/01/49",30000,3000,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"MCF",0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Salt River Proj Ag I & P Dist",16572,1999,"NAVAJO 21.7%","Steam","01/01/74","01/01/76",522857,488000,8760,539,3676183000,42866,27115117,246304509,273462492,523,5605000,1396220,45545213,0,1123640,0,0,257918,3750053,132023,667722,165042,7069421,2110905,434407,62652564,17,"Tons",1685726,10956,23.51,26.74,1.22,0.01,10061,,0,0,0,0,0,0,0,"BBL",8625,139078,22.75,28.63,4.9,0,0 "Salt River Proj Ag I & P Dist",16572,1999,"NAVAJO 100%","Steam","01/01/74","01/01/76",2409480,2250000,8760,539,1.6020912e+10,197537,124954457,1135043822,1260195816,523,25829493,6236459,196347455,0,5554459,0,0,1293757,8406791,0,3306198,769371,29759456,10024854,2263428,263962228,16,"Tons",7339290,10979,23.5,26.63,1.21,0.01,10074,,0,0,0,0,0,0,0,"BBL",39756,139079,22.75,22.47,3.85,0,0 "Salt River Proj Ag I & P Dist",16572,1999,"FOUR CORNERS 10%","Steam","01/01/69","01/01/70",163620,148000,8760,0,1176172000,11573,7334703,91939839,99286115,607,37000,105696,11684589,0,978340,0,0,90099,1040379,83795,135949,61864,1112429,291525,340786,15925451,14,"Tons",644302,8885,17.41,17.97,1.01,0.01,9757,"MCF",26430,1008,0,4.13,4.1,0,0,,0,0,0,0,0,0,0 "Salt River Proj Ag I & P Dist",16572,1999,"HAYDEN 50%","Steam","01/01/76","01/01/76",137700,131000,6809,0,812423000,482702,13855905,64632670,78971277,574,16419000,157050,8427442,0,469402,0,0,101091,1360780,0,245277,92834,431566,123971,241674,11651087,14,"Tons",413486,10561,22.49,20.28,0.96,0.01,10759,,0,0,0,0,0,0,0,"BBL",1248,138870,26.63,32.67,5.6,0,0 "Salt River Proj Ag I & P Dist",16572,1999,"AGUA FRIA","Steam","01/01/57","01/01/61",390472,407000,4062,62,888092000,139014,5833721,51714773,57687508,148,23000,345003,21091146,0,1032200,0,0,1186582,715713,0,741888,530777,2232219,897096,413430,29186054,33,,0,0,0,0,0,0,0,"MCF",9553025,1009,2.14,2.14,2.12,0.02,10859,"BBL",3,500000,0,24.61,4.1,0,0 "Salt River Proj Ag I & P Dist",16572,1999,"AGUA FRIA","Gas Turbine","01/01/74","01/01/75",222950,197000,451,0,42223000,0,299904,22692012,22991916,103,0,108584,1469697,0,233742,0,0,0,36481,0,284381,9332,0,296342,34359,2472918,59,,0,0,0,0,0,0,0,"MCF",617372,1007,2.12,0,2.1,0.03,14371,,0,0,0,0,0,0,0 "Alexandria City",298,1999,,"STEAM","01/01/56","01/01/74",171000,170000,5326,20,194429,0,0,0,0,0,0,708998,0,0,0,0,0,0,0,0,199997,14994,0,404462,0,1328451,6833,,0,0,0,0,0,0,0,"MCF",2346281,10,2.24,2.24,2.14,0.03,12.45,,0,0,0,0,0,0,0 "Ames City of",554,1999,,"STEAM","01/01/50",,102500,103000,8760,45,381623000,0,0,0,0,0,0,4120850,6152121,0,0,0,0,0,0,0,0,0,0,0,0,10272971,27,,239196,8800,25.72,25.72,1.46,0.02,11031,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Ames City of",554,1999,,"GAS TURBINE","01/01/72","1/1/1972",22000,18000,95,0,1007000,0,0,0,0,0,0,9422,53460,0,0,0,0,0,0,0,0,0,0,0,0,62882,62,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,99000,137300,0.54,0.54,3.93,0.05,13498 "Anaheim City of",590,1999,,"GAS TRUBINE","01/01/90","01/01/91",49270,45998,638,6,27719000,0,9226000,27237000,36463000,740,0,280835,699954,0,0,0,0,0,0,0,187223,0,0,0,1146979,2314991,84,,0,0,0,0,0,0,0,"MCF",258683,1009,2.76,2.76,2.74,25.7,9394,,0,0,0,0,0,0,0 "Anchorage City of",599,1999,"#1","4 Gas 2 Int","01/01/62","01/01/72",85000,33000,1010,14,9983618,80839,3457655,22418738,25957232,305,380194,55796,353989,0,0,0,0,809120,0,3922,67280,67353,0,442853,0,1800313,180,,0,0,0,0,0,0,0,273580,0,1000,1.38,1.38,1.38,0.03,19744,778,0,133500,33.82,33.82,6.03,0,0 "Anchorage City of",599,1999,"#2","3 Gas 1 Ste","01/01/75","01/01/84",243200,151000,19516,30,759258360,11240,8928538,75136820,84076598,346,5364843,257796,10642281,0,678572,0,0,1623991,233929,0,330573,231135,303990,1190866,118352,15611485,21,,0,0,0,0,0,0,0,7701758,0,1000,1.38,1.38,1.38,0.01,10144,570,0,133500,34.71,34.71,6.19,0,0 "Austin City of",1009,1999,"Downtown","Gas Turbine","01/01/54","01/01/54",5500,5000,0,0,493000,0,0,1065016,1065016,194,0,142,36663,0,0,0,0,7532,0,0,143,0,0,142049,0,186529,378,,0,0,0,0,0,0,0,"MCF",1347,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Austin City of",1009,1999,"Northeast","Steam","01/01/71","01/01/71",31500,31300,7566,24,120607160,70498,2376720,5711293,8158511,259,0,42490,2760067,0,395223,0,0,366434,798118,0,24135,51518,290200,20129,3652,4751966,39,"TON",58175,12000,39.8,39.48,1.64,0.02,12637,"MCF",125541,1020,2.75,2.75,2.7,0.03,12648,,0,0,0,0,0,0,0 "Austin City of",1009,1999,"Downtown","Steam","01/01/35","01/01/54",27500,22500,465,11,4508000,24099,1221355,5587700,6833154,248,0,31568,193351,0,41643,0,0,12652,492890,0,23781,136549,88433,55977,1897,1078741,239,,0,0,0,0,0,0,0,"MCF",70119,1020,2.75,2.75,2.7,0.04,15874,,0,0,0,0,0,0,0 "Austin City of",1015,1999,"DECKER TURBINES","GAS TURBINE","01/01/88","01/01/88",200000,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Austin City of",1015,1999,"DECKER SOLAR","SOLAR","01/01/86","01/01/86",300,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Austin City of",1015,1999,"DECKER","STEAM","01/01/70","01/01/77",726000,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Austin City of",1015,1999,"HOLLY","STEAM","01/01/60","01/01/74",558000,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Austin City of",1015,1999,"SEAHOLM","STEAM","01/01/51","01/01/55",120000,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Braintree Town of",2144,1999,"Potter II","Gas Turbine","01/01/77","01/01/77",97500,79500,1284,27,72929000,20271,3762859,18429374,22212504,228,132748,176565,2625145,0,1154442,0,0,0,0,0,158096,316309,488498,491410,262035,5672500,78,,0,0,0,0,0,0,0,"MCF",931167,1035,3.03,3.03,2.92,0.03,11631,"BBLS",14190,138809,15.72,15.72,2.7,0.03,10520 "Brownsville Public Utils Board",2409,1999,"SILAS RAY","STEAM GAS T","01/01/46","01/01/77",155000,197000,5256,29,206,528443,4499041,192117166,197144650,1272,0,205477,6239714,0,1311,0,0,155739,309455,0,74856,224382,203068,176038,1264465,8854505,42983034,,0,0,0,0,0,0,0,"MCF",2346974,1059,2.65,2.65,2.5,0.03,12048,,0,0,0,0,0,0,0 "Bryan City of",2439,1999,,"Gas Turbine","01/01/70","01/01/87",39,30,265,8,5177,0,0,0,0,0,0,0,311874,0,0,0,0,499578,0,0,0,0,0,216081,0,1027533,198480,,0,0,0,0,0,0,0,"Mcf",72688,1000,3.8,3.8,3.8,0.06,29839,"Bbl29839",639,128000,55.63,55.63,7.12,0.06,29839 "Bryan City of",2442,1999,"Bryan Municipal","STEAM, GAS","01/01/55","01/01/74",138000,115000,0,20,118273000,0,7590674,7546886,15137560,110,46427,76607,3529286,0,372623,0,0,606045,154868,9320,63805,20315,520977,159461,31344,5544651,47,,0,0,0,0,0,0,0,"MCF",1626575,1,2.25,2.25,2.21,0.03,14.05,,0,0,0,0,0,0,0 "Bryan City of",2442,1999,"Roland C. Dandy","STEAM","01/01/77","01/01/77",105000,106000,0,19,461142000,1183486,10201555,18752019,30137060,287,105283,76291,11510542,0,391030,0,0,512056,181517,12858,53081,31539,405327,91686,57727,13323654,29,,0,0,0,0,0,0,0,"MCF",5120070,1,2.24,2.24,2.21,0.02,11.36,,0,0,0,0,0,0,0 "Burlington City of",2548,1999,"Gas Turbine","Gas Turbine","01/01/71","01/01/71",25500,25000,106,1,2093500,13587,531143,3214616,3759346,147,17164,6073,130467,0,0,0,0,324,5442,16648,0,0,0,75762,0,234716,112,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"BBL",6016,137674,20.61,21.69,3.75,0.06,16616 "Burlington City of",2548,1999,"Joseph C McNeil GenrЬ ","Steam","01/01/84","01/01/84",50,53,4305,48,183109400,278455,18147811,50484579,68910845,1378217,571376,140467,6439721,0,788415,0,0,291816,360657,0,131396,35661,553086,1325161,20193,10086573,55,"Wood-Tons",263762,4750,23.46,23.52,2.47,0.03,13742,"MCF",66041,1012124,2.82,2.82,2.78,0.24,86785,"BBL",2260,136430,20.13,21.19,3.7,0,71.02 "Cedar Falls City of",3203,1999,"Streeter Station","Steam","01/01/63","01/01/73",51500,50000,1650,23,38111600,281328,3758281,14375110,18414719,358,699506,97410,1113417,0,230220,0,0,102634,142771,0,90418,180725,588058,55402,9122,2610177,68,"Tons",19527,12429,38.79,36.49,1.47,0.02,14033.99,"MCF",49410,1000,2.75,2.75,2.75,0.04,14033.99,,0,0,0,0,0,0,0 "Cedar Falls City of",3203,1999,"Combustion Turbine","Combustion","01/01/68","01/01/68",25000,20000,193,0,2814300,70777,134588,3497629,3702994,148,3062,4978,122537,0,0,0,0,5713,0,0,6674,9708,0,32837,0,182447,65,,0,0,0,0,0,0,0,"MCF",50599,1000,2.42,2.42,2.42,0.04,17979.25,,0,0,0,0,0,0,0 "California Dept-Wtr Resources",3255,1999,"Reid Garner #4","Steam-coal","01/01/83","01/01/83",275000,250000,0,96,1597086000,319709000,0,0,319709000,1163,0,0,22054817,0,0,0,0,0,21659183,0,0,0,0,0,0,43714000,27,"Tons",672949,11858,0,13.11,1.31,0.01,11079,,0,0,0,0,0,0,0,"Barrels",7515,133622,0,25,4.55,0.05,11570 "California Dept-Wtr Resources",3255,1999,"BottleRock & S Geysep","Steam-Geoth","01/01/85","01/01/85",55000,0,0,0,0,10000,0,0,10000,0,0,0,0,0,0,0,0,0,553000,0,0,0,0,0,0,553000,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Chanute City of",3355,1999,"Plant #3","Internal Co","01/01/85","01/01/91",31915,39975,595,8,10378156,50000,612000,15500000,16162000,506,0,369525,245371,0,0,0,0,0,0,0,166666,0,0,136912,0,918474,89,"N/A",0,0,0,0,0,0,0,"MCF",78668,1000,2.66,2.66,2.66,0.02,0.02,"Barrels",3969,138000,26.57,26.57,0.08,0.01,0.01 "PUD No 1 of Clark County",3660,1999,"River Road CCCT","Gas Turbine","01/01/97","01/01/97",248000,258504,7058,21,1711891704,1053160,141767983,13187783,156008926,629,2319343,4203148,23066109,0,0,0,0,0,0,0,0,91900,0,0,0,27361157,16,,0,0,0,0,0,0,0,"MCF",11463,1060,2042,2012,1.9,0.01,7114,,0,0,0,0,0,0,0 "Clarksdale City of",3702,1999,,"Combine Cyc","01/01/71","01/01/71",25550,24000,2149,6,43507,0,0,4581109,4581109,179,0,10000,1053091,0,0,0,0,130000,80000,0,10000,0,12009,328580,0,1623680,37320,,0,0,0,0,0,0,0,"MCF",374997,1000,2.8,2.8,2.8,0.02,8.62,"BBL",70,142.5,23.14,23.14,3.86,0.05,13.99 "Clarksdale City of",3702,1999,,"Gas Turbine","01/01/65","01/01/65",11500,11500,754,6,12158,0,0,1445133,1445133,126,0,10000,478409,0,0,0,0,100000,50000,0,20000,0,0,226974,0,885383,72823,,0,0,0,0,0,0,0,"MCF",169662,1000,2.8,2.8,2.8,0.03,13.99,"BBL",115,142.5,23.14,23.14,3.86,0.07,20.18 "Coffeyville City o",3892,1999,"COFFEYVILLE","STEAM","01/01/01","01/01/73",56985,55900,4013,23,68578900,0,0,0,0,0,0,57285,2419645,0,0,0,0,0,1146750,0,0,0,8610,0,0,3632290,53,,0,0,0,0,0,0,0,"MMBTU",938070,1000,2.25,2.58,2.58,0.03,1368,,0,0,0,0,0,0,0 "Coldwater Board of Public Util",3915,1999,,"Steam","01/01/00","01/01/64",11125,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,68864,7301,41,105,51389,127700,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Coldwater Board of Public Util",3915,1999,,"Diesel","01/01/48","01/01/78",13250,45933,1719,6,7081208,0,0,0,0,0,0,40423,214682,0,0,0,0,37863,0,0,0,12739,0,71418,0,377125,53,,0,0,0,0,0,0,0,"Mcf",65604,9530000,2.84,0,0,0,0,"Barrels",1725,126000,17.7,0,0,0,0 "Colorado Springs City of",3989,1999,"Birdsall","Steam-Gas","01/01/53","01/01/57",62500,4500,1717,4,20716000,10761,2593301,11384249,13988311,224,0,67716,1180669,0,107787,0,0,227078,88988,0,31363,89311,290603,224308,38374,2346197,113,,0,0,0,0,0,0,0,"MCF",412714,806,2.83,2.83,3.52,0.06,16212,"GALLONS",22000,137420,0.11,0.11,0.81,0.01,16212 "Colorado Springs City of",3989,1999,"Drake","Steam-Gas","01/01/25","01/01/74",257300,256000,8760,106,1484262000,2725551,23014851,80547185,106287587,413,0,1059853,25816108,0,1094453,0,0,3228406,1184954,0,462905,237248,4111443,1735831,152472,39083673,26,"TONS",769313,10914,29.13,31.49,1.44,0.01,11585,"MCF",494125,808,2.73,2.73,3.38,0.03,11585,"BARRELS",0,0,0,0,0,0,0 "Colorado Springs City of",3989,1999,"Nixon","Steam-Gas","01/01/80","01/01/80",207000,214000,6081,81,1117841000,5059222,39785705,107090082,151935009,734,0,969721,11571054,0,779121,0,0,1343687,1057607,0,489855,218501,3309067,2974204,146609,22859426,20,"TONS",538337,10432,18.31,18.84,0.9,0,10120,,0,0,0,0,0,0,0,"BARRELS",13952,136738,24.87,24.87,4.33,0.04,10120 "Colorado Springs City of",3989,1999,"CTS","Gas","01/01/99","01/01/99",71660,73000,458,0,22292000,418573,123167,32084223,32625963,455,0,0,715385,0,0,0,0,0,0,0,0,0,0,26204,0,741589,33,,0,0,0,0,0,0,0,"MCF",291394,983,2.89,2.87,2.92,0.03,12852,,0,0,0,0,0,0,0 "Columbia City of",4045,1999,,"Steam/Gas T","01/01/10","01/01/70",86000,226000,8760,46,62152000,115894,3578025,15986526,19680445,229,5320808,43503,2133251,0,531664,0,0,967929,376491,0,170114,28005,512239,452108,0,5215304,84,"Tons",37319,13265,53.83,53.69,2.02,3.22,15930,"Mcf",34179,0,3.64,3.64,0,0,0,,0,0,0,0,0,0,0 "Columbus City of",4065,1999,"O'Shaughnessy",,,,5000,5000,0,1,5860000,0,0,0,0,0,0,0,0,0,0,0,0,49898,0,0,0,0,0,2864,0,52762,9,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Concord City of",4150,1999,,,,,0,0,0,0,545243,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Connecticut Mun Elec Engy Coop",4180,1999,"Millstone Unit 3","Nuclear (e)","01/01/86","01/01/86",1253100,1164700,7329,933,8277624400,0,20415627,29930688,50346315,40,0,324496,363329,24201,162455,0,0,48209,296706,13608,313554,74201,315415,228127,1354,2165655,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Dalton City of",4744,1999,"Wansley 1 & 2","Coal fired","01/01/76","01/01/78",22220,0,0,0,149590620,0,0,9113036,9113036,410,28304,29233,2186381,0,24950,0,0,15863,81536,0,42895,19710,138435,167350,13819,2720172,18,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Dalton City of",4744,1999,"Scherer 1 & 2","Coal fired","/ /","01/01/84",22680,0,0,0,144814966,0,0,13467749,13467749,594,50818,27106,2605498,0,25617,0,0,15303,77539,0,34949,22981,256897,16076,11927,3093893,21,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Denton City of",5063,1999,"SPENCER PLANT","STEAM","01/01/55","01/01/73",179000,259100,11980,36,305539695,0,0,0,0,0,0,233373,9138796,0,348227,0,0,468112,432003,0,71604,11794,211613,467529,210327,11593378,38,,0,0,0,0,0,0,0,"Mcf",3800668,1,2.24,2.24,2.24,2.99,12.43,"BBl",0,139.68,7.82,0,0,0,0 "Eugene City of",6022,1999,"Willamette","Steam","01/01/31","01/01/50",25000,0,0,0,0,0,0,1189332,1189332,48,0,0,260,0,1204,0,0,-975,0,0,0,0,0,5095,7459,13043,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Eugene City of",6022,1999,"Energy Center","Steam","01/01/76","01/01/76",51200,41000,0,0,192829000,1280,320371,7521672,7843323,153,0,13058,1366594,0,0,0,0,261785,0,0,0,94,0,127793,0,1769324,9,,0,0,0,0,0,0,0,,321587,0,2.51,0,0,0,2495.24,,0,0,0,0,0,0,0 "Farmington City of",6204,1999,"ANIMAS","STEAM-COMBI","01/01/55","01/01/94",32180,28000,7808,14,170805000,5968,1109574,25033191,26148733,813,0,70145,3611891,0,225548,0,0,460952,226694,0,122984,0,217797,1021413,38103,5995527,35,,0,0,0,0,0,0,0,"MCF",1668856,1013,2.13,2.13,2.1,0.02,9897,,0,0,0,0,0,0,0 "Farmington City of",6204,1999,"SAN JUAN","STEAM-COAL","/ /","/ /",4300042200,43000,7919,10,293222700,0,5471749,62874731,68346480,0,0,71242,5641682,0,114021,0,0,120758,93838,131,62021,34762,382623,77158,65298,6663534,23,"TONS",167448,9421,32.33,32.33,1.72,0.01,10774,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Fayetteville Public Works Comm",6235,1999,"Butler-Warner Gen PtP","Gas-Turbine","01/01/76","01/01/88",303400,276500,1134,33,0,749336,5123088,100277060,106149484,350,4108529,0,-6665,0,0,0,0,0,0,0,0,0,0,292639,-141172,144802,0,,0,0,0,0,0,0,0,"Mcf",1724674,1046,2.72,2.72,2.6,0.03,12249.5,"Barrels",4,138800,27.15,27.87,4.78,0.06,13375.25 "Fort Pierce Utilities Auth",6616,1999,"Steam","Steam","01/01/21","01/01/89",120011,0,0,0,0,0,0,0,0,0,0,564929,6990,0,231196,0,0,428922,138247,0,21508,56082,204594,1437831,87424,3177723,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Freeport Village of Inc",6775,1999,"Power Plant #1","Internal Co",,"01/01/64",13190,0,0,9,2066120,5022,1113459,3036221,4154702,315,51721,42612,209909,0,0,0,0,518539,0,0,0,79604,0,0,0,850664,412,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"Barrels",293755,138788,0.81,0.68,0.18,0.97,14.88 "Freeport Village of Inc",6775,1999,"Power Plant #2","Internal Co","1/1/1968","01/01/73",37390,57000,1,9,1277200,1827,3178208,8088951,11268986,301,0,52596,205053,0,0,0,0,634322,0,28573,0,101784,0,0,0,1022328,800,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"Barrels",319336,138788,0.86,0.64,0.13,0.16,9.2 "Fremont City of",6779,1999,"Wright","Steam","01/01/56","01/01/76",132700,83390,8760,47,336075,202231,5905920,42850719,48958870,369,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Gainesville Regional Utiliti",6909,1999,"DEERHAVEN","STEAM (330-","01/01/69","01/01/81",327500,290000,12226,0,1352589900,254025,31881608,176716069,208851702,638,0,357675,29040171,0,1948913,669408,0,709824,318849,0,0,234571,2947099,1471570,212996,37911076,28,"Tons",434183,13091,0,43.31,1.65,0.02,10917.81,"Mcf",3363772,1047,0,2.65,2.53,0.03,12133.79,"Barrels",37465,152355.8,0,17.6,2.75,0.03,11346.38 "Gainesville Regional Utiliti",6909,1999,"DEERHAVEN","GAS TURBINE","01/01/76","01/01/97",121000,106000,1766,0,84018600,0,1321304,28064043,29385347,243,0,39742,3231130,0,28286,26111,0,2792,9961,0,0,15073,36357,60563,3746,3453761,41,,0,0,0,0,0,0,0,"Mcf",1122969,1047,0,2.86,2.74,0.04,14030.74,"Barrels",692,139057.2,0,20.13,3.45,0.06,18331.59 "Gainesville Regional Utiliti",6909,1999,"CRYSTAL RIVER","NUCLEAR","01/01/77","01/01/77",12530,13000,8736,0,100282800,3267,4269194,7051636,11324097,904,0,649986,434350,0,10743,21,0,0,421140,180700,453410,74742,63458,47809,56124,2392483,24,,0,0,0,0,0,0,0,"mmbtu",1060237,1,0,0.41,0.41,0,10572.47,,0,0,0,0,0,0,0 "Gainesville Regional Utiliti",6909,1999,"KELLY","STEAM (310,","01/01/13","01/01/65",69000,70000,6288,38,122927200,29000,3448845,16424862,19902707,288,0,116270,4283336,0,725363,41979,0,353107,42098,0,37872,118991,299095,266800,56631,6341542,52,,0,0,0,0,0,0,0,"Mcf",1386371,1041,0,2.8,2.69,0.04,1359.07,"Barrels",27416,150944,0,14.6,2.3,0.03,11701.63 "Gainesville Regional Utiliti",6909,1999,"KELLY","GAS TURBINE","01/01/38","01/01/65",48900,23000,187,0,1323700,0,3911,6914299,6918210,141,0,2848,102069,0,3654,898,0,156,983,0,56884,2806,253,6844,9228,186623,141,,0,0,0,0,0,0,0,"Mcf",34317,1041,0,2.97,2.85,0.08,27441.76,"Barrels",125,137462.3,0,2.18,0.38,0.01,33607.61 "Garland City of",6958,1999,"C E Newman","Steam","01/01/57","01/01/64",90,0,0,15,52988540,0,0,0,0,0,0,393626,2065599,0,337730,0,0,304378,0,0,0,95143,576059,204996,14547,3992078,75,,0,0,0,0,0,0,0,"mcf",751031,1027,2.68,2.68,2.61,0.03,14558,,0,0,0,0,0,0,0 "Garland City of",6958,1999,"Ray Olinger","Steam","01/01/66","01/01/75",340,0,0,53,1124489300,352431,77747728,0,78100159,229706,0,925754,28773849,0,899894,0,0,340126,0,0,75135,141289,2796239,1696904,58564,35707754,32,,0,0,0,0,0,0,0,"mcf",12530666,1015,2.29,2.29,2.25,0.02,11307,,0,0,0,0,0,0,0 "Glendale City of",7294,1999,"Grayson Power Plant","C.C. 8 & St","01/01/77","01/01/77",98000,30000,6550,46,83627000,0,0,0,0,0,0,0,2304766,0,0,0,0,0,0,0,0,0,0,0,0,2304766,28,,0,0,0,0,0,0,0,,885159,1032,2.6,2.6,2.52,0.02,10922,,0,0,0,0,0,0,0 "Glendale City of",7294,1999,"Grayson Power Plant","Steam 3, 4,","01/01/53","01/01/64",117000,79000,8095,46,235016000,0,0,0,0,0,0,83118,12398533,0,2564287,0,0,0,199205,0,21789,81361,407902,1157488,0,16913683,72,,0,0,0,0,0,0,0,,6354878,665,1.96,1.96,2.94,0.04,13452,,0,0,0,0,0,0,0 "Glendale City of",7294,1999,"Grayson Power Plant","Gas Turbine","01/01/72","01/01/74",53000,1000,34332,46,295600,0,0,0,0,0,0,60626,127128,0,0,0,0,0,312,0,0,0,73,124,0,188263,637,,0,0,0,0,0,0,0,,49491,1032,2.57,2.57,2.49,0.04,17276,,0,0,0,0,0,0,0 "Grand Haven City of",7483,1999,"Sims 111","Steam","01/01/61","01/01/83",65000,65640,7248,34,325839300,194823,17546372,59386460,77127655,1187,608741,60314,5842025,0,518785,0,0,229677,414863,0,31843,59567,1244336,91370,29265,8522045,26,"tons",160760,11367,0,36.34,1.59,17.93,11338,,0,0,0,0,0,0,0,"mcf",13850,1000,0,4.34,0,0,0 "Grand Haven City of",7483,1999,"Diesel Plant","internal co","01/01/31","01/01/74",20430,9030,28,1,72500,27458,445645,4740308,5213411,255,22625,776,38089,0,0,0,0,0,30018,0,0,2297,0,0,74851,146031,2014,,0,0,0,0,0,0,0,"mcf",933,1000,0,4.34,11.87,525.39,44239,"brls",376,144000,0,0.05,0,0,0 "Grand River Dam Authority",7490,1999,"GRDA #1","STEAM","01/01/81","01/01/81",490000,519,8044,97,3074727000,1689890,98855201,234243925,334789016,683,0,134410,29404628,0,904037,0,0,798928,375518,0,169174,314792,2121091,430639,266073,34919290,11,"TONS",1895637,8384,14.42,14.42,0.86,0,10337.97,"MCF",107483,1006,2.44,2.44,2.39,0,35.72,,0,0,0,0,0,0,0 "Grand River Dam Authority",7490,1999,"GRDA #2","STEAM","01/01/86","01/01/86",520000,553,8023,120,2084345000,0,53986144,402596506,456582650,878,0,83334,20574802,0,2216945,0,0,525668,233196,0,104888,178859,2453678,344835,172902,26889107,13,"TONS",2049199,8701,14.76,15.18,0.87,0,10756.78,"MCF",67904,1006,2.52,2.52,2.46,0,20.98,,0,0,0,0,0,0,0 "PUD No 1 of Grays Harbor Cnty",7548,1999,,,,,0,0,0,0,0,82928,2208894,12774993,15066815,0,0,61617,6477957,0,27174,0,0,0,581817,934,212,0,14634,18437,28696,7211478,0,"Tons",249975,8218,25.98,25.74,1.56,0.02,10782,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Greenwood Utilities Comm",7651,1999,,,,,0,0,0,0,0,0,0,0,0,445,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Greenwood Utilities Comm",7651,1999,"Wright","Steam","1/1/1902","1/1/1955",17500,11721,1472,12,10291142,44232,477968,5142250,5664450,324,0,43208,293538,0,168488,0,0,154435,29059,1228,19461,29411,12072,62764,5858,819522,80,"Tons",140,13248,0,0,0,0,0,"MCF",93243,1019,0,0,0,0,0,,0,0,0,0,0,0,0 "Greenwood Utilities Comm",7651,1999,"Henderson","Steam","1/1/1960","1/1/1967",46179,40900,2903,23,50661210,117233,1499663,13202167,14819063,321,0,56586,2045916,0,255116,0,0,157434,117767,0,52669,867,272422,88793,111926,3159496,62,"Tons",545,13100,0,0,0,0,0,"MCF",687608,1019,0,0,0,0,0,"Barrels",120,138486,0,0,0,0,0 "Harrisonburg City of",8198,1999,"PLEASANT VALLEY","GAS-TURBINE","01/01/97","01/01/98",14000,13795,0,2,1546628,18753,975623,6407017,7401393,529,0,9077,75597,0,0,0,0,10595,4440,0,0,5214,15176,0,188,120287,78,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"GALLONS",186918,0,0.4,0.4,0,0,0 "Harrisonburg City