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      KCI등재 SCIE SCOPUS

      Operating lines for plug-in hybrid turbo charger systems meeting LEV III evaporative gas regulations

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      https://www.riss.kr/link?id=A107847444

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      다국어 초록 (Multilingual Abstract)

      In 2020 the California Air Resources Board (CARB) implemented even more stringent regulation of vehicle emissions, its low-emission vehicle III (LEV III) program. In a (P)HEV T-GDI vehicle, the vehicle operates in EV driving mode when the engine is off, making it similarly difficult to comply with evaporative gas regulations. Automotive OEM strategy development to reduce vehicle evaporative gas and exhaust gas is in progress as these new emissions regulations are being implemented. Unlike in a naturally aspired engine, in a turbo gasoline direct injection (T-GDI) engine, the main operating area is the turbo boosting area. It operates in the positive pressure area rather than the negative pressure area, making it difficult to meet the requirements of the new evaporative gas regulationsI. The (P)HEV T-GDI characteristics showed the evaporative gas standards of LEV III, as well as regulations on CO 2 , fuel efficiency, and exhaust gas. 2.0 T-GDI single purge system vehicles showed 1.8 times engine operation time test results satisfied with evaporative gas test regulation values.
      Additionally, exhaust gas emissions in hot mode showed that CO(g/mile) affects 2.0 L T-GDI vehicles 2~3 times more than 3.0 L V6 T-GDI dual purge system vehicles. Fuel efficiency test results, confirming that the 3.0 V6 had about 15 % FTP, 20 % HWY, 18 % US06 better fuel efficiency compared to the 2.0 L T-GDI vehicles. Furthermore, the properties of the operating lines optimized for two plug-in hybrid turbo charger systems to assess whether they can meet the evaporative gas standards of LEV III, as well as regulations on CO 2 , fuel efficiency, and exhaust gas. The 2.0 L T-GDI vehicle bears fuel economy loss, increases the engine operating time, and responds to the regulation of evaporative gas, and the 3.0 V6 confirms that the engine operating time, fuel economy, exhaust gas, and evaporative gas are optimized. To respond to LEV III evaporative gas regulations, 2.0 L T-GDI PHEV vehicles take longer engine operation time, fuel economy loss, and respond to evaporative gas, CO 2 , emission regulations, 3.0 L V6 T-GDI PHEV vehicles confirmed that engine operation time, fuel economy, exhaust gas, and evaporative gas were optimized. They can meet the evaporative gas standards of LEV III, as well as regulations on CO 2 , fuel efficiency, and exhaust gas.
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      In 2020 the California Air Resources Board (CARB) implemented even more stringent regulation of vehicle emissions, its low-emission vehicle III (LEV III) program. In a (P)HEV T-GDI vehicle, the vehicle operates in EV driving mode when the engine is of...

      In 2020 the California Air Resources Board (CARB) implemented even more stringent regulation of vehicle emissions, its low-emission vehicle III (LEV III) program. In a (P)HEV T-GDI vehicle, the vehicle operates in EV driving mode when the engine is off, making it similarly difficult to comply with evaporative gas regulations. Automotive OEM strategy development to reduce vehicle evaporative gas and exhaust gas is in progress as these new emissions regulations are being implemented. Unlike in a naturally aspired engine, in a turbo gasoline direct injection (T-GDI) engine, the main operating area is the turbo boosting area. It operates in the positive pressure area rather than the negative pressure area, making it difficult to meet the requirements of the new evaporative gas regulationsI. The (P)HEV T-GDI characteristics showed the evaporative gas standards of LEV III, as well as regulations on CO 2 , fuel efficiency, and exhaust gas. 2.0 T-GDI single purge system vehicles showed 1.8 times engine operation time test results satisfied with evaporative gas test regulation values.
      Additionally, exhaust gas emissions in hot mode showed that CO(g/mile) affects 2.0 L T-GDI vehicles 2~3 times more than 3.0 L V6 T-GDI dual purge system vehicles. Fuel efficiency test results, confirming that the 3.0 V6 had about 15 % FTP, 20 % HWY, 18 % US06 better fuel efficiency compared to the 2.0 L T-GDI vehicles. Furthermore, the properties of the operating lines optimized for two plug-in hybrid turbo charger systems to assess whether they can meet the evaporative gas standards of LEV III, as well as regulations on CO 2 , fuel efficiency, and exhaust gas. The 2.0 L T-GDI vehicle bears fuel economy loss, increases the engine operating time, and responds to the regulation of evaporative gas, and the 3.0 V6 confirms that the engine operating time, fuel economy, exhaust gas, and evaporative gas are optimized. To respond to LEV III evaporative gas regulations, 2.0 L T-GDI PHEV vehicles take longer engine operation time, fuel economy loss, and respond to evaporative gas, CO 2 , emission regulations, 3.0 L V6 T-GDI PHEV vehicles confirmed that engine operation time, fuel economy, exhaust gas, and evaporative gas were optimized. They can meet the evaporative gas standards of LEV III, as well as regulations on CO 2 , fuel efficiency, and exhaust gas.

