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TECHNICAL PAPERS

Revising and Validating Spectral Irradiance Reference Standards for Photovoltaic Performance Evaluation

[+] Author and Article Information
Daryl R. Myers, Keith Emery

National Renewable Energy Laboratory, 1617 Cole Blvd, Golden, CO 80401

C. Gueymard

174 Bluebird Lane, Bailey, CO 80421e-mail: Chris@SolarConsultingServices.com

J. Sol. Energy Eng 126(1), 567-574 (Feb 12, 2004) (8 pages) doi:10.1115/1.1638784 History: Received April 01, 2003; Revised May 01, 2003; Online February 12, 2004
Copyright © 2004 by ASME
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References

ASTM, 1998, “Standard Test Methods for Electrical Performance of Nonconcentrator Terrestrial Photovoltaic Modules and Arrays Using Reference Cells, Standard E1036.” American Society for Testing and Materials, West Conshohocken, PA.
Osterwald, C. R., 1992, “Photovoltaic Standards Development Within ASTM,” in Photovoltaic Advanced Research and Development Projects, 11th Review Meeting, AIP Conf. Proc. 268, Denver, AIP, New York.
Bird,  R. E., Hulstrom,  R. L., and Lewis,  L. J., 1983, “Terrestrial Solar Spectral Data Sets,” Sol. Energy, 30(6), pp. 563–573.
ASTM, 1987, “Standard Tables for Terrestrial Direct Normal Solar Spectral Irradiance for Air Mass 1.5,” American Society for Testing and Materials, Philadelphia, PA.
ASTM, 1987, “Standard Tables for Terrestrial Solar Spectral Irradiance at Air Mass 1.5 for a 37° Tilted Surface,” American Society for Testing and Materials, Philadelphia, PA.
IEC, 1989, “Photovoltaic Devices: Part 3: Measurement Principles for Terrestrial Photovoltaic (PV) Solar Devices with Reference Spectral Irradiance Data, in IEC 904-3,” International Electro Technical Commission.
ISO, 1992, “Solar Energy—Reference Solar Spectral Irradiance at The Ground at Different Receiving Conditions, Pt. 1,” International Organization for Standardization, Geneva.
ASTM, 1999, “Standard Tables for Reference Solar Spectral Irradiance at Air Mass 1.5: Direct Normal and Hemispherical for a 37° Tilted Surface, Standard G159-99,” American Society for Testing and Materials, West Conshohocken, PA.
Bird, R. E., and Hulstrom, R. L., 1983, “Additional Solar Spectral Data Sets,” Solar Cells, 8 , pp. 85–95.
Kurtz, S., et al. 2000, “Outdoor Rating Conditions for Photovoltaic Modules and Systems,” Solar Energy Materials Solar Cells, 62 , pp. 379–391.
Myers, D., et al. 1999, “Objective Method for Selecting Outdoor Reporting Conditions for Photovoltaic Performance,” in Solar ’99, American Solar Energy Society, Boulder, CO.
Myers, D. R., et al. 2000, “Outdoor Meteorological Broadband and Spectral Conditions for Evaluating Photovoltaic Modules,” in 28th Photovoltaic Specialists Conf., Anchorage, AK: IEEE.
ASTM, 2000, “Standard Solar Constant and Air Mass Zero Solar Spectral Irradiance Tables Standard E-490-00,” American Society for Testing and Materials West Conshohocken, PA.
Blättner, W., 1983, Utilization instruction for the BRITE Monte-Carlo procedure, Radiation Research Associates, Fort Worth, TX.
Wehrli, C., 1985, “Extraterrestrial Solar Spectrum, Pub. No. 615,” World Radiation Center, Davos, Switzerland.
Anon, 1976, “U.S. Standard Atmosphere,” 1976, Washington, DC: NOAA/NASA/USAF. http://nssdc.gsfc.nasa.gov/space/model/atmos/us_standard.html
Shettle, E. P., and Fenn, R. W., 1975, “Models of the Atmospheric Aerosol and their Optical Properties,” in AGARD Conf. No. 183: Optical Propagation in the Atmosphere; Electronic Wave Propagation Panel Symposium. Lyngby, Denmark.
Gonzalez, C. C., and Ross, R. G., 1980, “Performance Measurement Reference Conditions for Terrestrial Photovoltaics,” in International Solar Energy Society, Phoenix AZ, International Solar Energy Society.
NREL, 1995, “Final Technical Report National Solar Radiation Data Base (1961-1990) NREL TP-463-5784,” National Renewable Energy Laboratory, Golden, CO.
Whitaker, C., et al. 1991, “Effects of Irradiance and other Factors on PV Temperature Coefficients,” in 22nd PV Specialists Conference, Las Vegas, NV, Institute of Electrical and Electronics Engineers.
Bird, R., Hulstrom, R., and Riordan, C., 1985, “Normalization of Direct Beam Spectral Irradiance Data for Photovoltaic Cell Performance Analysis,” Solar Cells, 14 , pp. 193–195.
Emery,  K., 1999, “The Rating of Photovoltaic Performance,” IEEE Electron Device Lett., 46, pp. 1928–1931.
Pearsall, N. M., Emery, K. A., and Davies, M., 1986, “Influence of Reference Cell and Spectrum on the Measurement of Solar Cells,” in 7th European PV Solar Energy Conf., Sevilla, Spain.
Riordan,  C., , 1989, “Spectral Solar Radiation Data Base at SERI,” Sol. Energy, 42, pp. 67–79.
Osterwald, C., et al. 1990, “Primary Reference Cell Calibrations at SERI: History and Methods,” in 21st Photovoltaic Specialists Conf., Kissimimee: IEEE.
