THE EFFECTS OF HARSH ENVIRONMENTS ON SOLAR CELLS Laura Bruce, Brian Dawes, James Horner, Krupa Patel, Ronak Patel, Nicholas Porto, Steven Scarfone, Olivia.

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Presentation transcript:

THE EFFECTS OF HARSH ENVIRONMENTS ON SOLAR CELLS Laura Bruce, Brian Dawes, James Horner, Krupa Patel, Ronak Patel, Nicholas Porto, Steven Scarfone, Olivia Shabash, Priyanka Shah, Daphne Sun, Jisoo Yoon Advisor: Dr. Paul V. Quinn Sr. Teaching Assistant: Sally J. Warner

NASA Strives for Efficient Solar Cells NASA interested in decay of cells

Solar Cells in Space Variables tested include:  Light intensity  Wavelength  Environmental factors such as radiation, heat, and freezing

Conditions in Space  Average temp: Kelvin (-455˚F)  Sunlight temp: 393 Kelvin (248˚F)  Radiation affects cells

The Photoelectric Effect  Generates current  Increasing light frequency increases electron energy  Increasing electron energy increases current h = Planck’s constant f = frequency E ph = photon energy K = electron energy φ = work function

Doping Silicon  Primary material  Diamond FCC crystalline structure  Doped with boron and phosphorous atoms

Doping Silicon N-Type P-Type

How Solar Cells Work

Apparatus

Baseline Six light bulbs used to create baseline: 65 Watts

Comparing Wavelengths of Light

Comparing Different Intensities

 Liquid nitrogen exists at 77.2 Kelvin (-320.7°F) 77.2 Kelvin (-320.7°F) Freezing Solar Cells

Effects of Freezing

Heating Solar Cells  Avg. temp. of object in sunlight: 248°F  Highest temp. metals reach in space: 500°F

Effects of Heating

Testing Radiation  100 microcurie strontium-90 placed on solar cell  Cells exposed to beta decay (electrons)

Effects of Radiation

Normal solar cell SEM Imaging Frozen solar cell

Heated solar cell SEM Imaging Normal solar cell

Factors that Affect Outcome  Resistance of voltmeters  Extraneous light sources  Overheating  Other damage

Conclusion  Blue Light optimum source  150 W optimum intensity  Heating destroys cells  Freezing may improve performance  Radiation alters cell performance  Framework for future experimentation

Acknowledgments Advisors  Dr. Paul Quinn  Sally Warner Liquid Nitrogen Supplier  Dr. Ryan Z. Hinrichs Directors  Dr. Miyamoto  Dr. Surace

Acknowledgments Thank you to all of our sponsors!  John and Laura Overdeck  The Ena Zucchi Trust  Johnson and Johnson  Jewish Communal Fund  Bristol-Myers Squibb  Bayer HealthCare  The Crimmins Family Charitable Foundation  Novartis  The Edward W. and Stella C. Van Houten Memorial Fund  Roche  Independent College Fund of New Jersey  Corporate Matching Gifts: Alliance Bernstein, AT&T Foundation, Direct Edge, Goldman, Sachs, and Company, Met Life, Microsoft Corporation, Network for Good  NJGSS Alumnae and Parents

Questions?