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      참고문헌 (Reference)

      1 S. Paz, "Vehicle evaporative emissions characterization by chromatographic techniques applied to different gasoline-ethanol blend" SAE 2014

      2 D. Drake, "Using economic analysis to assess the viability of post-2016 my greenhouse gas emission and fuel economy standards for light duty vehicles" SAE 2012

      3 H. Itakura, "Studies on carbon canisters to satisfy LEVII EVAP regulations" SAE 2000

      4 S. Reddy, "Small SI engine evaporative emission control" SAE 2012

      5 H. Viswanathan, "Shock waves in canister purge valves" SAE 2013

      6 J. Leffel, "Requirements setting, optimization and “best fit” application of AIS hydrocarbon adsorption devices for engine evaporative emissions breathing loss control" SAE 2005

      7 T. Takaoka, "Newly developed Toyota plug-in hybrid system and its vehicle performance under real life Operation" SAE 2011

      8 T. Hori, "Large eddy simulation of non-evaporative and evaporative diesel spray in constant volume vessel by use of KIVALES" SAE 2006

      9 H. Johansson, "Lack of legislation causes large problems with evaporative emissions" SAE 2009

      10 Y. Park, "LEV-3 environmental regulations corresponding studies on the effects on the evaporative emissions from the fuel system caused a secondary canister" 140-146, 2016

      1 S. Paz, "Vehicle evaporative emissions characterization by chromatographic techniques applied to different gasoline-ethanol blend" SAE 2014

      2 D. Drake, "Using economic analysis to assess the viability of post-2016 my greenhouse gas emission and fuel economy standards for light duty vehicles" SAE 2012

      3 H. Itakura, "Studies on carbon canisters to satisfy LEVII EVAP regulations" SAE 2000

      4 S. Reddy, "Small SI engine evaporative emission control" SAE 2012

      5 H. Viswanathan, "Shock waves in canister purge valves" SAE 2013

      6 J. Leffel, "Requirements setting, optimization and “best fit” application of AIS hydrocarbon adsorption devices for engine evaporative emissions breathing loss control" SAE 2005

      7 T. Takaoka, "Newly developed Toyota plug-in hybrid system and its vehicle performance under real life Operation" SAE 2011

      8 T. Hori, "Large eddy simulation of non-evaporative and evaporative diesel spray in constant volume vessel by use of KIVALES" SAE 2006

      9 H. Johansson, "Lack of legislation causes large problems with evaporative emissions" SAE 2009

      10 Y. Park, "LEV-3 environmental regulations corresponding studies on the effects on the evaporative emissions from the fuel system caused a secondary canister" 140-146, 2016

      11 A. Bejcek, "Evaporative emissions control system for walk behind lawnmowers" SAE 2007

      12 M. Meyer, "Evaluation and adaptation of 5-cycle fuel economy testing and calculations for HEVs and PHEVs" 2012

      13 J. Dolch, "Effects of 7, 9, and 10 psi vapor pressure fuels on multi-day diurnal evaporative emissions of tier 2 and LEV II vehicles" 6 (6): 382-392, 2013

      14 Y. Nakao, "Effect of port injection specifications on emission behavior of THC" 9 (9): 2427-2433, 2016

      15 T. Matsubara, "Development of new hybrid system for compact class vehicles" SAE 2009

      16 N. Takagi, "Development of exhaust and evaporative emissions systems for Toyota THS II plug-in hybrid electric vehicle" 3 (3): 406-413, 2010

      17 K. Maeda, "Development of a hydro-carbon adsoripon filter" SAE 2003

      18 M. Komatsu, "Development of Toyota plug-in hybrid system" SAE 2011

      19 J. Kim, "Development of HC-trap for reducing evaporative gas on 2L SI engine" 209-212, 2017

      20 A. Pham, "Characterization of gaseous emissions from blended plug-in hybrid electric vehicles during highpower cold-starts" SAE 2018

      21 M. Samulski, "Characterization and control of evaporative emissions from fuel tanks in nonroad equipment" SAE 2006

      22 H. Itakura, "Analysis of the HC behavior in the air intake system while vehicle is oarked" SAE 2004

      23 J. Lebowitz, "Activated carbon coated polymeric foam for hydrocarbon vapor adsorption" SAE 2005

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      학술지 이력

      학술지 이력
      연월일 이력구분 이력상세 등재구분
      2023 평가예정 해외DB학술지평가 신청대상 (해외등재 학술지 평가)
      2020-01-01 평가 등재학술지 유지 (해외등재 학술지 평가) KCI등재
      2012-11-05 학술지명변경 한글명 : 대한기계학회 영문 논문집 -> Journal of Mechanical Science and Technology KCI등재
      2010-01-01 평가 등재학술지 유지 (등재유지) KCI등재
      2008-01-01 평가 등재학술지 유지 (등재유지) KCI등재
      2006-01-19 학술지명변경 한글명 : KSME International Journal -> 대한기계학회 영문 논문집
      외국어명 : KSME International Journal -> Journal of Mechanical Science and Technology
      KCI등재
      2006-01-01 평가 등재학술지 유지 (등재유지) KCI등재
      2004-01-01 평가 등재학술지 유지 (등재유지) KCI등재
      2001-01-01 평가 등재학술지 선정 (등재후보2차) KCI등재
      1998-07-01 평가 등재후보학술지 선정 (신규평가) KCI등재후보
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      학술지 인용정보

      학술지 인용정보
      기준연도 WOS-KCI 통합IF(2년) KCIF(2년) KCIF(3년)
      2016 1.04 0.51 0.84
      KCIF(4년) KCIF(5년) 중심성지수(3년) 즉시성지수
      0.74 0.66 0.369 0.12
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