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Journal of Solar Energy Engineering | Volume 134 | Issue 1 | Research Paper
Research Papers

A Modular Ceramic Cavity-Receiver for High-Temperature High-Concentration Solar Applications

[+] Author and Article Information
I. Hischier, P. Poživil

 Department of Mechanical and Process Engineering, ETH Zürich, 8092 Zürich, Switzerland

A. Steinfeld1

 Department of Mechanical and Process Engineering, ETH Zürich, 8092 Zürich, Switzerland;  Solar Technology Laboratory, Paul Scherrer Institute, 5232 Villigen, Switzerlandaldo.steinfeld@eth.ch

1

Corresponding author.

J. Sol. Energy Eng 134(1), 011004 (Nov 01, 2011) (6 pages) doi:10.1115/1.4005107 History: Received May 23, 2011; Revised September 08, 2011; Published November 01, 2011; Online November 01, 2011
Article
References
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Citing Articles

A high-temperature pressurized air-based receiver is considered as a module for power generation via solar-driven gas turbines. A set of silicon carbide cavity-receivers attached to a compound parabolic concentrator (CPC) are tested on a solar tower at stagnation conditions for 35 kW solar radiative power input under mean solar concentration ratios of 2000 suns and nominal temperatures up to 1600 K. A heat transfer model coupling radiation, conduction, and convection is formulated by Monte Carlo ray-tracing, finite volume, and finite element techniques, and validated in terms of experimentally measured temperatures. The model is applied to elucidate the effect of material properties, geometry, and reflective coatings on the cavity’s thermal and structural performances.
FIGURES IN THIS ARTICLE
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Copyright © 2012 by American Society of Mechanical Engineers
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References

1
Hischier, I., Hess, D., Lipiński, W., Modest, M., and Steinfeld, A., 2009, “Heat Transfer Analysis of a Novel Pressurized Air Receiver for Concentrated Solar Power via Combined Cycles,” J. Thermal Sci. Eng. Appl., 1 (4), 041002.  [CrossRef]
2
Hischier, I., Leumann, P., and Steinfeld, A., “Experimental and Numerical Analyses of a Pressurized Air Receiver for Solar-Driven Gas Turbines,” J. Sol. Energy Eng. (submitted).
3
Segall, A. E., Hellmann, J. R., and Strzepa, P., 1990, “Experimental and Analytical Evaluation of the Mechanical Performance of a Gas-Fired Ceramic Radiant Tube at Steady-State,” J. Test. Eval., 18 (4), pp. 250–255.  [CrossRef]
4
Darroudi, T., Hellmann, J. R., Tressler, R. E., and Gorski, L., 1992, “Strength Evaluation of Reaction-Bonded Silicon Carbide Radiant Tubes After Long-Term Exposure to Combustion and Endothermic Gas Ambients,” J. Am. Ceram. Soc., 75 (12), pp. 3445–3451.  [CrossRef]
5
Vishnevetsky, I., Epstein, M., Ben-Zvi, R., and Rubin, R., 2006, “Feasibility Study on Non-Windowed Solar Reactor: ZnO Carboreduction as an Example,” Sol. Energy, 80 (10), pp. 1363–1375.  [CrossRef]
6
Winston, R., Miñano, J. C., Benítez, P., Shatz, M., and Bortz, J. C., 2005, "Nonimaging Optics", Elsevier Academic Press, New York.
7
Epstein, M., 1986, “Central Receiver Facility at the Weizmann Institute of Science, Rehovot,” "Solar Thermal Central Receiver Systems, Proceedings of the 3rd International Workshop", Konstanz, Germany.
8
Epstein, M., 1988, “Beam Quality and Tracking Accuracy Results of the Weizmann Institute of Science Heliostats,” "Solar Thermal Technology—Research Development and Applications, Proceedings of the Fourth International Symposium", Santa Fe, New Mexico.
9
Duffie, J. A., and Beckman, W. A., 1991, "Solar Engineering of Thermal Processes", John Wiley & Sons, New York.
10
Johnston, G., 1995, “On the Analysis of Surface Error Distributions on Concentrated Solar Collectors,” J. Sol. Energy Eng., 117 (4), pp. 294–296.  [CrossRef]
11
Saint, G., 2011, “Advanced Ceramic Materials for Composite Armor Protection Systems—General Literature,” www.hexoloy.com.
12
Modest, M. F., 2003, "Radiative Heat Transfer", Elsevier Academic Press, USA.
13
Petrasch, J., 2010, “A Free and Open Source Monte Carlo Ray Tracing Program for Concentrating Solar Energy Research,” "ASME Conference Proceedings", (43956), pp. 125–132.
14
Incropera, F. P., and DeWitt, D. P., 2002, "Fundamentals of Heat and Mass Transfer", John Wiley & Sons, New York.
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ansys ® Academic Teaching Advanced, Release 13.0.
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Munro, R. G., 1997, “Material Properties of a Sintered α-SiC,” J. Phys. Chem. Ref. Data, 26 (5), pp. 1195–1203.  [CrossRef]
17
Zircar Ceramics Inc., 2011, “Alumina Insulation Type SALI, Characteristics and Properties,” www.zircarceramics.com.
18
Segall, A. E., and Hellmann, J. R., 1992, “Analysis of Gas-Fired Ceramic Radiant Tubes During Transient Heating: Part II-Thermoelastic Stress Analysis,” J. Test. Eval., 20 (1), pp. 25–32.  [CrossRef]
19
Jadaan, O. M., Shelleman, D. L., Conway, J. C., Mecholsky, J. J., and Tressler, R. E., 1991, “Prediction of the Strength of Ceramic Tubular Components: Part I-Analysis,” J. Test. Eval., 19 (3), pp. 181–191.  [CrossRef]
20
Shelleman, D. L., Jadaan, O. M., Conway, J. C., and Mecholsky, J. J., 1991, “Prediction of the Strength of Ceramic Tubular Components: Part II-Experimental Verification,” J. Test. Eval., 19 (3), pp. 192–200.  [CrossRef]
21
Buck, R., Brauning, T., Denk, T., Pfander, M., Schwarzbozl, P., and Tellez, F., 2002, “Solar-Hybrid Gas Turbine-based Power Tower Systems (REFOS),” J. Sol. Energy Eng., 124 (1), pp. 2–9.  [CrossRef]
22
W. Haldenwanger Technische Keramik GmbH&Co.KG, 2011, “Halsic R/RX/I/S,” http://www.haldenwanger.com.

