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A Study on PM Regeneration Characteristics of Diesel Passenger Vehicle with Passive Regeneration DPF System

자연재생방식 DPF시스템 부착 경유승용차량의 PM재생 특성 연구

  • 이진욱 (한국기계연구원 친환경엔진연구센터) ;
  • 조규백 (한국기계연구원 무.저공해자동차사업단) ;
  • 김홍석 (한국기계연구원 무.저공해자동차사업단) ;
  • 정용일 (한국기계연구원 무.저공해자동차사업단)
  • Published : 2007.02.01

Abstract

New diesel engines equipped with common-rail injection systems and advanced engine management control allow drastic decreases in the production of particulate matters and nitrogen oxides with a significant advantage in terms of the fuel consumption and $CO_2$ emissions. Nevertheless, the contribution of exhaust gas after treatment in the ultra low emission vehicles conception has become unavoidable today. Recently the passive type DPF(Diesel Particulate Filter Trap) system for diesel passenger vehicle has been manufactured into mass production from a French automotive maker since the year of 2000. This passive DPF system fully relies on the catalytic effects from additives blended into the diesel fuel and additives injected into the DPF system. In this study, the effects of PM regeneration in the commercial diesel passenger vehicle with the passive type DPF system were investigated in chassis dynamometer CVS(constant volume sampler)-75 mode. As shown in this experimental results, the DPF regeneration was observed at temperature as low as $350^{\circ}C$. And the engine-controlled the DPF regeneration founded to be one of the most promising regeneration technologies. Moreover, the durability of this DPF system was evaluated with a season weather in terms of the differential pressure and exhaust gas temperature traces from a road test during the total mileage of 80,000km.

Keywords

References

  1. Sluder, C. S. and Brian, H. W., 2000, 'Catalyzed Diesel Particulate Filter Performance in a Light-Duty Vehicle,' SAE Paper, 2000-01-2848
  2. Jeong, Y., 2001, 'The Trend of Exhaust Emission Standard and Diesel Particulate Filter Trap Technology for Diesel Powered Vehicles,' Busan Engine International Symposium
  3. Hawker, P., Myers, N., Huthwohl, G., VogelT., Bates, B., Magnusson, L. and Bronneberg, P., 1997, 'Experience with a New Particulate Trap Technology in Europe,' SAE Paper, 970182
  4. Hawker, P., Myers, N., Henn, J., Koch, W., Luders, H., Luers, B. and Stommel, P., 1998, 'Effect of a Continuously Regenerating Diesel Particulate Filter on Non-Regulated Emissions and Particulate Size Distribution,' SAE Paper, 980189
  5. Vincent, M. W. et al., 1999, 'Improved Diesel Particulate Filter Regeneration Performance Using Fuel Soluble Additives,' SAE Paper, 1999-01-3562
  6. Vincent, M. W. and Richards, P. J., 2000, 'The Long Distance Road Trial of a Combined Diesel Particulate Filter and Fuel Additive,' SAE Paper, 2000-01-2849
  7. David, L. H., 2000, 'Diesel Particulate Filter Regeneration: Thermal Management Through Filter Design,' SAE Paper, 2000-01-2847
  8. Eom, M. D., Yoo, J. H. and Lim, C. S., 1999, 'The Evaluation of Diesel Emission Reduction Characteristics by DOC in Light-duty Vehicle,' KSAE No. 99370249, Vol. 7, No. 8, pp. 34-42

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