of",8198,1999,"MT. CLINTON","GAS-TURBINE","01/01/98","01/01/99",14000,8846,0,2,525731,0,139162,2862528,3001690,214,0,1057,18332,0,0,0,0,6844,366,0,0,5001,1332,0,21,32953,63,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"GALLONS",66356,0,0.4,0.4,0,0,0 "Henderson City Utility Comm",8449,1999,"STATION ONE","STEAM","01/01/51","01/01/68",40591,20000,0,30,4898138,0,2293070,8187353,10480423,258,0,312060,1078245,0,309093,0,0,263344,276291,0,0,14500,164236,186376,9722,2613867,534,"TONS",34517,11434,28.82,28.66,1.31,20.31,11501,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Henderson City Utility Comm",8449,1999,"STATION TWO","STEAM","01/01/73","01/01/74",350000,312000,0,0,2104822040,0,0,115186365,115186365,329,0,469431,479283,0,1971482,0,0,894387,491084,0,272097,167212,3356917,539212,306867,8947972,4,"TONS",249039,11435,23.99,24.09,1.05,10.97,11458,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Holland City of",8723,1999,"48th Street","Oil/Gas Tur","01/01/94","01/01/94",75300,75651,1207,0,55601071,336770,5131914,24597253,30065937,399,33140,0,1847609,0,0,0,0,304910,0,0,0,0,0,70013,0,2222532,40,,0,0,0,0,0,0,0,"Mcf",717801,1020,2.6,2.6,2.55,0.03,13168,"Brls",2149,137000,29.4,29.4,5.11,0,222 "Holland City of",8723,1999,"James DeYoung","Steam","01/01/41","01/01/68",62250,55503,8760,45,321994740,803565,5456558,33980556,40240679,646,169931,203954,7360870,0,1786693,0,0,0,0,0,0,0,0,1639115,0,10990632,34,"Tons",168615,12700,41,41,1.57,0.02,13300,"Mcf",4050,1020,3,3,2.94,0,13,"Brs",250,137000,29.4,29.4,5.11,0,4.46 "Holland City of",8723,1999,"6th Street","Oi/Gas Turb","01/01/74","/ /",24000,13000,54,0,139040,20548,219739,2965966,3206253,134,0,0,27012,0,0,0,0,0,0,0,0,0,0,11677,0,38689,278,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"Brs",1208,137000,29.4,29.4,5.11,0.25,49992 "Holyoke City of",8774,1999,"Steam","Conventiona","01/01/02","01/01/61",25500,18000,272,32,-1054,143821,1991971,11336832,13472624,528,0,1028334,2937101,0,124366,0,0,0,0,0,416066,0,0,0,0,307775,-292007,,0,0,0,0,0,0,0,"Mcf",57642,1020,2.74,2.74,2.68,0.05,23544,"Barrels",265,152297,16.24,22.59,3.53,0.05,23544 "Homestead City of",8795,1999,"G.W.","Int. Combus","01/01/26","01/01/81",59100,63000,8700,21,73393186,7431029,52158226,0,59589255,1008,3549232,0,2715528,0,0,0,0,211533,0,0,749417,13328,0,1665477,0,5355283,73,,0,0,0,0,0,0,0,"MCP",652925,1091,2.85,3.21,2.85,0,10060,"BARRELS",13090,140600,24,24,0,0,1038 "Terrebonne Parish Consol Govt",8884,1999,"Houm plnt","Stem","01/01/62","01/01/76",78950,67,8908,26,108812349,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"mcf",1412914,1,2.82,2.82,2.66,0.03,13778,,0,0,0,0,0,0,0 "Hudson Town of",8973,1999,"Cherry St Station","Internal Co","01/01/00","01/01/72",15200,15200,328,10,2018120,3500,332760,3278258,3614518,238,0,29030,151138,0,0,0,0,177436,0,0,27887,98252,0,122644,0,606387,300,,0,0,0,0,0,0,0,,33210,910,2.98,2.98,3.27,0,0,,2307,140000,24.47,22.62,3.85,0.04,0 "Hudson Town of",8973,1999,"HLP Peaking","Internal Co","01/01/62","01/01/62",4400,4400,283,0,1552200,0,1503,711956,713459,162,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Lafayette City of",9096,1999,"Doc Bonin","Steam","01/01/65","01/01/77",331500,276000,14682,26,772281,302436,6849008,50156340,57307784,173,1732453,190840,21238385,0,398587,0,0,563223,268406,0,110983,25741,202633,459320,729180,24187298,31319,,0,0,0,0,0,0,0,"MCF",8285542,1055,2.47,2.47,2.34,0.02,11586,,0,0,0,0,0,0,0 "Lafayette City of",9096,1999,"Curtis A. Rodemacherи","Steam","01/01/51","01/01/60",33700,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Hutchinson Utilities Comm",9130,1999,"NO.2","GAS TURBINE","01/01/75","01/01/95",90500,52000,3484,8,143171,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"MCF",1199515,1000000,1.94,1.94,1.94,0.02,857,,0,0,0,0,0,0,0 "Hutchinson Utilities Comm",9130,1999,"NO.1","INTERNAL CO","01/01/41","01/01/63",19280,13000,481,17,1411,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"MCF",10876,1000000,2.5,2.5,2.5,0.02,11409,"BARRELS",898,138500,21.33,21.33,3.67,0.04,11409 "Hutchinson Utilities Comm",9130,1999,"NO.1","GAS TURBINE","01/01/71","01/01/71",16000,12600,1947,17,18870,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"MCF",210955,1000000,2.16,2.16,2.16,0.02,11179,,0,0,0,0,0,0,0 "Imperial Irrigation District",9216,1999,"YUMA AXIS (YUCCA)","STEAM/GAS T","01/01/59","01/01/59",97000,88000,8721,26,352808000,64181,2260883,23196343,25521407,263,0,379434,10637888,0,935878,0,0,640464,495843,0,99827,69611,406661,211055,674585,14551246,41,,0,0,0,0,0,0,0,"MCF",4064674,1009,2.34,2.34,2.32,0.03,11.62,,0,0,0,0,0,0,0 "Imperial Irrigation District",9216,1999,"BRAWLEY","GAS TURBINE","01/01/62","01/01/62",22500,0,0,0,0,5071,76410,2726341,2807822,125,0,0,0,0,0,0,0,1734,0,0,0,2153,82770,0,0,86657,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Imperial Irrigation District",9216,1999,"ROCKWOOD","GAS TURBINE","01/01/77","01/01/80",49900,43000,449,3,8735400,3032,432127,10030106,10465265,210,0,48642,178668,0,0,0,0,31135,0,0,83679,478,0,196364,0,538966,62,,0,0,0,0,0,0,0,"MCF",120588,1009,2.77,2.77,2.75,0.03,13.81,"BBLS",309,139000,31.32,31.32,5.36,0.08,12.78 "Imperial Irrigation District",9216,1999,"EC STEAM PLANT","STEAM","01/01/49","01/01/93",236000,200000,14438,32,346976000,145322,8507545,92188450,100841317,427,0,435334,9038913,0,564914,0,0,928726,354013,0,378925,35949,1083557,364726,297164,13482221,39,,0,0,0,0,0,0,0,"MCF",3854124,1009,2.73,2.73,2.7,0.03,11.2,,0,0,0,0,0,0,0 "Imperial Irrigation District",9216,1999,"COACHELLA PLANT","GAS TURBINE","01/01/73","01/01/76",92600,79900,484,3,8735400,0,660201,8509765,9169966,99,0,0,384991,0,0,0,0,16129,0,0,0,0,0,221825,0,622945,71,,0,0,0,0,0,0,0,"MCF",133342,1009,2.68,2.68,2.65,0.07,15.4,"BBLS",161,139000,19.82,19.82,3.4,0.03,15.49 "Independence City of",9231,1999,"Station H","Combustion","01/01/72","01/01/72",43900,35000,768,0,9679000,0,264494,7881342,8145836,186,3650000,0,418654,0,0,0,0,259,6023,0,1558,1922,0,40063,6460,474939,49,,0,0,0,0,0,0,0,"Mcf",165620,1006,2.52,2.52,2.5,4.32,17250,"barrel",70,137380,0,22.9,3.97,0,0 "Independence City of",9231,1999,"Station I","Combustion","01/01/72","01/01/72",39200,20000,84,0,913000,0,302177,5529062,5831239,149,1900000,0,60551,0,0,0,0,165,6970,0,5781,13239,0,25841,31762,144309,158,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"barrel",2704,137380,19.9,22.39,3.88,6.63,17087 "Independence City of",9231,1999,"Station J","Combustion","01/01/69","01/01/69",36000,25000,236,0,2002000,0,0,7805061,7805061,217,0,0,125702,0,0,0,0,222,1531,0,871,4113,0,24419,8730,165588,83,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"barrel",6516,137380,19.17,19.29,3.34,6.28,18779 "Independence City of",9231,1999,"Missouri City","Steam","01/01/55","01/01/55",46000,39000,1671,4,15124000,35409,3991334,17761788,21788531,474,0,7082,502886,0,176489,0,0,179516,70526,0,12705,8751,225619,212687,60099,1456360,96,"tons",12047,11335,30.77,38.88,1.72,3.33,18669,,0,0,0,0,0,0,0,"barrel",1600,137380,20.32,22.13,3.83,0,0 "Independence City of",9231,1999,"Blue Valley Steam","Steam","01/01/58","01/01/65",115000,84320,13965,66,241792052,334550,7113970,51575531,59024051,513,0,419819,4808525,0,524873,0,0,530126,996421,0,397024,47705,1359676,212400,446582,9743151,40,"tons",141859,10419,27.47,28,1.34,1.99,13563,"Mcf",318933,1007,2.6,2.6,2.58,0,0,"barrel",381,137380,19.7,29.02,5.03,0,0 "Independence City of",9231,1999,"Blue Valley RCT","Gas Turbine","01/01/76","01/01/76",61000,0,0,0,-34900,0,79423,9483847,9563270,157,0,0,0,0,0,0,0,0,0,0,6781,13176,0,85297,2666,107920,-3092,,0,0,0,0,0,0,0,"Mcf",0,0,0,0,0,0,0,"barrel",0,0,19.7,0,0,0,0 "Indiana Municipal Power Agency",9234,1999,"Anderson","Combustion","01/01/92","01/01/92",77400,0,677,1,16207699,338303,2059957,27858215,30256475,391,24719,109921,852328,0,0,0,0,-99533,0,0,0,0,0,35406,0,898122,55,,0,0,0,0,0,0,0,"Mcf",221255,1008,3.76,3.76,0,0.03,13866,"Barrels",913,135000,0,21.44,0,0,0 "Indiana Municipal Power Agency",9234,1999,"Richmond","Combistion","01/01/92","01/01/92",77400,0,672,2,16681301,285908,1897137,27678416,29861461,386,24719,109412,777649,0,0,0,0,63041,0,0,0,0,0,113291,0,1063393,64,,0,0,0,0,0,0,0,"Mcf",205930,1008,3.25,3.25,0,0.03,13826,"Barrels",4618,135000,0,22.83,0,0,0 "Jacksonville Electric Auth",9617,1999,"St. Johns River Powr","Steam","01/01/87","01/01/88",1359200,1254800,16230,379,9769075000,8261567,216790382,1265014325,1490066274,1096,3558053,1278911,141047857,0,5601281,0,0,1074855,5428044,46697,1187268,2385486,20285812,4095589,1403840,183835640,19,"Ton",3747220,12457,34.89,34.89,1.42,0.02,9594,,0,0,0,0,0,0,0,"bbl",63214,139174,0,21.47,2.12,0,0 "Jacksonville Electric Auth",9617,1999,"Southside Station","Steam","01/01/50","01/01/64",231600,212500,10904,10,554635000,260352,9143119,32049310,41452781,179,1629842,271851,15520408,0,1599580,0,0,0,206567,0,326718,25186,630482,191705,280057,19052554,34,,0,0,0,0,0,0,0,"Mcf",2507368,1060,0,2.34,3.06,0.03,11179,"Bbl",557864,151168,0,15.84,3.06,0.03,11179 "Jacksonville Electric Auth",9617,1999,"Northside Station","Steam","01/01/66","01/01/77",1158700,770000,15844,253,3351845000,2786108,56942751,225240754,284969613,246,33142204,2784678,74049151,0,5992982,0,0,44719,4602152,0,1374517,505398,7585701,1471833,857253,99268384,30,,0,0,0,0,0,0,0,"Mcf",8655547,1061,0,2.25,2.88,0.02,10216,"Bbl",3945407,150694,0,13.69,2.88,0.02,10216 "Jacksonville Electric Auth",9617,1999,"Northside Station","Combustion","01/01/68","01/01/75",248400,133600,1573,0,37400000,0,13725,30470646,30484371,123,788220,0,2222304,0,0,0,0,0,0,0,0,0,0,0,0,2222304,59,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"Bbl",106276,141886,0,20.19,4.14,0.05,16933 "Jacksonville Electric Auth",9617,1999,"Kennedy Station","Steam","01/01/55","01/01/69",149600,99000,5097,10,347132000,1512681,17018214,28634062,47164957,315,401104,268512,9068081,0,772026,0,0,0,215330,0,64213,51497,330526,641660,660280,12072125,35,,0,0,0,0,0,0,0,"Mcf",391837,1061,0,2.34,2.97,0.02,11107,"Bbl",540582,151503,0,14.74,2.97,0.02,11107 "Jacksonville Electric Auth",9617,1999,"Kennedy Station","Combustion","01/01/69","01/01/78",168600,154000,1125,0,42180000,0,1327436,21421124,22748560,135,25091556,0,2490159,0,0,0,0,0,0,0,0,0,0,0,0,2490159,59,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"Bbl",112392,139127,0,20.19,4.14,0.05,15570 "Jamestown City of",9645,1999,"Samuel A. Carlson","Steam","01/01/00","01/01/68",57700,49026,8760,35,150393293,431201,4905918,44660838,49997957,867,0,307142,3248587,0,767918,0,0,67674,0,0,323990,45918,307513,223184,92412,5384338,36,"Tons",90599,12698,32.64,32.62,1.3,0.02,15.15,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Kansas City City of",9996,1999,"NEARMAN","STEAM","01/01/81","01/01/81",235000,0,6232,0,1163529000,1149455,33440175,132136477,166726107,709,0,2403060,10767308,0,0,0,0,0,0,0,4927543,0,0,0,0,18097911,16,"Tons",816559,11608,0,13.63,0,0,0,,0,0,0,0,0,0,0,"Gallons",337856,0,0,0.53,0,0,0 "Kansas City City of",9996,1999,"QUINDARO","GAS