Test Standards for Direct Steam Generating Solar Concentrators


There are a few standards reported in the literature for testing and evaluation of thermal performance of solar concentrators based on sensible heating of working fluid. The preceding standard measures only the cooking efficiency and cooking capacity. Apart from thermal efficiency, there is an imperative need for other important parameters of the solar concentrators such as its stagnation temperature, cooking capacity, cost per watts delivered, weight of the cooker, ease of handling and aesthetics. The characterization of a concentrator at its operating temperature settles appropriate size and type of concentrator for any thermal application. The performance test is conducted at Chandwad (20.3292°N, 74.2444°E), Maharashtra and the proposed protocol aims for evaluation of thermal performance of solar cooking system and standardization of reporting the test results so that anyone can easily recognize and use it.

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M. Rathore, M. and Warkhedkar, R. (2015) Test Standards for Direct Steam Generating Solar Concentrators. Journal of Power and Energy Engineering, 3, 1-10. doi: 10.4236/jpee.2015.312001.

Conflicts of Interest

The authors declare no conflicts of interest.


[1] Rathore, M.M. and Warkhedkar, R.M. (2015) Development of Universal Test Standard for Concentrating Solar. International Journal of Modern Trends in Engineering and Research (IJMTER), 2, 1655-1658.
[2] Ravi Kumar, K. and Reddy, K.S. (2009) Thermal Analysis of Solar Parabolic trough with Porous Disc Receiver. Applied Energy, 86, 1804-1812.
[3] Reddy, K.S. and Kumar, N.S. (2008) Combined Laminar Natural Convection and Surface Radiation Heat Transfer in a Modified Cavity Receiver of Solar Parabolic Dish. International Journal of Thermal Sciences, 47, 1647-1657.
[4] Centre of Energy Studies, Ministry of Non-Conventional Energy Sources (2006) Draft Test Procedure Solar Cooker— Paraboloid Concentrator Type. 1-12.
[5] Mullick, S.C., Kandpal, T.C. and Kumar, S. (1991) Thermal Test Procedure for a Paraboloid Concentrator Solar Cooker. Solar Energy, 46, 139-144.
[6] Kumar, S., Kandpal, T.C. and Mullick, S.C. (1993) Heat Losses from a Paraboloid Concentrator Solar Cooker: Experimental Investigations on Effect of Reflector Orientation. Renewable Energy, 3, 871-876.
[7] Kumar, S., Kandpal, T.C. and Mullick, S.C. (1994) Effect of Wind on the Thermal Performance of a Paraboloid Concentrator Solar Cookers. Renewable Energy, 4, 333-337.
[8] ASTM International (2007) Standard Test Method for Determining Thermal Performance of Tracking Concentrating Solar Collectors. Designation: E 905-87, Reapproved 2007, 1-14.
[9] Shaw Shawn (2006) Development of a Comparative Framework for Evaluating the Performance of Solar Cooking Devices. Thesis submitted at Rensselaer Polytechnic Institute, USA, 1-63.
[10] Kundapur, A. and Sudhir, C.V. (2009) Proposal for New World Standard for Testing Solar Cookers. Journal of Engineering Science and Technology, 4, 272-281.
[11] Sardeshpande, V.R, Chandak, A.G. and Pillai, I.R. (2011) Procedure for Thermal Performance Evaluation of Steam Generating Point-Focus Solar Concentrators. Solar Energy, 85, 1390-1398.
[12] Pillai, I.R., Chandak, A.G., Sardeshpande, V. and Somani, S.K. (2010) Methodology for Performance Evaluation of Fixed Focus Moving Solar Concentrators. World Renewable Energy Congress XI, Abu Dhabi, 25-30 September 2010, 1-6.
[13] Chandak, A. (2009) Apparatus for Testing Solar Concentrators’ Patent Application No 2377/MUM/2009. Filed with Controller of Patents, Mumbai.
[14] Shuai, Y., Xia, X.-L. and Tan, H.-P. (2008) Radiation Performance of Dish Solar Concentrator/Cavity Receiver Systems. Solar Energy, 82, 13-21.
[15] Leibfried, U. and Ortjohann, J. (1995) Convective Heat Loss from Upward and Downward Facing Cavity Receivers: Measurements and Calculations. Journal of Solar Energy Engineering, 117, 75-84.
[16] Paitoonsurikarn, S., Taumoefolau, T. and Lovegrove, K. (2004) Estimation of Convection Loss from Paraboloidal Dish Cavity Receivers. Proceedings of 42nd Conference of the Australia and New Zealand Solar Energy Society (ANZSES), Perth, 30 November-3 December 2004, 1-7.

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