Recent solar simulation developments at the jet propulsion laboratory.
Copper anode lamp for solar simulation facilities, discussing effect on arc brightness and anode loading of magnetic fields, gas mixtures, pressure, etc
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Copper anode lamp for solar simulation facilities, discussing effect on arc brightness and anode loading of magnetic fields, gas mixtures, pressure, etc
Argon vortex stabilized arc as radiation source for improved solar simulation, discussing spectral energy distribution
Handbook of solar simulation for thermal vacuum testing, discussing space environment, thermal control coatings, radiation sources, optical components, etc
Predicting performance of Chamber solar simulator using D chamber xenon source module
A facility was constructed to evaluate solar collector performance outdoors for conditions that would be encountered by collectors if they were incorporated in a solar heating/cooling system. In addition to obtaining initial collector performance data, the outdoor facility will enable collector durability and degradation rates to be evaluated for operating periods of several months. The data obtained from the outdoor tests were compared to collector performance predicted on the basis of results obtained with a solar simulator. The performance measured outdoors was less than the predicted performance.
A facility was constructed to evaluate solar collector performance outdoors for conditions that would be encountered by collectors if they were incorporated in a solar heating/cooling system. In addition to obtaining initial collector performance data, the outdoor facility will enable collector durability and degradation rates to be evaluated for operating periods of several months. The data obtained from the outdoor tests were compared to collector performance predicted on the basis of results obtained with a solar simulator. The performance measured outdoors was less than the predicted performance.
In June 2011, the multi-university sponsored Cosmic Ray Electron Synchrotron Telescope (CREST) has undergone thermal-vacuum qualification testing at the NASA Glenn Research Center (GRC), Plum Brook Station, Sandusky, Ohio. The testing was performed in the B-2 Space Propulsion Facility vacuum chamber. The CREST was later flown over the Antarctic region as the payload of a stratospheric balloon. Solar simulation was provided by a system of planar infrared lamp arrays specifically designed for CREST. The lamp arrays, in conjunction with a liquid-nitrogen-cooled cold wall, achieved the required thermal conditions for the qualification tests. The following slides accompanied the presentation of the report entitled Solar Simulation for the CREST Preflight Thermal-Vacuum Test at B-2, at the 27th Aerospace Testing Seminar, October 2012. The presentation described the test article, the test facility capability, the solar simulation requirements, the highlights of the engineering approach, and the results achieved. The presentation was intended to generate interest in the report and in the B-2 test facility.
Space simulator modification to incorporate larger solar simulator, noting beam diameter and luminous intensity uniformity
The operation of multi-junction solar cells used for production of space power is critically dependent on the spectral irradiance of the illuminating light source. Unlike single-junction cells where the spectral irradiance of the simulator and computational techniques may be used to optimized cell designs, optimization of multi-junction solar cell designs requires a solar simulator with a spectral irradiance that closely matches AM0.
Solar simulation used in testing thermal performance of earth satellite
Spectral energy distribution analyses for mercury- xenon arc, and carbon arc solar simulation tests on spacecraft
Fluid transpiration arc radiation source for solar simulation
Instruments for measurement of spectral irradiances from solar simulators
Design and performance of collimated beam solar simulator
Transient thermal modeling with simulated solar radiation
Solar simulator with xenon and krypton lamps designed for thermal balance tests, power conversion and material degradation experiments
Solar simulator built into multiwall ultrahigh vacuum chamber, describing simulator and chamber modifications
This paper describes the development of a solar simulator in use at the Lewis Research Center. The simulator is intended to duplicate the total radiance and the spectral distribution of radiation of the sun in the vicinity of the earth and before it is modified by passing through the atmosphere.