TURBINE","01/01/61","01/01/77",121100,0,848,0,37328000,0,0,12878040,12878040,106,0,0,2472937,0,0,0,0,0,0,0,154961,0,0,0,0,2627898,70,,0,0,0,0,0,0,0,"MCF",82098,0,0,2.67,0,0,0,"Gallons",3996910,10968,0,0.56,0,0,0 "Kansas City City of",9996,1999,"Kaw","STEAM","01/01/55","01/01/62",144000,0,735,0,52780000,226366,10485751,61538861,72250978,502,0,1219250,2547603,0,0,0,0,0,0,0,120227,0,0,0,0,3887080,74,,0,0,0,0,0,0,0,"MCF",768569,14616,0,2.89,0,0,0,"Gallons",2470,0,0,0,0,0,0 "Kansas City City of",9996,1999,"Quindaro","STEAM","01/01/66","01/01/71",232000,0,7553,0,432609000,318548,21469578,113626934,135415060,584,0,4220013,12201830,0,0,0,0,0,0,0,6446514,0,0,0,0,22868357,53,"Tons",257094,10922,0,18.02,0,0,0,"MCF",136450,0,0,2.53,0,0,0,,0,0,0,0,0,0,0 "Kaukauna City of",10056,1999,"Gas-Turbine","Gas-Turbine","01/01/69","01/01/69",20000,20000,0,0,1633000,27532,147667,1773210,1948409,97,0,6258,0,0,0,0,0,5950,179,0,5243,0,0,25424,859,43913,27,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Kaukauna City of",10056,1999,"Diesel","Internal Co","01/01/66","01/01/66",6000,6000,0,1,2547740,0,0,750737,750737,125,0,1797,0,0,0,0,0,17685,70,0,1675,0,0,119575,865,141667,56,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Kennett City of",10152,1999,,,"01/01/42","01/01/75",31906,0,0,11,1634000,22309,787483,6445027,7254819,227,0,388548,59743,0,0,0,0,90225,0,0,0,0,0,71100,0,609616,373,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Key West City of",10226,1999,"STOCK ISLAND GENERAT","STOCK ISLAN","01/01/65","01/01/65",6000,1830,504,3,787200,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"BBL",1537,147619,25.24,23.84,3.85,0.04,12420 "Key West City of",10226,1999,"BIG PINE & CUDJOE KE","PEAKING DIE","01/01/66","01/01/66",7800,6000,1241,3,1626000,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"BBL",3240,147619,25.24,22.91,3.69,0.04,12353 "Key West City of",10226,1999,"STOCK ISLAND GENERAT","COMBUSTION","01/01/98","01/01/98",19770,17800,170,3,6338385,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"BBL",19072,147619,25.24,23.84,3.85,0.07,18656 "Key West City of",10226,1999,"STOCK ISLAND GENERA","COMBUSTION","01/01/98","01/01/98",19770,17800,312,3,4201594,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"BBL",12081,147619,25.24,23.84,3.85,0.06,17828 "Key West City of",10226,1999,"STOCK ISLAND GENERA","MEDIUM SPEE","01/01/92","01/01/92",19200,17400,1348,4,7680400,725946,2129491,33095400,35950837,1872,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"BBL",15168,147619,25.24,23.84,3.85,0.04,12245 "Key West City of",10226,1999,"STOCK ISLAND GENERA","COMBUSION T","01/01/78","01/01/78",23450,20000,338,3,3341400,102063,3836252,41439758,45378073,1935,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"BBL",10618,147619,25.24,23.84,3.85,0.07,19703 "Kissimmee Utility Authority",10376,1999,"Cane Island Unit 1","Gas Turbine","01/01/94","01/01/95",40000,40500,959,0,14625850,2178026,8322640,16405426,26906092,673,0,155794,616975,0,21370,0,0,0,47552,0,0,82207,42233,3552,0,969683,66,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Kissimmee Utility Authority",10376,1999,"Cane Island Unit 2","Combined Cy","01/01/95","01/01/95",120000,120900,8016,0,410918450,0,18118934,33576386,51695320,431,0,574702,9819459,0,1048989,0,0,0,317852,44,602,7445,273743,228456,0,12271292,30,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Kissimmee Utility Authority",10376,1999,"Hansel 8-20","Internal Co","01/01/59","01/01/80",18350,17800,1896,7,2753500,83022,1284485,18177017,19544524,1065,0,0,60138,0,0,0,0,0,0,0,0,0,0,0,0,60138,22,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Kissimmee Utility Authority",10376,1999,"Hansel 21-23","Combined Cy","01/01/83","01/01/83",55000,52300,3391,23,48803800,188985,8733288,12117381,21039654,383,1360859,467366,1917038,0,669123,0,0,0,263562,0,0,9168,294075,290,407232,4027854,83,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Lake Worth City of",10620,1999,"Tom G Smith","Gas Turbine","01/01/76","01/01/76",30000,0,0,0,9028400,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Lake Worth City of",10620,1999,"Tom G Smith","Gas-Turbine","01/01/76","01/01/76",34000,0,10495,35,57950539,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Lake Worth City of",10620,1999,"Tom G Smith","Internal Co","01/01/65","01/01/65",10000,0,1433,0,2538120,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Lakeland City of",10623,1999,"McIntosh","Steam","01/01/71",,404000,382000,7228,201,1839190600,1885069,31460078,296239998,329585145,816,8226431,522705,41752998,0,2155417,0,0,1371320,950229,0,705662,501402,5163353,1063922,1302923,55489931,30,"Tons",500198,12850,43.47,43.81,0,0,0,"MCF",5551769,953000,2.45,2.45,0,0,0,"BBLS",0,0,0,0,0,0,0 "Lakeland City of",10623,1999,"McIntosh","Internal Co","01/01/70","1/1/1970",5500,5500,344,0,892340,0,0,1320630,1320630,240,0,0,34735,0,0,0,0,9947,0,0,0,0,0,0,0,44682,50,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"BBLS",1518,138953,25.45,22.89,3.92,0,0 "Lakeland City of",10623,1999,"McIntosh","Gas Turbine","01/01/73","1/1/1973",20200,20000,284,0,22266010,0,0,4357281,4357281,216,21292755,0,764571,0,0,0,0,494377,0,0,0,0,0,0,0,1258948,57,,0,0,0,0,0,0,0,"MCF",67719,953000,2.51,2.51,2.39,0,0,"BBLS",927,138953,25.45,23.77,4.07,0,0 "Lakeland City of",10623,1999,"Larsen","Steam","01/01/59","1/1/1966",70000,87000,3471,7,109781131,18222,3205076,39859999,43083297,615,1568340,-458515,4264086,0,661973,0,0,352157,157768,0,224398,35362,686445,74964,71417,6070055,55,,0,0,0,0,0,0,0,"MCF",1067068,953000,2.52,2.52,2.4,0,0,"BBLS",62536,149341,15.9,15.4,2.46,0,0 "Lakeland City of",10623,1999,"Larsen","GasTurbine","01/01/62","1/1/1992",141000,144000,5825,39,519222486,10000,355941,47760931,48126872,341,1320675,0,14688881,0,0,0,0,57111,49377,0,75387,135332,474794,0,18035,15498917,30,,0,0,0,0,0,0,0,"MCF",4954465,953000,2.5,2.5,2.38,0,0,"BBLS",778,138657,18.94,23.73,4.07,0,0 "Lansing City of",10704,1999,"Erickson","Steam","01/01/73","01/01/73",154716,155993,7562,28,902816777,503834,8008408,37441310,45953552,297,9431143,598448,15649944,0,1139751,0,0,375627,144309,0,521787,398880,1081673,289370,373441,20573230,23,"Tons",359532,12604,40.78,41.97,1.66,0.02,10054,0,0,0,0,0,0,0,0,"BBL",2451,137028,18.35,17.87,3.1,0.03,10213 "Lansing City of",10704,1999,"Ottawa","Steam","01/01/38","01/01/54",2500,0,0,0,0,608570,3547880,114658,4271108,1708,1064667,0,0,0,43886,0,0,0,127,0,0,16474,0,0,716,61203,0,,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Lansing City of",10704,1999,"Eckert","Steam","01/01/00","01/01/00",375000,313553,8760,81,1359307426,17065,20619486,113409313,134045864,357,7390092,1095136,26848959,0,3418600,303612,0,443302,132055,0,712432,787553,4216929,2271054,978202,40742496,30,"tons",809048,10575,30.23,30.51,1.51,0.02,12067,0,0,0,0,0,0,0,0,"BBL",12900,138067,18.25,18.61,3.21,0.03,9035 "Lincoln Electric System",11018,1999,"Laramie River","Steam","01/01/80",,183000,0,0,0,1368728000,948685,27384698,112496736,140830119,770,162367,402737,7659439,0,0,0,0,2448015,0,0,0,0,3077883,0,0,13588074,10,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Lincoln Electric System",11018,1999,"Rokeby 2","Gas Turbine","01/01/97","1/1/1997",95400,85000,472,10,27550000,292531,1645078,27003893,28941502,303,4175680,124454,675616,0,0,0,0,179579,0,0,6681,10203,0,200778,21818,1219129,44,"N/A",0,0,0,0,0,0,0,"MCF",338164,996,2.05,2.05,2.05,0.03,12591,"BBLS",1980,137799,0,22.26,3.78,0.06,14724 "Lincoln Electric System",11018,1999,"8th & J","Gas Turbine","01/01/72","1/1/1972",27000,31000,81,10,1838000,77662,98128,4865007,5040797,187,164554,41168,79431,0,0,0,0,43462,0,0,1750,5169,0,55828,0,226808,123,"N/A",0,0,0,0,0,0,0,"MCF",29571,989,2.75,2.75,2.79,0.04,16104,"BBLS",67,128691,0,22.26,3.78,0.07,17830 "Lincoln Electric System",11018,1999,"Rokeby #1","Gas Turbine","01/01/75","1/1/1975",72400,71000,64,10,2311000,95118,1918857,8492052,10506027,145,175405,74672,114678,0,0,0,0,94085,0,0,40687,67514,0,1328510,21818,1741964,754,"N/A",0,0,0,0,0,0,0,"MCF",32475,994,2.33,2.33,2.34,0.03,14499,"BBLS",293,137799,19.45,22.23,3.77,0.08,20315 "Littleton Town of",11085,1999,"NEW HAVEN HARBOR",".225% JOINT",,,0,0,0,0,1732502,0,0,0,0,0,0,90,51512,0,948,0,0,0,0,0,2392,0,0,0,0,54942,32,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Logansport City of",11142,1999,"Logansport","Steam","01/01/58","01/01/64",38500,0,8760,22,162228320,109642,1405355,19237386,20752383,539,0,190031,3821848,0,128670,0,0,36753,919428,0,140403,20089,563819,408835,480785,6710661,41,90397,92870,11500,41.15,41.15,2.13,0.02,13.17,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Logansport City of",11142,1999,"Logansport","Oil/Gas","01/01/69","01/01/69",17500,0,0,0,577170,0,1025207,0,1025207,59,0,0,42618,0,0,0,0,0,0,0,0,0,0,0,0,42618,74,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Los Angeles City of",11208,1999,"VALLEY","STEAM","01/01/54","01/01/56",545600,337000,0,7,27314000,926527,25439704,84246953,110613184,203,3500000,60235,13221495,0,55929,0,0,0,442925,0,11284,70392,77493,61823,114689,14116265,517,,0,0,0,0,0,0,0,"mcf",404724,1,3,3,2.96,37.96,12816,,0,0,0,0,0,0,0 "Los Angeles City of",11208,1999,"HARBOR","CONBINED ST","01/01/94","01/01/94",229000,558000,2259,41,524137000,1740059,87786094,289957234,379483387,1657,8879733,276214,3330349,0,62330,0,0,0,1084424,0,580563,202658,212797,374547,185390,6309272,12,,0,0,0,0,0,0,0,"mcf",4522291,1,3,3,2.96,25.77,8701,,0,0,0,0,0,0,0 "Los Angeles City of",11208,1999,"HARBOR","GAS TURBINE","01/01/72","01/01/72",38000,36000,48,0,850000,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Los Angeles City of",11208,1999,"HAYNES","STEAM","01/01/62","01/01/67",1608000,1489000,8015,123,2113574000,933038,37791521,306054386,344778945,214,1741576,1052843,50891914,0,3057224,0,0,1792056,5017847,0,939570,1424717,3202792,2787404,1583937,71750304,34,,0,0,0,0,0,0,0,"mcf",22709425,1,3,3,2.96,32.1,10839,,0,0,0,0,0,0,0 "Los Angeles City of",11208,1999,"SCATTERGOOD","STEAM","01/01/58","01/01/74",823200,835000,8758,91,1679449000,515557,47288037,164431480,212235074,258,46903,1404338,66439099,0,1408691,0,0,0,3756004,0,214277,727252,3701955,1608703,1273919,80534238,48,,0,0,0,0,0,0,0,"mcf",15638964,1,3,3,2.96,28.3,9556,,0,0,0,0,0,0,0 "Lower Colorado River Authority",11269,1999,"Ferguson",,"01/01/74","01/01/74",446000000,0,0,0,1378410000,931823,26158508,42319502,69409833,0,0,347319,29342167,0,137242,0,0,734629,899018,0,332791,702887,413738,469747,33658,33413196,24,"TONS",0,0,0,0,0,0,0,"MCF",14169320,1013,2.06,2.06,2.03,0.02,10552,"BBL",0,0,0,0,0,0,0 "Lower Colorado River Authority",11269,1999,"Fayette","Steam","01/01/79","01/01/88",1690000000,0,0,0,1.1015857e+10,13591047,103023934,837863878,954478859,1,0,2157811,109413990,0,3840257,0,0,2391848,4494846,0,2014006,1954362,4931568,1961033,403807,133563528,12,"TONS",6553001,8409,16.17,16.17,0.96,0,0,"MCF",0,0,0,0,0,0,0,"BBL",19258,141000,14.25,14.25,2.4,0,0 "Lower Colorado River Authority",11269,1999,"Sim