Gueymard, C., 2001, “Spectral Models, in Solar Energy—The State of the Art,” J. Gordon, Editor, James & James Publ., London. pp. 527–531.
McClatchey, R. A., 1979, “Atmospheric Transmission Models and Measurements,” in Atmospheric Effects on Radiative Transfer: Proceedings of the Seminar, San Diego CA, Society of Photo-optical Instrumentation Engineers.
Clough, S. A., et al. 1981, “Atmospheric Spectral Transmittance and Radiance: FASCOD1B,” Washington D.C., Society of Photo-Optical Instrumentation Engineers.
Anderson, G. P., et al. 1993, “MODTRAN2: Suitability for Remote Sensing, in Atmospheric Propagation and Remote Sensing,” Society of Photo-Optical Instrumentation Engineers.
Anderson, G. P., et al. 1994, “History of One Family of Atmospheric Radiative Transfer Codes,” in Passive Infrared Remote Sensing of Clouds and the Atmosphere II, Society of Photo-Optical Instrumentation Engineers.
Anderson, G. P., et al. 1996, “Reviewing Atmospheric Radiative Transfer Modeling: New Developments in High and Moderate Resolution FASCODE/FASE and MODTRAN,” in Optical Spectroscopic Techniques and Instrumentation for Atmospheric and Space Research II, Society of Photo-Optical Instrumentation Engineers.
Rothman,  L. S., , 1992, “The HITRAN Molecular Database,” Editions of 1991 and 1992, J. Quant. Spectrosc. Radiat. Transf., 48, pp. 469–507.
Rothman,  L. S., , 1998, “The HITRAN Molecular Spectroscopic Database and HAWKS (HITRAN Atmospheric WorkStation),” 1996 edition, J. Quant. Spectrosc. Radiat. Transf., 60, pp. 665–710.
Wang, J., and Anderson, G. P., 1994, “Validation of FASCOD3 and MODTRAN3: Comparison of Model Calculations with Interferometer Observations from SPECTRE and ITRA,” in Passive Infrared Remote Sensing of Clouds and the Atmosphere II Vol 2309, Society of Photo-Optical Instrumentation Engineers.
Bird,  R. E., 1984, “A Simple, Solar Spectral Model for Direct-normal and Diffuse Horizontal Irradiance,” Sol. Energy, 32(4), pp. 461–471.
Brine,  D. T., and Iqbal,  M., 1983, “Diffuse and Global Solar Spectral Irradiance under Cloudless Skies,” Sol. Energy, 30, pp. 447–453.
Gueymard, C., 1993, “Development and Performance Assessment of a Clear Sky Spectral Radiation Model,” in Solar ’93—22nd ASES Conf., Washington, DC, American Solar Energy Society.
Justus,  C. G., and Paris,  M. V., 1985, “A Model for Solar Spectral Irradiance and Radiance at the Bottom and Top of a Cloudless Atmosphere,” J. Clim. Appl. Meteorol., 24, pp. 193–205.
Matthews, L. K., Mulholland, G. P., and Stevens, M., 1987, “Measurement and Analysis of Solar Spectral Irradiance,” in ASME/JSME/JSES Solar Engineering Conf., Honolulu, HI.
Nann,  S., and Riordan,  C., 1991, “Solar Spectral Irradiance Under Clear and Cloudy Skies: Measurements and a Semiempirical Model,” J. Appl. Meteorol., 30, pp. 447–462.
Leckner,  B., 1978, “The Spectral Distribution of Solar Radiation at the Earth’s Surface—Elements of a Model,” Sol. Energy, 20, pp. 143–150.
Bird,  R. E., and Riordan,  C., 1986, “Simple Solar Spectral Model for Direct and Diffuse Irradiance on Horizontal and Tilted Planes at the Earth’s Surface for Cloudless Atmospheres,” J. Clim. Appl. Meteorol., 25, pp. 87–97.
Riordan, C., 1990, SPCTRAL2, FORTRAN Computer Program, NREL, Golden, CO.
Utrillas,  M. P., , 1998, “Comparative Study of SPCTRAL2 and SMARTS2 Parameterized Models Based on Spectral Irradiance Measurements at Valencia (Spain),” Sol. Energy, 63, pp. 161–172.
Gueymard, C., 1994, “Updated Transmittance Functions for use in Fast Spectral Direct Beam Irradiance Models,” in Solar ’94 Conf., ASES, San Jose, CA.
Gueymard, C., 1995, “SMARTS2, Simple Model of the Atmospheric Radiative Transfer of Sunshine: Algorithms and Performance Assessment,” Florida Solar Energy Center, Cocoa, FL.
Gueymard,  C., 2001, “Parameterized Transmittance Model for Direct Beam and Circumsolar Spectral Irradiance,” Sol. Energy, 71(5), pp. 325–346.
Brueckner,  G. E., , 1993, “The Solar Ultraviolet Spectral Irradiance Monitor (SUSIM) Experiment on Board the Upper Atmosphere Research Satellite (UARS),” J. Geophys. Res., 98D, pp. 10695–10711.
Kurucz, R. L., 1995, “The Solar Irradiance by Computation,” in Proc. 17th Annual Review Conf. on Atmospheric Transmission Models. PL/TR-95-2060, USAF Phillips Lab., Hanscom, MA.
Gao,  B. C., and Green,  R. O., 1995, “Presence of Terrestrial Atmospheric Gas Absorption Bands in Standard Extraterrestrial Solar Irradiance Curves in the Near-infrared Spectral Region,” Appl. Opt., 34, pp. 6263–6268.
Braslau,  N., and Dave,  J. V., 1973, “Effect of Aerosols on the Transfer of Solar Energy through Realistic Model Atmospheres,” J. Appl. Meteorol., 12, pp. 601–619.
Osterwald,  C. R., and Emery,  K. A., 2000, “Spectroradiometric Sunphotometry,” J. Atmos. Ocean. Technol., 17, pp. 1171–1188.

