CO2 discharge characteristic of PEM-FC/hydrogen-gas-engine hybrid cogeneration

International Journal of Hydrogen Energy

Volumn 32, Issue 7, 2007, Pages 819-831

  Obara, Shin'ya ^a  

^a ICHINOSEKI NATIONAL COLLEGE OF TECHNOLOGY   (Japan)

Author keywords

Carbon dioxide emission; Hybrid cogeneration system; Hydrogenation gas engine; Partial load operation; PEM fuel cell

Indexed keywords

CARBON DIOXIDE; ELECTRIC BRAKES; ELECTRIC POWER GENERATION; EXHAUST GASES; FUEL CONSUMPTION; GAS EMISSIONS; HEAT ENGINES; HYDROGENATION;

CARBON DIOXIDE EMISSIONS; HYBRID COGENERATION SYSTEMS (HCGS); PARTIAL LOAD OPERATION; POWER GENERATION EFFICIENCY;

PROTON EXCHANGE MEMBRANE FUEL CELLS (PEMFC);

EID: 34247574594     PISSN: 03603199     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.ijhydene.2006.10.065     Document Type: Article

References (13)

1. Obara S., and Kudo K. Study of a small-scale fuel cell cogeneration system with methanol steam reforming considering partial load and load fluctuation. Trans ASME J Energy Resour Technol 127 4 (2005) 265-271
2. Ogawa T, et al. Study on energy saving of the cogeneration for houses the eighth report: the survey and fuel cell installation feasibility study of power load in an apartment house. In: proceedings of the meeting of the society of heating, air-conditioning and sanitary engineering, vol. 3, 2005. p. 2037-40 [in Japanese].
3. Ali M, et al. Development of highly efficient and clean engine system using natural-gas and hydrogen mixture fuel obtained from onboard reforming. NEDO Report ID:03B71006c, 2005 [in Japanese].
4. Yap D, et al. Effect of hydrogen addition on natural gas HCCI combustion. SAE Technical Paper Series SAE-2004-01-1972, 2004.
5. Larsen J.F., and Wallace J.S. Comparison of emissions and efficiency of a turbocharged lean-burn natural gas and hythane fuelled engine. ASME ICE 24 (1995) 31-40
6. Swain MR, Usuf MJ. The Effects of hydrogen addition on natural gas engine operation. SAE Technical Paper Series SAE-932775, 1993.
7. Nakamura T, Sei M. Energy related technology. High-efficiency fuel processor for fuel cell system. Technical Report No. 77, Matsushita Electric Works, Ltd.; 2002. p. 4-9 [in Japanese].
8. Oda K, et al. A small-scale reformer for fuel cell application. Sanyo technical review, vol. 31(2), 1999. p. 99-106 [in Japanese].
9. Takeda Y, et al. Development of fuel processor for rapid start-up. In: Kimura K, editor, Proceedings of the 20th energy system economic and environment conference, Tokyo; January 29-30, 2004. p. 343-44 [in Japanese].
10. Mikkola M. Experimental studies on polymer electrolyte membrane fuel cell stacks. Master's thesis submitted in partial fulfillment of the requirements for the degree of Master of Science in Technology, Helsinki University of Technology; 2001. p. 58-79.
11. Ibaraki Prefecture Government Office of Education. Modeling of hydrogen energy system. High School Active Science Project Research Report, Ibaraki, Japan; 2002 [in Japanese].
12. Narita K. The research on unused energy of the cold region city and utilization for the district heat and cooling. PhD thesis, Hokkaido University; 1996.
13. National Astronomical Observatory. Rika Nenpyo. Chronological Scientific Tables CD-ROM, Maruzen Co., Ltd.; 2003.