Gideon","Steam","01/01/65","01/01/69",623000000,0,0,0,2101292000,458719,20455136,65676320,86590175,0,0,482445,43723684,0,794924,0,0,891660,1130940,0,200902,1092136,961820,567117,75540,49921168,24,"TONS",0,0,0,0,0,0,0,"MCF",20136681,1095,2.1,2.1,1.91,0.02,10495,"BBL",0,0,0,0,0,0,0 "Lubbock City of",11292,1999,,"STEAM","01/01/49","01/01/58",72000,51000,5256,6,20565500,6000,300000,13000000,13306000,185,0,105299,1101550,0,0,0,0,0,0,0,26625,6656,0,33282,0,1273412,62,,0,0,0,0,0,0,0,"MCF",382836,1025,2.88,2.88,2.81,0.05,19081,,0,0,0,0,0,0,0 "Lubbock City of",11292,1999,"BRANDON","GAS TURBINE","01/01/90","01/01/90",20000,21000,8760,8,139296480,0,1000000,15500000,16500000,825,0,233999,3337924,0,0,0,0,0,0,0,59168,14792,0,73959,0,3719842,27,,0,0,0,0,0,0,0,"MCF",1543387,1018,2.16,2.16,2.12,0.02,11279,,0,0,0,0,0,0,0 "Lubbock City of",11292,1999,"HOLLY","GAS TURBINE","01/01/64","01/01/74",52500,45000,4818,3,21967922,10000,300000,5300000,5610000,107,0,11700,962730,0,0,0,0,0,0,0,2958,740,0,3698,0,981826,45,,0,0,0,0,0,0,0,"MCF",384439,1040,2.5,2.5,2.41,0.04,18200,,0,0,0,0,0,0,0 "Lubbock City of",11292,1999,"HOLLY","STEAM","01/01/65","01/01/78",98000,102000,8760,32,323909370,62000,1000000,21000000,22062000,225,0,818996,9820907,0,0,0,0,0,0,0,207086,51772,0,258858,0,11157619,34,,0,0,0,0,0,0,0,"MCF",3921699,1040,2.5,2.5,2.41,0.03,12592,,0,0,0,0,0,0,0 "Manitowoc Public Utilities",11571,1999,"MPU","Gas-Turbine","01/01/99","01/01/99",25000,0,214,0,3613,290255,201403,6104428,6596086,264,0,0,264472,0,0,0,0,30590,0,0,0,0,0,41325,0,336387,93105,,0,0,0,0,0,0,0,"MCF",51,1000,0.41,0.41,4.17,0.07,0,"Barrels",2438,141200,20.88,20.88,3.52,0.07,0 "Manitowoc Public Utilities",11571,1999,"MPU","Steam","01/01/00","01/01/91",79000,107500,8760,39,249415,211671,5013787,36586533,41811991,529,0,138503,5701868,0,541602,0,0,470467,759564,704,62857,42576,1443126,445568,10944,9617779,38561,"Tons",163852,11080,40.02,40.02,1.81,0.02,0,"MCF",2,1000,0.71,0.71,7.13,0.02,0,,0,0,0,0,0,0,0 "Manitowoc Public Utilities",11571,1999,"MPU","Internal Co","01/01/85","01/01/85",10500,0,207,0,2140,0,352901,5986839,6339740,604,0,6091,84690,0,0,0,0,49736,0,0,0,0,0,58906,0,199423,93188,,0,0,0,0,0,0,0,"MCF",8,1000,0.62,0.62,0.62,0.03,0,"Barrels",1570,141200,22.77,22.77,3.84,0.03,0 "Marquette City of",11701,1999,"Shiras Steam Plant","Steam","01/01/64","01/01/83",77358,52900,24,40,263218000,951797,8431629,56045965,65429391,846,41203,67627,4986648,0,777004,0,0,293702,159196,0,54712,51526,724902,292519,10515,7418351,28,"Tons",181283,9554,21.46,22.7,1.19,0.02,13173,,0,0,0,0,0,0,0,"Barrels",582,138200,20.58,26.46,4.56,0.02,13173 "Marquette City of",11701,1999,"#4 Plant","Gas-Turbine","01/01/79","01/01/79",23000,24700,1,0,5060000,0,300285,4190798,4491083,195,0,4733,283345,0,0,0,0,17195,3952,0,4867,6844,0,27249,40,348225,69,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"Barrels",13164,138200,21.37,23.67,3.68,0.06,15100 "Marshall City of",11732,1999,"Mrshll","Stem/Intern","01/01/36","01/01/94",57000,43,24,56,48751000,313299,4219564,22221117,26753980,469,395259,452378,1560029,0,0,0,0,0,349846,0,37339,40097,532898,65835,0,3038422,62,26848,11000,32,0,0,0,0,0,190844,140000,2,0,0,0,0,0,755,10000,24.17,0,0,0,0,0 "Massachusetts Mun Whls Elec Co",11806,1999,"Stonybrook Intermedil","Combined Cy","01/01/81","01/01/81",360000,352000,12276,33,780857100,1222270,29736068,116789790,147748128,410,161005,341244,19982046,0,0,0,0,1295017,0,0,217695,109254,0,4801314,0,26746570,34,,0,0,0,0,0,0,0,"mcf",5422522,1025,2.75,2.75,2.68,0,0,"barrel",265482,138500,21.33,19.11,3.28,0.01,9096 "Massachusetts Mun Whls Elec Co",11806,1999,"Stonybrook Peaking","Gas Turbine","/ /","/ /",170000,170000,620,33,40304600,457327,10488903,45433687,56379917,332,41438,85682,1683238,0,0,0,0,251375,0,0,16235,17343,0,119640,0,2173513,54,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"barrel",86543,138500,21.33,19.45,3.34,0.04,12490 "McPherson City of",12208,1999,"Power Plant 3","Gas Turbine","01/01/98","01/01/98",115600,92000,851,5,32881000,95000,0,25388890,25483890,220,483472,16336,1488284,0,0,0,0,2781,65038,0,8158,7240,0,77867,59525,1725229,52,,0,0,0,0,0,0,0,"mcf",454570,1012,3.19,3.19,3.16,4.5,14233,"bbl",1154,129200,0.39,0.39,3.06,3.42,11185 "McPherson City of",12208,1999,"Gas Turbine 2","Gas Turbine","01/01/76","01/01/76",56,51000,90,5,2234000,0,0,5867669,5867669,104780,0,16153,125470,0,0,0,0,120168,30978,0,8157,0,0,109601,61288,471815,211,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"bbl",5874,129200,0.51,0.51,3.95,5.64,14268 "McPherson City of",12208,1999,"Gas Turbine 3","Gas Turbine","01/01/79","01/01/79",57,50000,416,5,11756000,0,0,8189960,8189960,143684,0,16153,502404,0,0,0,0,120168,30977,0,8158,0,0,125268,61288,864416,74,,0,0,0,0,0,0,0,"mcf",167915,1012,3.33,3.33,3.3,4.78,14473,"bbl",63,129200,0.51,0.51,3.95,9,22782 "McPherson City of",12208,1999,"Plant 2","Steam","01/01/63","01/01/63",27200,25000,1054,5,13725000,103203,908048,4415135,5426386,199,42,16153,666001,0,3889,0,0,120168,30978,0,8158,22083,74263,39108,61287,1042088,76,,0,0,0,0,0,0,0,"mcf",173245,1012,3.33,3.33,3.3,4.21,12774,"bbl",0,0,0,0,0,0,0 "McPherson City of",12208,1999,"Gas Turbine 1","Gas Turbine","01/01/73","01/01/73",56400,52000,289,5,10349000,0,0,5796442,5796442,103,0,16153,444620,0,0,0,0,120169,30977,0,8158,0,0,41682,61288,723047,70,,0,0,0,0,0,0,0,"mcf",142295,1012,3.33,3.33,3.3,4.6,13948,"bbl",74,129200,0.51,0.51,3.95,6.37,16124 "Modesto Irrigation District",12745,1999,"Mc Clure","Gas Turbine","01/01/80","01/01/81",142400,114000,458,3,17013650,41196,671200,22702649,23415045,164,0,39428,921989,0,0,0,0,64862,0,0,93204,0,0,143571,0,1263054,74,,0,0,0,0,0,0,0,"MCF",184791,1,2.85,2.85,2.79,0.04,14761.28,"BBl",9827,139269,36.12,36.12,0,0.09,15255.06 "Modesto Irrigation District",12745,1999,"Woodland","Gas Turbine","01/01/93","01/01/93",56000,50400,3047,11,112459100,734117,28375,53064895,53827387,961,0,276493,3266313,0,0,0,0,513943,0,0,1528,0,0,410220,0,4468497,40,,0,0,0,0,0,0,0,"MCF",1012876,1,3.02,3.02,2.96,0.03,9186.75,,0,0,0,0,0,0,0 "Menasha City of",12298,1999,"Menasha","Steam","01/01/49","01/01/64",23400,19595,2037,14,13992,6795,1217617,5289233,6513645,278,20649,40246,27120,0,79885,0,0,60710,95780,0,0,31581,159677,52699,457,548155,39176,"TONS",6898,13928,56.5,56.5,2.02,0.03,15599,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Michigan South Central Pwr Agy",12807,1999,"ENDICOTT","STEAM",,,60000,60000,7000,52,254166000,1446080,18162501,58822650,78431231,1307,914746,337766,5265494,0,924558,0,35080,360832,450758,0,195457,66358,661707,192331,74782,8565123,34,"TONS",137701,12027,37.16,36.29,1.51,0.01,12748,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Moorhead City of",12894,1999,"Mhd Power Plant","gas turbine","01/01/61","01/01/61",10000,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Morgan City City of",12927,1999,"Joe Cefalu Plant","Steam","01/01/62","01/01/73",70000,40000,0,14,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Muscatine City of",13143,1999,"MUSCATINE","STEAM","01/01/58","01/01/83",275500,149900,16238,134,1301983501,784560,72060043,213242536,286087139,1038,28455966,817203,14751640,0,1679994,0,0,663199,1356159,0,672523,554305,2370831,1148168,1101042,25115064,19,"TONS",877820,8297,12.88,13.05,0.79,0.01,11188,"MCF",283208,10200,3.26,3.26,3.18,0,0,"BARRELS",610,138500,30.04,21.9,3.77,0,0 "Nebraska Public Power District",13337,1999,"Hallam Peaking Unit","Gas Turbine","01/01/73","01/01/73",56700,60000,258,0,10894000,0,229583,4830489,5060072,89,0,0,440985,0,0,0,0,60635,0,0,0,89639,0,94772,13125,699156,64,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Nebraska Public Power District",13337,1999,"Canaday","Steam","01/01/58","01/01/58",108800,121200,2001,14,85089000,0,9403261,329722,9732983,89,328840,152096,2125397,0,407076,0,0,27245,201168,0,32073,131835,231925,109745,195984,3614544,42,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Nebraska Public Power District",13337,1999,"Gerald Gentleman Sta(","Steam","01/01/78","/ /",1362600,1254000,8657,192,8027362000,3015802,318185462,344602325,665803589,489,19495116,1045932,44726329,0,1955325,0,0,1668527,2934342,193314,448908,877355,10569506,3498868,1294889,69213295,9,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Nebraska Public Power District",13337,1999,"McCook Peaking Unit","Gas Turbine","01/01/73","01/01/73",56700,56000,60,0,211000,0,194256,4595530,4789786,84,0,0,81476,0,0,0,0,25734,0,0,0,2300,0,73703,18199,201412,955,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Nebraska Public Power District",13337,1999,"Hebron Peaking Unit","Gas Turbine","01/01/73","01/01/73",56700,57000,75,0,854000,0,301381,5462494,5763875,102,0,0,181334,0,0,0,0,26759,0,0,0,1630,0,58749,11328,279800,328,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Nebraska Public Power District",13337,1999,"Cooper Nuclear Stat.(","Nuclear","01/01/74","01/01/74",835550,783000,8563,726,6510414600,1028504,187460511,519340650,707829665,847,2508133,8619618,38176410,69343,4859991,0,0,93589,58078357,0,1807073,518308,3317219,1964536,2016373,119520817,18,,20216418,0,0,5.67,53.53,0,10598,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Nebraska Public Power District",13337,1999,"Sheldon Station","Steam","01/01/61","01/01/65",228650,220000,8701,78,1347971000,1843119,10754821,79036432,91634372,401,5634223,590917,10462420,0,930249,0,0,633786,1478748,0,168336,7310,2160302,1295964,920587,18648619,14,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "New Ulm Public Utilities Comm",13488,1999,"No 3 & 4 & 6","Steam Gener","01/01/02","01/01/64",27000,44000,24,21,16916000,0,3055780,9310761,12366541,458,473090,425178,467864,0,0,0,0,0,0,0,0,31350,152102,138437,0,1214931,72,"tons",0,0,0,0,0,0,0,"mcf",16576,1000,2.82,2.82,2.82,0.03,10,,0,0,0,0,0,0,0 "New Ulm Public Utilities Comm",13488,1999,"No 5","Gas Turbine","01/01/75","01/01/75",24000,24000,24,21,2041000,0,0,2465211,2465211,103,0,22377,91296,0,0,0,0,0,0,0,0,1650,0,14351,0,129674,64,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"barrel",4657,140000,26.02,19.6,3.36,0.05,13500 "North Attleborough Town of",13679,1999,,,,,0,0,0,0,0,0,0,0,0,326,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,32,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "North Attleborough Town of",13679,1999,,,,,0,0,0,0,0,0,0,0,0,336,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,33,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "North Carolina Eastern M P A",13687,1999,"Roxboro 4","Steam","01/01/66","01/01/80",96000,0,8175,0,520837921,1000,1011000,44494000,45506000,474,72000,48000,9137000,0,80000,0,0,22000,837000,0,67000,17000,475000,136000,53000,10872000,21,"Tons",211870,12369,42.51,42.95,1.74,0.02,10083,,0,0,0,0,0,0,0,"Barrels",1763,140091,22.71,21.55,3.66,0,0 "North Carolina Eastern M P A",13687,1999,"Mayo 1","Steam","01/01/83","01/01/83",119000,761,7807,69,651982032,3301000,16199000,82569000,102069000,858,26000,92000,11843000,0,79000,0,0,54000,1174000,0,76000,30000,808000,111000,73000,14340000,22,"Tons",265246,12531,44.52,44.47,1.77,0.02,10243,,0,0,0,0,0,0,0,"Barrels",5203,140620,21.57,9.23,1.56,0,0 "North Carolina Eastern M P A",13687,1999,"Roxboro 4","Steam","01/01/66","01/01/80",96000,0,8175,0,520837921,1000,1011000,44494000,45506000,474,72000,48000,9137000,0,80000,0,0,22000,874000,0,67000,17000,475000,136000,53000,10909000,21,"Tons",211870,12369,42.51,42.95,1.74,0.02,10083,,0,0,0,0,0,0,0,"Barrels",1763,140091,22.7,21.55,3.66,0,0 "North Carolina Eastern M P A",13687,1999,"Mayo 1","Steam","01/01/00","01/01/00",119000,761,7807,69,651982032,3301000,16199000,82569000,102069000,858,26000,92000,11843000,0,79000,0,0,54000,1221000,0,76000,30000,808000,111000,73000,14387000,22,"Tons",265246,12531,44.52,44.47,1.77,0.02,10243,,0,0,0,0,0,0,0,"Barrels",5203,140620,21.57,9.23,1.56,0,0 "North Carolina Eastern M P A",13687,1999,"Brunswick","Nuclear","01/01/75","01/01/77",318000,1696,8584,784,2400008776,617000,94117000,339616000,434350000,1366,297000,666000,11776000,401000,2353000,0,0,533000,9457000,0,1849000,3278000,1064000,298000,1353000,33028000,14,"MW Days",308602,3413000,0,38.16,0.47,0,10533,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "North Carolina Eastern M P A",13687,1999,"Harris","Nuclear","01/01/87","01/01/87",154000,905,8485,491,1171376626,10260000,369018000,452494000,831772000,5401,118000,675000,5246000,252000,1018000,0,0,337000,4827000,0,1102000,634000,445000,182000,302000,15020000,13,"MW Days",156551,3413000,0,33.51,0.41,0,10947,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Oklahoma Municipal Power Auth",14077,1999,"PCRP","Combined cy","01/01/95","01/01/95",60000,60000,0,0,138484081,0,11344757,29655189,40999946,683,0,598783,2955212,0,0,0,0,253386,0,0,44427,0,0,105374,0,3957182,29,,0,0,0,0,0,0,0,"MCF",1392824,1040,2.17,0,2.14,0.02,10460,,0,0,0,0,0,0,0 "Omaha Public Power District",14127,1999,"FORT CALHOUN","NUCLEAR","01/01/73","01/01/73",502000,492000,7785,634,3580681000,1072930277,146516232,296914274,442618959,882,0,4971003,23034948,164893,24110476,0,0,-21786,44474249,3358,250883,11195901,6710538,736065,-37917,115592611,32,,0,0,0,0,0,0,0,"GRAMS",315984,120828860,0,72.9,60.33,6.42,10650.7,,0,0,0,0,0,0,0 "Omaha Public Power District",14127,1999,"SARPY COUNTY","GAS TURBINE","01/01/72","01/01/96",216405,248000,8271,0,55696000,23490,2151281,52951321,55126092,255,0,54073,2103596,0,0,0,0,0,404211,0,3965,2988,0,310603,72329,2951765,53,,0,0,0,0,0,0,0,"MCF",707344,823,2.46,2.46,2.49,0.04,12745,"BARRELS",3829,138176,17.91,17.91,1.41,0.01,8647 "Omaha Public Power District",14127,1999,"JONES STREET","GAS TURBINE","01/01/73","01/01/74",116000,129400,8332,0,4369000,0,240081,9753334,9993415,86,0,6331,293819,0,0,0,0,0,47413,0,6227,3925,0,20535,134815,513065,117,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"BARRELS",13267,138176,13.48,13.48,2.32,0.04,9604 "Omaha Public Power District",14127,1999,"NEBRASKA CITY","STEAM","01/01/79","01/01/79",565000,631500,7500,0,4036035000,-2006108,95061544,382545074,475600510,842,0,779178,25569961,0,1719974,0,0,633248,6781672,0,412434,994984,3789696,1154076,1789468,43624691,11,"TONS",2500212,8357,9.58,9.58,0.57,0,9500,,0,0,0,0,0,0,0,"BARRELS",9924,138281,20.11,20.11,3.46,0,9493 "Omaha Public Power District",14127,1999,"NORTH OMAHA","STEAM","01/01/54","01/01/68",644700,664700,7628,0,3047689000,903939,34352799,194479388,229736126,356,0,473699,25644165,0,1556034,0,0,1205626,5794175,56855,619731,1383677,5536481,4204373,2068776,48543592,16,"TONS",1996018,8393,11.99,11.99,0.71,0,11245,"MCF",706934,988,3.06,3.06,5.95,0,11266,,0,0,0,0,0,0,0 "Orrville City of",14194,1999,,"Steam","01/01/16","01/01/71",84,57,8760,65,330508,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,"ton",195800,11500,0,0,0,0,0,"mcf",6100,1000,0,0,0,0,0,,0,0,0,0,0,0,0 "Owatonna City of",14246,1999,,"Steam","01/01/24","01/01/69",26000,0,0,0,0,139199,957861,5646398,6743458,259,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Owatonna City of",14246,1999,,"Gas Turbine","/ /","/ /",19000,0,0,0,0,0,0,1935528,1935528,102,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Owensboro City of",14268,1999,"Plant 1","Steam","01/01/39","01/01/50",52500,0,0,0,0,0,2061142,4570567,6631709,126,0,0,0,0,0,0,0,0,0,9106,0,0,0,0,760,9866,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Owensboro City of",14268,1999,"Elmer Smith","Steam","01/01/64","01/01/74",415000,183200,8569,99,2600771,835345,8832392,209611123,219278860,528,801542,250280,29285825,0,1422865,0,0,496091,498805,0,465966,39935,4297784,658819,98181,37514551,14424,"Tons",1247843,10825,20.49,20.56,0.95,0.01,10197,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Painesville City of",14381,1999,"ELECTRIC PLANT","STEAM",,"01/01/88",53500,46000,8760,66,154647000,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,"TONS",92400,12517,0,33.22,1.33,0,0,"MCF",21300,1000,0,4.41,4.41,0,0,"BARRELS",47,138000,0,14.36,2.48,0,0 "Paragould Light & Water Comm",14446,1999,"Jones Road","Gas turbine","01/01/90",,16,14,415,1,400000,0,8093740,0,8093740,505859,0,0,166593,0,0,0,0,0,0,0,0,0,0,45047,0,211640,529,"mmbtu",91074,0,0,1.83,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Pasadena City of",14534,1999,"Broadway Steam Plantф",,"01/01/54","01/01/65",183000,183000,0,25,179950000,489703,3194316,50159075,53843094,294,0,387760,8839709,0,555006,0,0,988783,11216,228337,138986,37842,440585,136394,7625,11772243,65,,0,0,0,0,0,0,0,"MCF",2295070,1019,3.43,3.43,3.36,0.04,13290,,0,0,0,0,0,0,0 "Pasadena City of",14534,1999,"Glenarm Gas Turbine","Included in","01/01/06","01/01/76",0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"MCF",59150,1,3.43,3.43,3.36,0.04,16342,,0,0,0,0,0,0,0 "Peabody City of",14605,1999,,"Gas Turbine","01/01/71","01/01/91",65900,65900,8760,5,11639468,177260,0,22101467,22278727,338,0,22746,409579,0,0,0,0,0,0,0,0,0,0,176643,0,608968,52,,0,0,0,0,0,0,0,"MCF",143226,1,3.05,2.96,2.89,0.03,13227,"BBLS",1239,134127,22.14,22.89,4.06,0.05,12185 "Peru City of",14839,1999,"Peru","Steam","01/01/03","01/01/59",34500,35563,1585,13,12600568,5739,1706469,9574492,11286700,327,325600,0,442012,0,172164,0,0,119874,37861,0,0,14278,126165,22675,0,935029,74,"Tons",7915,12797,47.4,47.33,1.85,0.03,16076,,0,0,0,0,0,0,0,"Barrels",221,140000,26.47,24.56,4.18,0,103.08 "Piqua City of",15095,1999,"City of Piqua","Steam & Gas","01/01/32","01/01/89",81113,0,159,39,2138000,21863555,0,0,21863555,270,4196219,76685,242280,0,19742,0,0,231157,56432,0,61697,67457,9593,91301,0,856344,401,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"Barrels",10878,144000,25.3,25.3,4.3,0.09,23092 "Platte River Power Authority",15143,1999,"Craig Station","Steam","01/01/79","01/01/80",154000,0,0,0,1205402000,60113,33649805,110581113,144291031,937,947978,194976,12128811,0,1172233,0,0,260695,1245083,7283,237766,121071,814536,181154,912508,17276116,14,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Platte River Power Authority",15143,1999,"Rawhide","Steam","01/01/84","01/01/84",270000,270000,8668,86,2119444000,1977213,176729012,277169671,455875896,1688,1471951,1258343,14119301,0,2361900,0,0,4034357,686346,1872,639188,491650,2599323,371255,1094312,27657847,13,"Ton",1294255,8825,10.4,10.4,0.6,0.01,10.78,,0,0,0,0,0,0,0,"Gallons",54089,138,0.78,0.78,5.63,0,3.5 "Power Authority of State of NY",15296,1999,"C.M. POLETTI","Steam","01/01/77","01/01/77",883000000,831000000,6386000,122000,1826391000,730000,72140000,359400000,432270000,0,10329000,561000,60034000,0,0,0,0,668000,7300000,0,826000,377000,2299000,2700000,411000,75176000,41,,0,0,0,0,0,0,0,"MCFS",10932333,1031,2.95,3.39,3.29,31.61,10284,"BBLS",1348181,148399,15.78,17.33,2.78,0,0 "Power Authority of State of NY",15296,1999,"R.M. FLYNN","GT/Steam-Co","01/01/94","01/01/94",164000000,159000000,7280000,27000,9.96144e+11,0,7238000,129266000,136504000,1,1136000,88000,43602000,0,0,0,0,93000,1585000,0,0,137000,469000,3225000,39000,49238000,0,,0,0,0,0,0,0,0,"MCFS",7095707,1012,4.39,5.62,5.55,42.59,7774,"BBLS",120516,141470,19.98,32.3,4.68,0,0 "Power Authority of State of NY",15296,1999,,,"/ /","/ /",0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Power Authority of State of NY",15296,1999,"JAF","Nuclear","01/01/75","01/01/75",883000000,848000000,8204000,757000,6.567395e+12,805000,166067000,568085000,734957000,1,13913000,23876000,38317000,0,487000,0,0,54000,32618000,0,5766000,184000,4261000,5843000,3143000,114549000,0,"GMU 235",0,82,0,0,0,5.17,0,"Equivalent",842735,0,0,40.32,0.49,0,10508,,0,235,0,0,0,0,0 "Power Authority of State of NY",15296,1999,"IP3","Nuclear","01/01/76","01/01/76",1013000000,1031000000,7662000,828000,7.26917e+12,747000,206897000,755257000,962901000,1,17924000,29680000,39545000,0,11264000,0,0,0,36622000,0,1577000,2648000,15765000,11868000,29759000,178728000,0,"GMU235",0,82,0,0,0,4.76,0,"Equivalent",937453,0,0,36.9,0.45,0,10560,,0,235,0,0,0,0,0 "Rantoul Village of",15686,1999,"Rantoul Light & Powep ","Internal Co","01/01/00","01/01/67",18132,38,100,3,16000,0,0,0,0,0,0,0,11984,0,0,0,0,211546,0,0,0,0,0,0,0,223530,13971,,0,0,0,0,0,0,0,"Gallons",19070,10500,0.62,0.62,0,0,0,,0,0,0,0,0,0,0 "Reedy Creek Improvement Dist",15776,1999,"CEP TURBINE","GAS TURBINE","01/01/88","01/01/88",35000,28000,6321,12,173569000,0,1455178,24161379,25616557,732,0,640027,4274368,0,0,0,0,392603,0,0,0,341,0,1449579,0,6756918,39,,0,0,0,0,0,0,0,"MCP",1545973,1040,2.76,2.76,2.76,0.02,8007,,0,0,0,0,0,0,0 "Reedy Creek Improvement Dist",15776,1999,"CEP HRSG","HRSG","01/01/88","01/01/88",8500,7000,2327,2,30042000,0,0,2731920,2731920,321,0,93944,742496,0,115993,0,0,17882,0,0,0,59,0,247253,0,1217627,41,,0,0,0,0,0,0,0,"MCF",268549,1049,2.76,2.76,2.76,0.02,8939,,0,0,0,0,0,0,0 "Redding City of",15783,1999,"Redding Power Plant","Steam","01/01/89","01/01/94",28000,28900,1977,16,18060300,602377,15385522,117247,16105146,575,0,1320,443065,0,117993,0,0,77221,568426,0,70690,2368,53194,57222,0,1391499,77,,0,0,0,0,0,0,0,"mcf",287348,1027,1.54,1.54,1.45,0.03,16610,,0,0,0,0,0,0,0 "Redding City of",15783,1999,"Redding Power Plant","Combustion","01/01/96","01/01/96",65680,27400,854,16,18037300,1807131,0,59683477,61490608,936,0,97874,621818,0,0,0,0,25071,0,0,24410,0,0,321071,0,1090244,60,,0,0,0,0,0,0,0,"mcf",216279,1027,2.53,2.53,2.18,0.02,15570,,0,0,0,0,0,0,0 "Richmond City of",15989,1999,"WWVS","Steam","01/01/55","01/01/72",97700,173080,0,40,627786010,80644,2830371,31698586,34609601,354,0,465409,11078167,0,452274,0,0,404016,348230,0,104865,43599,701670,259774,21756,13879760,22,"Tons",308831,11699,29.73,30.79,1.45,0.01,11517,,0,0,0,0,0,0,0,"Barrels",708,138000,0.46,0.46,0,0,0 "Rochelle Municipal Utilities",16179,1999,"Caron Rd Steam Plant(","Steam","01/01/63","01/01/63",11000,0,13,0,62,0,0,11112324,11112324,1010,0,0,15556,0,134143,0,0,0,0,0,0,0,0,193715,0,343414,5538935,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Rochelle Municipal Utilities",16179,1999,"2nd Ave Diesel Plant(","Internal Co","01/01/00","01/01/89",24000,7500,900,8,990,0,0,6076110,6076110,253,0,0,130511,0,520866,0,0,0,0,0,0,0,0,301469,0,952846,962471,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Rochester