This content is not included in
your SAE MOBILUS subscription, or you are not logged in.
Hydrogen Cars with LH 2 -Tank, LH 2 -Pump and Cold GH 2 -Injection Two-Stroke Engine
Annotation ability available
Sector:
Language:
English
Abstract
According to results of a number of studies made in past concerning premixed hydrogen-air engines, the problems lay in the low output, backfire and NOx emission. In addition, the necessity to reduce the fuel tank weight and volume for automobile application existed.
In order to meet these requirements, Musashi Institute of Technology in Tokyo developed a method as an ideal fuel system, by inserting a small-sized LH2-pump in a LH2-tank, forcing high pressure LH2 into a low temperature and high pressure gas hydrogen container of 1ℓ or so, and injecting cold GH2 of −30 to −50°C during the first half of the compression stroke of a two-stroke engine. In this manner, two passenger cars were tried, with a 3-cylinder and 0.55ℓ engine installed in one of them and a 3-cylinder and 1.1ℓ engine installed in the other.
It was demonstrated through engine dynamometer tests and on-vehicle tests on a test course that above mentioned problems could be all solved. Engine maximum power was improved by 20 to 30% as compared with gasoline engines, and backfire was prevented completely.
Recommended Content
Ground Vehicle Standard | Liquefied Natural Gas (LNG) Vehicle Metering and Dispensing Systems - Truck and Bus |
Technical Paper | Central Port Fuel Injection |
Technical Paper | Study of the Benefits and Drawbacks of a Substantial Increase of Rail-Pressure in GDI-Injector Assemblies |
Authors
Topic
Citation
Furuhama, S. and Kobayashi, Y., "Hydrogen Cars with LH2-Tank, LH2-Pump and Cold GH2-Injection Two-Stroke Engine," SAE Technical Paper 820349, 1982, https://doi.org/10.4271/820349.Also In
References
- Ricardo H.F. Further note on fuel research. Report of the Empire Motor Fuels Committee Proc. Inst. Automobile Engrs. 18 1923 327
- Burstall A.F. Experiments on the behavior of various fuels in a high speed internal combustion engine Proc. Inst. Automobile Engrs. 22 1927 358
- Erren R.A. Campbell W.H. Hydrogen, A commercial fuel for internal combustion engines and other purpose J. the Inst. of Fuel. 6 29 1933
- King R.O. Wallace W.A. Mahapatra B. The Oxidation, ignition and detonation of Fuel vapors and gases -V. The hydrogen engine and the nuclear theory of ignition Can. J. Res. F26 1948 264
- Oehmichen M. Wasserstoff als Motortreibmittel Deutsche Kraftfahrt-forschung 68 VDI-Verlag GmbH Berlin 1942
- Swain M.R. Adt R.R. The hydrogen-air fueled Automobile 7th IECE Conf. 1972
- Pischinger F. Schaffrath M. Untersuchungen an einem Wasserstoff-motor und Massnakmen zur Prozess-verbesserung XVI-FISITA 5-1 Tokyo 1976
- Daimler-Benz AG Forschung Zentrale Abschlussbericht Zum Forschungsvorhaben “Wasserstoffantrieb Komponentenentwicklung Motor” BMFT-TV 7541 1978
- Finegold J.G. Van Vorst Wm. D. Engine performance with gasoline and hydrogen, A Comparative study Proc. Hydrogen Economy Energy Conf. 1974
- Billings R.E. Lynch F.E. History of hydrogen-fueled internal combustion engines Report to the C.F. Kettering Foundation, No.73001 1973
- Furuhama S. Hiruma M. Enomoto Y. Development of a liquid hydrogen car I.J. Hydrogen Energy 3 1 1978 61
- Murray R.G. Sehoeppel R.J. A reliable solution to the environmental problem, the hydrogen engine SAE-700609
- de Boer P.C.T. Mc Lean W.J. Fagelson J.J. Homan H.S. An analytical and experimental study of the performance and emission of hydrogen fueled reciprocating engine Proc. 9th IECE Conf., ASME paper 749056 1974 479
- Furuhama S. Yamane K. Yoshida T. Combustion Characteristics of hydrogen fueled engine (part 2) JSME Transactions 9 1975 16
- Kobayashi Y. Furuhama S. Iida M. Enomoto Y. LH 2 -Car wich a two-stroke direct injection engine and LH 2 -pump Proc. 3rd World Hydrogen Energy Tokyo June 1980 2 1087