A transmissive concentrator photovoltaic module with cells directly cooled by silicone oil for solar cogeneration systems

Ji, Yaping; Artzt, Luke E.; Adams, Will; Spitler, Christopher; Islam, Kazi; Codd, Daniel; Escarra, Matthew D.

doi:10.1016/j.apenergy.2021.116622

A transmissive concentrator photovoltaic module with cells directly cooled by silicone oil for solar cogeneration systems

Journal Article · Thu Feb 18 23:00:00 EST 2021 · Applied Energy

DOI:https://doi.org/10.1016/j.apenergy.2021.116622· OSTI ID:1848192

Ji, Yaping ^[1]; Artzt, Luke E. ^[2]; Adams, Will ^[2]; Spitler, Christopher ^[3]; Islam, Kazi ^[2]; Codd, Daniel ^[3]; Escarra, Matthew D. ^[2]

Tulane Univ., New Orleans, LA (United States). Physics and Engineering Physics Dept.; Tulane Univ., New Orleans, LA (United States)
Tulane Univ., New Orleans, LA (United States). Physics and Engineering Physics Dept.
Univ. of San Diego, San Diego, CA (United States). Mechanical Engineering Dept.

Hybrid concentrator photovoltaic-thermal systems can cogenerate electricity and heat by beam-splitting incoming concentrated light onto photovoltaic cells and a thermal receiver to increase total conversion efficiency and potentially reduce system cost. To demonstrate this, we have designed and prototyped a transmissive spectrum-splitting concentrator photovoltaic module that maximizes solar energy conversion by utilizing the entire solar spectrum. Visible light is collected using infrared-transmissive triple-junction photovoltaic cells to achieve an in-band module efficiency of 43.3% for light of wavelength λ < 873 nm, while 44.2% of out-of-band light with λ > 873 nm is transmitted through for collection by a thermal receiver. During testing on a dual-axis tracked parabolic concentrator dish at up to 166 suns, cell temperatures were maintained at 119 °C or below via a novel active cooling method. This cooling system strictly flows silicone oil directly across both sides of the cells, without inhibiting optical transmission, as verified through experimentation and simulation. The module was validated outdoors for 572 sun·hrs, and achieved a maximum thermal receiver temperature of 180 °C. 86.1% of incident solar power is collected at 166 suns average concentration collectively among the electrical, cooling, and thermal receiver subsystems. The remaining 13.9% is lost to mirror reflectivity, dish shadowing, receiver reflection, and thermal losses. The ability to directly cool the cells with an inert silicone oil offers the potential for reduced system cost relative to previous transmissive hybrid concentrator photovoltaic-thermal systems, including microfluidic-cooled designs. This solar cogeneration capability is valuable in a wide range of commercial and industrial applications.

View Accepted Manuscript (DOE)

Research Organization:: Tulane University, New Orleans, LA (United States)

Sponsoring Organization:: USDOE Advanced Research Projects Agency - Energy (ARPA-E); Louisiana Board of Regents

Grant/Contract Number:: AR0000473

OSTI ID:: 1848192

Alternate ID(s):: OSTI ID: 1814561
OSTI ID: 23187354

Journal Information:: Applied Energy, Journal Name: Applied Energy Journal Issue: C Vol. 288; ISSN 0306-2619

Publisher:: ElsevierCopyright Statement

Country of Publication:: United States

Language:: English

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Related Subjects

14 SOLAR ENERGY
Active cooling of photovoltaics
Energy & Fuels
Engineering
Hybrid photovoltaic-thermal systems
Silicone oil
Solar cogeneration
Transmissive photovoltaic modules

A transmissive concentrator photovoltaic module with cells directly cooled by silicone oil for solar cogeneration systems

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References (27)

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