Public Utilities",16181,1999,"SILVER LAKE","STEAM","01/01/49","01/01/69",98400,99962,6002,48,206169300,467713,5967620,20459364,26894697,273,0,105471,4663327,0,733957,0,0,427195,653639,0,121158,91168,610473,166756,202286,7775430,38,"Tons",105624,11800,35.06,34.95,1.48,0,0,"Mcf",116790,1022,2.87,2.87,2.81,0.02,12548,,0,0,0,0,0,0,0 "Rochester Public Utilities",16181,1999,"CASCADE CREEK","GAS TURBINE","01/01/75","01/01/75",35000,31412,214,0,975100,0,0,2553775,2553775,73,0,5098,155418,0,0,0,0,0,2538,0,712,425,0,13749,25610,203550,209,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"Bbl",6593,140546,25.25,22.87,3.87,0.16,31067 "Ruston City of",16463,1999,,,,,0,0,0,0,158085,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,1024,2014,0,0,0,12204,,0,0,0,0,0,0,0 "Sacramento Municipal Util Dist",16534,1999,"McClellanј","Ga","01/01/86","01/01/86",49999,0,0,3,7166000,0,2636791,21642932,24279723,486,280011,128813,308700,0,0,0,0,93215,0,0,46694,4591,0,454373,0,1036386,145,,0,0,0,0,0,0,0,"MC",90473,0,3.39,3.39,3.28,0.04,0,"Diesel/gal",1254,0,1.43,1.43,0,0,0 "San Antonio Public Service Bd",16604,1999,"Total All Plants",,,,4515000,0,0,345,1.74570025e+10,12977200,1115386160,2245397416,3373760776,747,46882000,12160268,206856386,1142440,9404554,374590,0,6237186,12301280,6685,9401271,2767009,20299658,10510426,3154574,294616327,17,"Tons",5220135,8563,16.23,16.23,0.95,9.82,10370,"MCF",37334239,1010,2.64,2.64,2.62,28.78,10988,"Barrels",12309,139887,18.78,18.78,3.2,32.97,10315 "San Antonio Public Service Bd",16604,1999,"J K Spruce","Steam","1/1/1992","1/1/1992",555000,546000,6546,82,3480720800,0,65252301,515684631,580936932,1047,23719,571470,31109011,0,1807766,51663,0,193515,960889,0,759790,205041,2649188,748621,211926,39268880,11,"Tons",1949398,8860,15.91,15.91,1.01,8.91,9857,"MCF",38851,1008,2.27,2.27,2.25,0,0,,0,0,0,0,0,0,0 "San Antonio Public Service Bd",16604,1999,"Mission Road","Steam","1/1/1909","1/1/1958",100000,96000,436,4,5787800,24329,2488463,10241714,12754506,128,128349,114144,487728,0,158813,0,0,102150,168983,0,21233,17234,339856,83899,40097,1534137,265,,0,0,0,0,0,0,0,"MCF",134106,1013,3.64,3.64,3.59,84.27,14024,,0,0,0,0,0,0,0 "San Antonio Public Service Bd",16604,1999,"Leon Creek","Steam","1/1/1949","1/1/1959",160000,171000,676,4,16974100,44831,2782361,17503846,20331038,127,157506,125267,942872,0,184569,0,0,128819,161398,0,28472,58566,543819,190400,43539,2407721,142,,0,0,0,0,0,0,0,"MCF",258204,1002,3.65,3.65,3.64,55.55,12533,,0,0,0,0,0,0,0 "San Antonio Public Service Bd",16604,1999,"O W Sommers","Steam","1/1/1972","1/1/1974",880000,846000,7232,55,2199508300,5854171,33295035,79674715,118823921,135,395537,545083,59562142,0,1025490,87705,0,302727,706288,0,702876,370388,615434,259192,190180,64367505,29,,0,0,0,0,0,0,0,"MCF",23626870,1009,2.54,2.54,2.51,27.24,10444,"Barrels",5652,140932,19.35,19.35,3.27,0,0 "San Antonio Public Service Bd",16604,1999,"J T Deely","Steam","1/1/1977","1/1/1978",830000,854000,8760,90,5149460300,0,30290474,285476722,315767196,380,12595000,638478,53085711,0,1562761,85357,0,320680,966629,0,838807,331106,3399637,799226,238550,62266942,12,"Tons",3270737,8389,16.42,16.42,0.98,10.43,10513,,0,0,0,0,0,0,0,"Barrels",5811,141351,18.29,18.29,3.08,0,0 "San Antonio Public Service Bd",16604,1999,"South Texas Project","Nuclear","1/1/1988","1/1/1989",700000,708000,0,0,5399983000,5170385,957819101,1216165845,2179155331,3113,29619638,9121123,23744212,1142440,2798248,0,0,4436896,8134977,6685,6295439,1408553,10346770,6695513,2005195,76136051,14,,0,0,0,0,0,0,0,"MMBTU",56623147,0,0.42,0.42,0.42,4.4,10485,,0,0,0,0,0,0,0 "San Antonio Public Service Bd",16604,1999,"W B Tuttle","Steam","1/1/1954","1/1/1963",425000,351000,2570,25,83806100,116166,6081714,40803880,47001760,111,3029638,407804,3903164,0,659061,0,0,371008,270977,0,137334,47220,945777,460460,131033,7333838,88,,0,0,0,0,0,0,0,"MCF",1126499,1007,3.47,3.47,3.44,46.57,11568,,0,0,0,0,0,0,0 "San Antonio Public Service Bd",16604,1999,"V H Brauning","Steam","1/1/1966","1/1/1970",865000,0,5631,85,1120762100,1767318,17376711,79846063,98990092,114,932613,636899,33301546,0,1207846,149865,0,381391,931139,0,617320,328901,1459177,1273115,294054,40581253,36,,0,0,0,0,0,0,0,"MCF",12149759,1011,2.74,2.74,2.71,29.7,10522,"Barrels",846,122847,18.29,18.29,3.55,0,0 "Seattle City of",16868,1999,"Centralia (8% share)","Steam","01/01/72","01/01/72",107200,32000,0,1,689802000,167213,4462081,22916331,27545625,257,0,186229,12042641,0,56382,0,0,0,1030435,2329,557,0,306392,38323,72862,13736150,20,"Tons",453199,7850,27.6,26.57,1.76,0.02,10315,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Shrewsbury Town of",17127,1999,"PEAKING","INTERNAL CO","01/01/69","01/01/78",13750,0,78,0,1082000,4737,38713,3032851,3076301,224,0,0,58499,0,0,0,0,45786,0,0,42833,0,0,0,0,147118,136,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"OIL",1983,138000,28.45,27.35,4.71,0.05,10622 "Sikeston City of",17177,1999,"SIKESTON POWER PLANT<","STEAM","01/01/81","01/01/81",235000,233000,8443,100,1773464000,2528654,38360820,167291312,208180786,886,3085679,204618,18720527,0,834479,0,0,232178,1031476,0,212026,97405,1771411,163729,1555715,24823564,14,"TONS",1085410,8260,16.81,16.81,1.02,0.01,10111,,0,0,0,0,0,0,0,"BARRELS",2150,141000,22.77,24.41,4.12,0,16.31 "PUD No 1 of Snohomish County",17470,1999,"Centralia Steam Plt","Steam",,,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "South Carolina Pub Serv Auth",17543,1999,"WINYAH(1-4)","STEAM","01/01/75","01/01/81",1120000,1204000,31151,198,7364804000,2141000,80365000,380646000,463152000,414,12899000,1811000,102679000,0,2905000,0,0,1172000,4230000,0,835000,1709000,6368000,2320000,450000,124479000,17,"Tons",2805462,12906,35.38,36.6,1.42,1.39,9833,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "South Carolina Pub Serv Auth",17543,1999,"CROSS(1-2)","STEAM","01/01/84","01/01/94",1147115,1190000,14859,156,7031840000,149000,105829000,824295000,930273000,811,8568000,612000,95992000,0,3621000,0,0,562000,3226000,0,331000,462000,7502000,2902000,585000,115795000,16,"Tons",2609876,12811,36.41,36.78,1.44,1.37,9510,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Springfield City of",17828,1999,"INTERSTATE","NAT GAS/OIL","01/01/97","01/01/97",118000,114000,864,0,89431266,0,0,11583325,11583325,98,2178709,40002,2621094,0,91,0,0,0,0,0,38739,0,0,77237,0,2777163,31,,0,0,0,0,0,0,0,"DKTHRMS",1205210,100000,2.08,2.08,2.08,28.74,13806,"BARRELS",5093,138000,17.96,22.11,3.81,52.67,13806 "Springfield City of",17828,1999,"FACTORY","OIL TURBINE","01/01/73","01/01/73",23000,17000,155,0,3128000,0,29188,2322399,2351587,102,0,0,166375,0,0,0,0,0,0,0,0,0,0,11905,0,178280,57,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"BARRELS",7959,138000,18.43,20.9,3.61,53.19,14747 "Springfield City of",17828,1999,"REYNOLDS","OIL TURBINE","01/01/70","01/01/70",18000,14000,98,0,1502000,0,155353,2975996,3131349,174,0,0,89354,0,539,0,0,0,0,0,0,0,0,13975,0,103868,69,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"BARRELS",4241,138000,19.02,21.07,3.64,59.49,16366 "Springfield City of",17828,1999,"LAKESIDE","STEAM","01/01/60","01/01/64",76000,66000,4842,0,191454930,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,"TONS",119179,10437,24.15,22.89,1.1,13.33,12994,,0,0,0,0,0,0,0,"BARRELS",784,138000,20.26,20.76,3.58,0,0 "Springfield City of",17828,1999,"DALLMAN","STEAM","01/01/68","01/01/78",441000,324000,8756,209,1931782345,2315629,22827681,167456590,192599900,437,2590219,1382828,24106633,0,7228992,0,0,0,0,224260,1367568,1520197,3381012,3887022,2944868,46043380,24,"TONS",947286,10415,24.07,22.37,1.07,11.37,11338,,0,0,0,0,0,0,0,"BARRELS",8185,138000,18.13,20.92,3.61,0,0 "Springfield City of",17833,1999,"James River Gas Turb¬ ","Gas Turbine","01/01/89","01/01/92",150000,162000,1707,2,112871000,0,0,38867000,38867000,259,0,0,3686000,0,0,0,0,0,0,0,0,5000,0,185000,0,3876000,34,,0,0,0,0,0,0,0,"Mcf",1413185,1005,2.58,2.58,2.56,32.66,12708,"Barrels",1933,138200,17.18,20.23,3.49,0,0 "Springfield City of",17833,1999,"Southwest Gas Turbin","Gas Turbine","01/01/83","01/01/83",88000,114000,740,2,33605000,0,77000,13480000,13557000,154,0,0,1234000,0,0,0,0,4000,0,0,0,0,0,160000,0,1398000,42,,0,0,0,0,0,0,0,"Mcf",467515,1005,2.6,2.6,2.59,36.7,14123,"Barrels",814,138200,17.21,19.54,3.37,0,0 "Springfield City of",17833,1999,"Main Avenue","Gas Turbine","01/01/68","01/01/68",12000,13000,55,1,680000,0,0,1538000,1538000,128,0,0,46000,0,0,0,0,0,0,0,0,0,0,4000,0,50000,74,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"Barrels",1981,138200,24.82,23.44,4.03,68.28,16910 "Springfield City of",17833,1999,"James River","Steam","01/01/57","01/01/70",255000,237000,33862,81,1450754000,1659000,14631000,79255000,95545000,375,2850000,583000,20746000,0,2519000,0,0,408000,262000,0,130000,65000,3963000,646000,610000,29722000,20,"Tons",853266,9210,7.79,21.61,1.17,13.89,11312,"Mcf",689975,1005,2.49,2.49,2.47,0,0,,0,0,0,0,0,0,0 "Springfield City of",17833,1999,"Southwest","Steam","01/01/76","01/01/76",195000,183000,7556,65,1185498000,1856000,15406000,80315000,97577000,500,2690000,558000,14080000,0,1555000,0,0,366000,205000,0,581000,137000,2335000,656000,1027000,21332000,18,"Tons",693360,8794,4.54,18.33,1.08,11.66,10684,"Mcf",467597,1007,2.39,2.39,2.36,0,0,,0,0,0,0,0,0,0 "St George City of",17874,1999,"SUGARLOAF","2-Internal","01/01/86","01/01/86",14000,14000,1,6,626000,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "St George City of",17874,1999,"Bloomington","7-Internal","01/01/98","01/01/98",12250,10500,1,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Tacoma City of",18429,1999,"Centralia Steam Plntд","Steam","01/01/72","01/01/72",0,0,0,0,0,166897,4289405,25226129,29682431,0,73131,68311,11716542,0,112000,0,0,80230,140403,0,120346,80230,1008476,240691,26146,13593375,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Tallahassee City of",18445,1999,"SAM O. PURDOM","STEAM","01/01/58","01/01/66",44000,48000,11136,38,209772978,15500,9202970,33194960,42413430,964,0,773581,8940370,0,537020,0,0,279940,1813670,2800,263170,105370,237360,129170,194990,13277441,63,,0,0,0,0,0,0,0,"Mcf",2462334,1148,3.22,3.22,3.07,0.04,13261,"bbl",31211,6300,20.25,20.25,3.21,0.08,20734 "Tallahassee City of",18445,1999,"SAM O. PURDOM","GAS TURBINE","01/01/63","01/01/64",25000,20000,415,0,6838100,0,516700,3207630,3724330,149,0,37110,0,0,0,0,0,0,0,0,27080,0,0,0,0,64190,9,,0,0,0,0,0,0,0,"Mcf",135368,1047,3.22,3.22,3.08,0.06,20734,"bbl",0,0,0,0,0,0,0 "Tallahassee City of",18445,1999,"A.D. HOPKINS","STEAM","01/01/71","01/01/72",334350,314000,8760,54,1431868500,243700,15462840,61918010,77624550,232,0,365600,47652750,0,808720,0,0,334300,1440890,0,286010,23770,76650,588440,570760,52259040,36,,0,0,0,0,0,0,0,"Mcf",14643073,1052,3.16,3.16,3,0.03,10001,"bbl",31324,6300,20.39,20.39,3.24,0.03,10228 "Tallahassee City of",18445,1999,"A.D. HOPKINS","GAS