Figures

Grahic Jump Location
+MC-simulated absorbed solar flux distribution on inner surface of CAV No. 2
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MC-simulated absorbed solar flux distribution on inner surface of CAV No. 2
Figure 5

MC-simulated absorbed solar flux distribution on inner surface of CAV No. 2

Grahic Jump Location
+FV-simulated temperature distribution on outer surface of CAV No. 2
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FV-simulated temperature distribution on outer surface of CAV No. 2
Figure 6

FV-simulated temperature distribution on outer surface of CAV No. 2

Grahic Jump Location
+FE-simulated principal stress distribution on outer surface of CAV No. 2
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FE-simulated principal stress distribution on outer surface of CAV No. 2
Figure 7

FE-simulated principal stress distribution on outer surface of CAV No. 2

Grahic Jump Location
+Relative deviation of numerically simulated and experimentally measured temperatures on the outer surface of CAV No. 1
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Relative deviation of numerically simulated and experimentally measured temperatures on the outer surface of CAV No. 1
Figure 8

Relative deviation of numerically simulated and experimentally measured temperatures on the outer surface of CAV No. 1

Grahic Jump Location
+Numerically simulated (lines) and experimentally measured temperatures by thermocouples (stars) and by IR thermography (circles) across CAV No. 1 at axial positions x = 0.1, 0.2, and 0.35 m
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Numerically simulated (lines) and experimentally measured temperatures by thermocouples (stars) and by IR thermography (circles) across CAV No. 1 at axial positions x = 0.1, 0.2, and 0.35 m
Figure 9

Numerically simulated (lines) and experimentally measured temperatures by thermocouples (stars) and by IR thermography (circles) across CAV No. 1 at axial positions x = 0.1, 0.2, and 0.35 m

Grahic Jump Location
+Schematic of experimental setup consisting of cylindrical SiC cavity attached to a water-cooled secondary concentrator via an insulating ring and surrounded by a water-cooled box
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Schematic of experimental setup consisting of cylindrical SiC cavity attached to a water-cooled secondary concentrator via an insulating ring and surrounded by a water-cooled box
Figure 1

Schematic of experimental setup consisting of cylindrical SiC cavity attached to a water-cooled secondary concentrator via an insulating ring and surrounded by a water-cooled box

Grahic Jump Location
+Cross section of experimental setup indicating fluid (BOX, AMB) and solid (CAV, INS) zones and selected boundary heat fluxes
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Cross section of experimental setup indicating fluid (BOX, AMB) and solid (CAV, INS) zones and selected boundary heat fluxes
Figure 2

Cross section of experimental setup indicating fluid (BOX, AMB) and solid (CAV, INS) zones and selected boundary heat fluxes

Grahic Jump Location
+Measured temperature distribution on the outer surface of CAV No. 3
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Measured temperature distribution on the outer surface of CAV No. 3
Figure 3

Measured temperature distribution on the outer surface of CAV No. 3

Grahic Jump Location
+Measured temperature distribution on the outer surface of CAV No. 4. Diffusely reflecting Al2 O3 coating was applied on the inner surface for x = 0 – 0.12 m
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Measured temperature distribution on the outer surface of CAV No. 4. Diffusely reflecting Al2 O3 coating was applied on the inner surface for x = 0 – 0.12 m
Figure 4

Measured temperature distribution on the outer surface of CAV No. 4. Diffusely reflecting Al2 O3 coating was applied on the inner surface for x = 0 – 0.12 m

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