Improved means'for converting petroleum or heavy hydrocarbon oils into gaseous fuel for internal combustion engines

• 1. 一种用于加工重质石油烃的裂化气化催化组合物、其制备方法及重质石油烃的裂化气化方法 [P] . 中国专利： CN106179433B . 2019.05.21
• 2. 一种用于加工重质石油烃的裂化气化催化组合物、其制备方法及重质石油烃的裂化气化方法 [P] . 中国专利： CN106179433A . 2016-12-07
• 3. Improved means'for converting petroleum or heavy hydrocarbon oils into gaseous fuel for internal combustion engines [P] . AU1113013B1 . 1914-03-17

  机译： 用于将石油或重质烃油转化为用于内燃机的气态燃料的改进方法

• 4. Improved means'for converting petroleum or heavy hydrocarbon oils into gaseous fuel for internal combustion engines [P] . AU1113013B . 1914-03-17

  机译： 用于将石油或重质烃油转化为用于内燃机的气态燃料的改进方法

• 5. Improved Means for Converting Petroleum or Heavy Hydrocarbon Oils into Gaseous Fuel for Internal Combustion Engines. [P] . 英国专利： GB191224651A . 1913-09-25

  机译： 将石油或重烃油转化为内燃机的气态燃料的改进方法。

• 1. Engine performance and combustion characteristics of a direct injection compression ignition engine fueled waste cooking oil synthetic diesel [J] . Thanh Viet Nguyen, Khanh Duc Nguyen, Nang Xuan Ho, 国际煤炭科学技术学报：英文版 . 2020,第003期
• 2. Engine performance and combustion characteristics of a direct injection compression ignition engine fueled waste cooking oil synthetic diesel [J] . Thanh Viet Nguyen, Khanh Duc Nguyen, Nang Xuan Ho, 国际煤炭科学技术学报（英文） . 2020,第003期
• 3. Experimental Study on Performance and Combustion Analysis of a Diesel Engine Fueled with Diesel and Jatropha Oil Blended with Heptane [J] . Yomi Woro Gounkaou, Tizane Daho, Ali Diane, 能源与动力工程（英文） . 2021,第001期
• 4. DEVELOPMENT AND APPLICATION OF ADVANCED COMBUSTION MODELING TOOLS FOR HEAVY DUTY GASEOUS FUELED INDUSTRIAL SPARK IGNITION ENGINES [C] . Harmit Juneja, Leon A. LaPointe, Francois Ntone, ASME Internal Combustion Engine Division fall technical conference 2010 . 2010
• 5. Gaseous and Particulate Matter Emissions of a Supercharged Spark Ignited Hydrogen Fueled Internal Combustion Engine. [D] . Kieran, Sean. 2016
• 6. TraceMetals in Soot and PM2.5 from Heavy-Fuel-Oil Combustion in a Marine Engine [O] . J. C. Corbin, ‡, A. A. Mensah, -1
• 7. Large eddy simulation of highly turbulent under-expanded hydrogen and methane jets for gaseous-fuelled internal combustion engines [O] . Hamzehloo A, Aleiferis PG 2014
• 8. Performance and Cost Evaluation of Internal Combustion Engines for theDestruction of Hydrocarbon Vapors from Fuel-Contaminated Soils [R] . Archabal, S. R., Downey, D. C. 1994

• 1. Temperature Dependence of Density,Viscosity,Thermal Conductivity and Heat Capacity of Vegetable Oils for Their Use as Biofuel in Internal Combustion Engines [J] . Augustin SampawindéZongo ,Gilles Vaitilingom ,Tizane Daho . 化学工程与科学期刊（英文） . 2019,第1期
• 2. Design Optimization of Cam amp;Follower Mechanism of an Internal Combustion Engine for Improving the Engine Efficiency [J] . Mahesh R. Mali ,Prabhakar D. Maskar ,Shravan H. Gawande . 现代机械工程（英文） . 2012,第3期
• 3. 用于乏燃料离线破损检测的气态裂变产物采样工艺设计 [C] . Su Rongbo ,苏容波 ,Zhang Dong . 第八届中国核学会“三核”论坛 . 2011
• 4. 适用于汽油参比燃料TRF的多环芳香烃生成机理的研究 [A] . 李艳荣 . 2014