Search Results

Searched:  Inventor(s) Must Contain (Spadaccini, Christopher M.)
Sorted By:  Relevance, Descending
Results:  1–7 of exactly 7 matches.
 
Page 1 of 1    
Show only (√) Items Clear all (√) Items Refine Search
  Patent Title Inventor(s) Issue Date Patent Number Full Text
This invention provides a new method for rapidly analyzing single bioparticles to assess their material condition and state of health. The method is enabled by use of a resonant cavity apparatus to measure an optical property related to the bioparticle size and refractive index. Measuring the refractive index is useful for determining material properties of the bioparticle. The material properties depend on the biomolecular composition of the bioparticle. The biomolecular composition is, in turn, dependent on the state of health of the bioparticle. Thus, measured optical properties can be used to differentiate normal (healthy) and abnormal (diseased) states of bioparticles derived from cells or tissues. The method is illustrated with data obtained from a resonator with a gain medium. The invention also provides new methods for making multiple measurements in a single device and detecting, analyzing, and manipulating bioparticles that are much smaller than the wavelength of light.
Laser diode package with enhanced cooling
Deri, Robert J. , Kotovsky, Jack , Spadaccini, Christopher M. 06/26/2012 8,208,509
View USPTO link (Link will open in a new window)
A laser diode package assembly includes a reservoir filled with a fusible metal in close proximity to a laser diode. The fusible metal absorbs heat from the laser diode and undergoes a phase change from solid to liquid during the operation of the laser. The metal absorbs heat during the phase transition. Once the laser diode is turned off, the liquid metal cools off and resolidifies. The reservoir is designed such that that the liquid metal does not leave the reservoir even when in liquid state. The laser diode assembly further includes a lid with one or more fin structures that extend into the reservoir and are in contact with the metal in the reservoir.
Laser diode package with enhanced cooling
Deri, Robert J. , Kotovsky, Jack , Spadaccini, Christopher M. 06/26/2012 8,208,508
View USPTO link (Link will open in a new window)
A laser diode package assembly includes a reservoir filled with a fusible metal in close proximity to a laser diode. The fusible metal absorbs heat from the laser diode and undergoes a phase change from solid to liquid during the operation of the laser. The metal absorbs heat during the phase transition. Once the laser diode is turned off, the liquid metal cools off and resolidifies. The reservoir is designed such that that the liquid metal does not leave the reservoir even when in liquid state. The laser diode assembly further includes a lid with one or more fin structures that extend into the reservoir and are in contact with the metal in the reservoir.
Laser diode package with enhanced cooling
Deri, Robert J. , Kotovsky, Jack , Spadaccini, Christopher M. 09/13/2011 8,018,980
View USPTO link (Link will open in a new window)
A laser diode package assembly includes a reservoir filled with a fusible metal in close proximity to a laser diode. The fusible metal absorbs heat from the laser diode and undergoes a phase change from solid to liquid during the operation of the laser. The metal absorbs heat during the phase transition. Once the laser diode is turned off, the liquid metal cools off and resolidifies. The reservoir is designed such that that the liquid metal does not leave the reservoir even when in liquid state. The laser diode assembly further includes a lid with one or more fin structures that extend into the reservoir and are in contact with the metal in the reservoir.
Laser diode package with enhanced cooling
Deri, Robert J. , Kotovsky, Jack , Spadaccini, Christopher M. 06/12/2012 8,199,787
View USPTO link (Link will open in a new window)
Preparation of membranes using solvent-less vapor deposition followed by in-situ polymerization
O' , Brien, Kevin C , Letts, Stephan A , Spadaccini, Christopher M , Morse, Jeffrey D , Buckley, Steven R , Fischer, Larry E , Wilson, Keith B 07/03/2012 8,211,499
View USPTO link (Link will open in a new window)
A system of fabricating a composite membrane from a membrane substrate using solvent-less vapor deposition followed by in-situ polymerization. A first monomer and a second monomer are directed into a mixing chamber in a deposition chamber. The first monomer and the second monomer are mixed in the mixing chamber providing a mixed first monomer and second monomer. The mixed first monomer and second monomer are solvent-less vapor deposited onto the membrane substrate in the deposition chamber. The membrane substrate and the mixed first monomer and second monomer are heated to produce in-situ polymerization and provide the composite membrane.
Preparation of membranes using solvent-less vapor deposition followed by in-situ polymerization
O'Brien, Kevin C. , Letts, Stephan A. , Spadaccini, Christopher M. , Morse, Jeffrey C. , Buckley, Steven R. , Fischer, Larry E. , Wilson, Keith B. 01/24/2012 8,101,023
View USPTO link (Link will open in a new window)
A system of fabricating a composite membrane from a membrane substrate using solvent-less vapor deposition followed by in-situ polymerization. A first monomer and a second monomer are directed into a mixing chamber in a deposition chamber. The first monomer and the second monomer are mixed in the mixing chamber providing a mixed first monomer and second monomer. The mixed first monomer and second monomer are solvent-less vapor deposited onto the membrane substrate in the deposition chamber. The membrane substrate and the mixed first monomer and second monomer are heated to produce in-situ polymerization and provide the composite membrane.
Preparation of membranes using solvent-less vapor deposition followed by in-situ polymerization
O'Brien, Kevin C. , Letts, Stephan A. , Spadaccini, Christopher M. , Morse, Jeffrey C. , Buckley, Steven R. , Fischer, Larry E. , Wilson, Keith B. 07/13/2010 7,754,281
View USPTO link (Link will open in a new window)
Top
Return to Original Search Page
Page 1 of 1