Simulation and experimental results of a vacuum solar collector system with storage

Energy Conversion and Management

Volumn 46, Issue 9-10, 2005, Pages 1423-1442

  Georgiev, A ^a  

^a TECHNICAL UNIVERSITY OF SOFIA   (Bulgaria)

Author keywords

Experiment; Simulation; Storage; Vacuum solar collectors

Indexed keywords

COMPUTER PROGRAMMING; COMPUTER SIMULATION; ENERGY STORAGE; EXPERIMENTS; INSTALLATION; MATHEMATICAL MODELS; SPECIFIC HEAT; VISCOSITY;

KINEMATIC VISCOSITY; TEMPERATURE BEHAVIOR; VACUUM SOLAR COLLECTORS; WARM WATER STORAGE;

SOLAR COLLECTORS;

EID: 15744401386     PISSN: 01968904     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.enconman.2004.07.002     Document Type: Article

References (19)

1. VDI-Heat atlas. Duesseldorf: VDI-Verlag GmbH, 1988 [in German]
2. J. Kreider Medium and high temperature solar processes 1979 Academic Press New York
3. J. Duffie, and W. Beckman Solar energy thermal processes 1974 John Wiley and Sons New York
4. P. Dunn, and D. Reay Heat pipes 3rd ed. 1982 Pergamon Press
5. W. Kamminga Experiences of a solar collector test method using Fourier transfer functions Int. J. Heat Mass Transfer 28 7 1985 1393 1404
6. W. Kamminga The approximate temperature within a flat-plate solar collector under transient conditions Int. J. Heat Mass Transfer 28 2 1985 433 440
7. W. Kamminga The testing of an evacuated tubular collector with a heat pipe using the Fourier frequency domain Int. J. Heat Mass Transfer 29 1 1986 83 90
8. Bradke H. Theoretical and experimental examinations for heat supply of buildings with multivalent heating systems. Progress-Reports, VDI Line 6, Energy production, 252, Duesseldorf: VDI-Verlag GmbH, 1991 [in German]
9. Groeber H, Erk S, Grigull U. Fundamentals of the heat transfer. Edition 3. Reprint, Berlin, Heidelberg, New York: Springer; 1981 [in German]
10. Vasiliev L, Gracovich L, Crustalev D. Heat pipes in renewable energy sources systems. Minsk: Nauca i tehnica; 1988 [in Russian]
11. Zogg M, Hungerbuehler R. Iteration-free explanation of heat carrier with one-sided free convection. Brenstoff, Waerme, Kraft (BWK) 1983;35(10):432-438 [in German]
12. Georgiev A. Mathematical model of a vacuum solar collector with heat pipe and flat plate absorber. Brenstoff, Waerme, Kraft (BWK) 1993;45(12):527-534 [in German]
13. Georgiev A. Mathematical modelling of a warm water storage with four-turn pipe windings. Elektrowaerme und Technischer Ausbau (ETA), Ed. A. 1995;53(3):132-134 [in German]
14. Georgiev A. Help parameters determination of the mathematical model of a warm water storage with four-turn pipe windings. J of the Technical University at Plovdiv, Bulgaria, Fundamental Sciences and Applications, 1996;4:263-271 [in German]
15. Georgiev A. Test installation of vacuum solar collectors with heat pipe and warm water storage. Elektrowaerme und Technischer Ausbau (ETA), Ed. A. 1997;55(2):84 [in German]
16. Kloeckner & Co. AG Thermotechniques, Munich: Kloeckner solar-heating system, Firm Edition 32p [in German]
17. Buderus, Wetzlar: Buderus storage-water heater, 8 pages, Prospect [in German]
18. M. Collares-Pereira, and A. Rabl Derivation of method for predicting long term average energy delivery of solar collectors Solar Energy 23 3 1979 223 233
19. Bozhanov E, Vuchkov I. Statistical methods for modelling and optimization of multifactor objects. Sofia: Tehnika; 1983 [in Bulgarian]