Turbine","01/01/00","01/01/72",43320,36000,870,0,21124800,0,0,4237440,4237440,98,0,109010,0,0,0,0,0,0,0,0,117890,0,0,0,0,226900,11,,0,0,0,0,0,0,0,"Mcf",398330,1148,3.2,3.2,3.06,0.06,19763,"bbl",0,0,0,0,0,0,0 "Taunton City of",18488,1999,"Cleary-Flood","Steam-Gas T","01/01/71","01/01/76",110000,110000,3132,54,156001000,576884,4698715,37144991,42420590,386,791678,791678,5245790,0,1114114,0,0,533566,1685023,0,0,0,0,0,0,9370171,60,,0,0,0,0,0,0,0,"MCF",972473,1018,4.2,4.2,4.12,0.13,30320,"Barrels",75356,117188,16.96,15.46,3.14,0.01,3007 "Taunton City of",18488,1999,"W. Water Street","Steam","01/01/02","01/01/58",13500,0,0,0,0,24173,3733601,5419707,9177481,680,0,0,0,0,0,0,0,0,0,0,1188,0,0,0,0,1188,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Taunton City of",18488,1999,"Cleary-Flood","Steam","01/01/66","01/01/66",28300,25000,354,54,9067000,148310,2028703,7526961,9703974,343,0,249139,355473,0,342596,0,0,168675,368569,0,0,0,0,0,0,1484452,164,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"Barrels",20281,95484,15,17.52,4.37,0.04,8970 "Texas Municipal Power Agency",18715,1999,"Gibbons Creek SES","Steam","01/01/83","01/01/83",493900,462000,6908,122,2602361000,25930000,158171000,425745000,609846000,1235,3957000,2960000,34144000,0,482000,0,0,300000,111000,0,1160000,322000,2989000,844000,734000,44046000,17,"Tons",1643836,8470,20.78,20.66,1.23,0.01,10711,"MCF",146379,1015,2.35,2.35,2.35,0,0,,0,0,0,0,0,0,0 "Traverse City City of",19125,1999,"Bayside Station","Steam","01/01/12","01/01/68",29000,14000,290,15,3250000,83612,1866905,7544366,9494883,327,0,626829,148366,0,0,0,0,23461,10829,42858,365474,17778,92524,76059,12931,1417109,436,"Tons",2113,12500,43.5,43.5,1.74,0.02,16253.85,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Turlock Irrigation District",19281,1999,"Walnut Power Plant","Gas Turbine","01/01/86","01/01/86",49900,45486,222,2,4176400,0,14724791,181069,14905860,299,0,9273,193510,0,0,0,0,45773,0,0,0,0,0,252574,0,501130,120,,0,0,0,0,0,0,0,"Mcf",70330,1,2.75,2.75,2.7,46.33,17145,"Bbl",0,0,0,0,0,0,0 "Turlock Irrigation District",19281,1999,"Almond Power Plant","Gas Turbine","01/01/95","01/01/95",49900,49900,3162,12,126500000,149270,24481629,30353821,54984720,1102,0,95458,3736849,0,79785,0,0,1827172,0,0,0,523257,0,640938,0,6903459,55,,0,0,0,0,0,0,0,"Mcf",1175749,1,3.18,2.48,2.38,29.54,9446,,0,0,0,0,0,0,0 "Vermont Public Pwr Supply Auth",19780,1999,"J.C. McNeil Station","Steam","01/01/84","01/01/84",50000,53000,5366,35,41562673,79627,4515588,12712285,17307500,346,119308,43331,1497213,0,229588,0,0,81441,92419,0,37321,14987,144967,145773,7437,2294477,55,"tons(wood)",283916,4750,23.48,24.64,2.59,0.03,13455,"mcf",252167,1012000,3.28,3.28,3.25,0.04,12556,"bbl",2124,136321,15.88,21.41,3.74,0,0 "Vernon City of",19798,1999,"Vernon power Plant","Internal Co","01/01/33","01/01/33",30000,19000,0,1,241160,0,0,0,0,0,0,0,18568,0,0,0,0,0,0,0,0,0,0,0,0,18568,77,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"42 gal",624,130952,0,29.75,5.41,0.07,14231 "Vernon City of",19798,1999,"Vernon Power Plant","Gas Turbine","01/01/87","01/01/87",14000,11250,1171150,1,117150,0,0,0,0,0,0,0,62378,0,0,0,0,0,0,0,0,0,0,0,0,62378,532,,0,0,0,0,0,0,0,"MCF",1031,0,22683.2,2.75,2.66,0.05,19986,,0,0,0,0,0,0,0 "Vero Beach City of",19804,1999,"City of Vero Beach","Steam","01/01/59","01/01/92",158000,151000,8804,41,224236,3059208,26587907,49708983,79356098,502,5414436,1818902,11418,0,0,0,0,647002,0,0,808280,685525,0,1428535,0,5399662,24080,,0,0,0,0,0,0,0,,2318953,1051,3.87,3.87,3.69,0.04,11858,,45055,144840,18.97,18.97,3.12,0.04,14119 "Vineland City of",19856,1999,"Harry M. Downs","Steam","01/01/00","01/01/70",66250,57100,5104,41,50663680,102765,6943679,34504958,41551402,627,0,194475,1693950,0,506222,0,0,630731,1378637,0,137240,12568,459914,91094,2412,5107243,101,"Tons",16966,12734,49.33,49.07,1.9,0.03,13621,,0,0,0,0,0,0,0,"Gallons",2206466,152654,0.35,0.35,2.49,0.03,12734 "Energy Northwest",20160,1999,"Nuclear Plant # 2","Nuclear","01/01/72","01/01/84",1200000,1163000,6519,1018,6975110000,0,1096311831,2199928002,3296239833,2747,38664908,18739254,30590701,2894774,12309953,0,0,75427,21147467,0,3819721,545674,1021005,2269200,18016550,111429726,16,"Grms U-235",726798,4.55e+10,32.01,42.09,41.9,4.39,10460.08,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Western Minnesota Mun Pwr Agny",20421,1999,"Watrtown Power Plant? ","Gas Turbin","01/01/78","01/01/78",60000,42,0,2,2254000,0,0,16335022,16335022,272,39000,17392,54938,0,0,0,0,0,3375,0,0,42360,0,102001,663,220729,98,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,"Barrels",7508,0,28.37,24.9,0,0.83,0 "Willmar Municipal Utils Comm",20737,1999,"WILLMAR","STEAM","01/01/00","01/01/70",29350,17500,6239,17,26618660,110447,878898,6858792,7848137,267,13984,40591,1085227,0,259713,0,0,318116,132083,5000,40431,2416,288530,102454,0,2020002,76,"TONS",32320,8600,26.74,33.58,1.95,0.04,17555,"MCF",28158,1022,2.4,2.4,2.4,0,0,,0,0,0,0,0,0,0 "Winfield City of",20813,1999,"EAST","STEAM","01/01/69","01/01/69",26500,0,0,12,24657,134138,2513749,6029328,8677215,327,1429863,315408,850195,0,0,0,0,0,152329,0,0,0,0,0,0,1317932,53451,,0,0,0,0,0,0,0,"Mcf",356043,1,2.39,2.39,2.39,0.03,0.01,,0,0,0,0,0,0,0 "Winfield City of",20813,1999,"WEST","GAS TURBINE","01/01/61","01/01/61",11500,0,0,1,2972500,0,157556,2719909,2877465,250,97445,56898,232145,0,0,0,0,0,31724,0,0,0,0,0,0,320767,108,,0,0,0,0,0,0,0,"Mcf",58535,1,2.39,2.39,2.39,0.03,0.01,".",0,0,0,0,0,0,0 "Wyandotte Municipal Serv Comm",21048,1999,"Wyandotte","Steam # 6","01/01/67",,7500,0,0,40,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Wyandotte Municipal Serv Comm",21048,1999,"Wyandotte","Steam # 7","01/01/86",,32500,34500,0,40,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Wyandotte Municipal Serv Comm",21048,1999,"Wyandotte","Total Plant","01/01/15","1/1/1986",74000,70000,17360,40,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Wyandotte Municipal Serv Comm",21048,1999,"Wyandotte","Steam # 4","01/01/49",,11500,11000,1320,40,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Wyandotte Municipal Serv Comm",21048,1999,"Wyandotte","Steam # 5","01/01/59",,22500,24500,8120,40,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Zeeland City of",21158,1999,"Zeeland Plant","Internal Co","01/01/36","01/01/80",22182,20100,6642,9,10671685,233107,958741,7490195,8682043,391,39130,160274,324998,0,0,0,0,0,0,0,130885,11183,123764,0,0,751104,70,,0,0,0,0,0,0,0,"Mcf",110179,1025,2.66,2.66,2.6,25.21,9704.09,"gals",63744,130,0.49,0.49,3.81,3.81,712.06 "Utah Associated Mun Power Sys",40575,1999,"Hunter - Unit II","Steam","01/01/80","01/01/80",62703,65000,8614,0,477394000,24130,12455094,36987524,49466748,789,196762,79885,5146144,0,247463,0,0,117117,474771,220,72026,45503,228073,39173,16505,6466880,14,"Tons",219787,11688,22.14,22.14,0.95,0.01,10767,,0,0,0,0,0,0,0,"Gallons",15134,139950,0,0,0,0,0 "Utah Associated Mun Power Sys",40575,1999,"San Juan - Unit IV","Steam","/ /","/ /",35000,36000,8087,0,277529800,0,6606911,34780439,41387350,1182,330940,146935,4915693,0,99850,0,0,107665,90002,0,45259,27595,322125,62872,54783,5872779,21,"Tons",156254,9223,31,31,1.68,0.02,10404,,0,0,0,0,0,0,0,"Gallons",37096,134772,0,0,0,0,0 "Intermountain Power Agency",40576,1999,,"Steam Inter","01/01/86","01/01/87",1640000,1600000,8760,472,13211071,95806000,859083000,1682967000,2637856000,1608,0,3439000,172897000,0,8441000,0,0,2062000,781000,0,3925000,2091000,9516000,3866000,3110000,210128000,15905,"Tons",5268671,11851,31.12,25.64,1.06,0.01,9457,,0,0,0,0,0,0,0,"Barrels",12309,137273,22.25,26.22,4.55,0,0 "American Mun Power-Ohio Inc",40577,1999,"Richard H. Gorsuch","STEAM","01/01/51","01/01/53",212000,194000,8760,106,1376874,822631,5383169,64333905,70539705,333,62261347,1032894,14712122,0,2153372,0,0,180146,1071556522,0,606713,341707,6319652,1253782,0,24415086,17732,"TON",869869,11581,23.16,23.16,0.88,0.01,13479,"MCF",72788,1040,3.65,3.65,3.5,0.04,13479,,0,0,0,0,0,0,0 "Northern Municipal Power Agny",40581,1999,"COYOTE","STEAM","01/01/81","01/01/81",414588000,0,8150,81,2913837000,0,0,420000000,420000000,1,0,863403,26074593,0,3373195,0,0,1267272,1238167,0,405837,334491,2651805,324789,643962,37177514,13,"TON",2425659,6947,10.64,10.64,0.77,0.89,11.57,"GAL.",236904,136552,0.56,0.56,0,0,0,,0,0,0,0,0,0,0 "Southern Minnesota Mun P Agny",40580,1999,"SHERCO #3","STEAM PLANT","01/01/87",,331954,357000,7219,0,2035404000,0,0,331434191,331434191,998,3571246,1376329,18703611,0,1905690,0,0,392953,4634715,9336,422268,415136,2261396,2483729,678192,33283355,16,"TONS",1161899,8701,16.34,15.53,0.89,0.01,9934,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Michigan Public Power Agency",40582,1999,"Belle River","Steam","01/01/84","01/01/85",0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Michigan Public Power Agency",40582,1999,"Campbell #3","Steam","01/01/80","01/01/80",0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Grand Island City of",40606,1999,"BURDICK","GAS TURBINE","01/01/68","01/01/68",14800,16,76,15,984760,0,0,1554976,1554976,105,0,2286,35784,0,5087,0,0,4586,3641,174,142,374,616,5648,0,58338,59,,0,0,0,0,0,0,0,"MCF",20055,1000,2.26,1.78,1.78,0.04,20365,,0,0,0,0,0,0,0 "Grand Island City of",40606,1999,"PGS","STEAM","/ /","/ /",100000,100000,8410,49,554461278,1708020,24075151,64351183,90134354,901,0,133740,4506550,0,718768,0,0,867378,199672,0,24187,229866,682366,387132,0,7749659,14,"TONS",358870,8391,10.89,12.56,0.75,0.01,10862,,0,0,0,0,0,0,0,,0,0,0,0,0,0,0 "Grand Island City of",40606,1999,"BURDICK","STEAM","01/01/57","01/01/72",92500,55000,2977,15,36138330,376970,3684704,31154613,35216287,381,0,102306,1368110,0,305181,0,0,256501,220102,7223,23106,51661,178024,228731,0,2740945,76,,0,0,0,0,0,0,0,"MCF",504548,1000,2.29,2.71,2.71,0.04,13962,,0,0,0,0,0,0,0 "Northern California Power Agny",40613,1999,"CT 1 (5 Units)","Combustion","01/01/86","01/01/86",124000,0,877,5,22025,981098,1465987,45464256,47911341,386,0,0,917842,0,0,0,0,208067,9810,0,95167,0,0,420321,0,1651207,74970,,0,0,0,0,0,0,0,"MCF",328153,0,2.7,2.7,2.44,0.04,15363,"gal",43800,0,0.43,0.43,0.43,0.04,15400 "Northern California Power Agny",40613,1999,"CT 2 (STIG)","Combustion","01/01/96","01/01/96",49900,0,1502,9,102136,0,0,62901868,62901868,1261,307564,0,2704183,0,0,0,0,120252,34596,0,411336,0,0,1176957,0,4447324,43543,,0,0,0,0,0,0,0,"MCF",914572,0,2.83,2.83,2.33,0.03,9135,,0,0,0,0,0,0,0 "Northern California Power Agny",40613,1999,"Geothermal One","Steam","01/01/83","01/01/83",110000,110540,8301,30,625621000,47873178,43427882,0,91301060,830,133458,764505,20092994,0,0,0,0,1317733,114299,0,286198,163870,39903,901827,786469,24467798,39,,0,0,0,0,0,0,0,"Steam",11071643,1210000,0.93,0.93,0.77,0.02,18504,,0,0,0,0,0,0,0 "Northern California Power Agny",40613,1999,"Geothermal Two","Steam","01/01/86","01/01/86",110000,110540,8207,30,627369000,58362769,52110952,0,110473721,1004,170987,681966,20079701,0,0,0,0,1433824,67816,0,36,101301,24056,451698,784863,23625261,38,,0,0,0,0,0,0,0,"Steam",10898373,1200000,0.93,0.93,0.78,0.02,19066,,0,0,0,0,0,0