Figures

Grahic Jump Location
Solar geometry for reference spectral distributions. The solar azimuth is 180°, in the same plane as the normal to the “south facing” (in the northern hemisphere) surface tilted toward the equator. Normal to the tilted plane is n.
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World Meteorological Organization (WMO) Wehrli extraterrestrial (ETR) spectrum and ASTM G159 direct and Hemispherical, 37° south facing tilted surface spectra tabulated in the current standard
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ASTM direct (dash) and tilted hemispherical (line) spectra compared with mean measured FSEC (open square, n=120), PG&E (circle, n=20), and Denver (cross square, n=500) DNI spectra
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Percent difference between atmospheric transmittance predicted by SMARTS2 Version 2.8 and 2.9 and MODTRAN4 for the same ASTM-E891 (G159 Direct Normal) conditions
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Percent difference between SMARTS2 modeled spectra and LI-1800 measured spectrum compared with Spectroradiometer measurement uncertainty envelope
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SMARTS2 results smoothed to 5 nm resolution (lines) and measurements (symbols) at 5 nm resolution for 3 different air mass conditions on a clear day at NREL Sep 28 2001
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Present reference hemispherical tilt (HT), Normalized HT, and direct (DNI) ASTM G-159 standard spectra (symbols) compared with proposed SMARTS2 Ver. 2.9.2 modeled spectra (lines) for new reference condition AOD of 0.084 and light soil spectral albedo

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