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DEVELOPMENT OF BOOST SYSTEMS FOR FORCED DIESEL ENGINES 柴油机增压系统的研制
Q4 Engineering Pub Date : 2020-08-31 DOI: 10.20998/0419-8719.2020.2.04
М. С. Шелестов
The paper analyzes the world experience in boosting diesel engines by improving the air supply system, i.e. the installation of drive superchargers and (turbochargers) TKR. Two main types of mechanical superchargers, rotary and centrifugal, are considered. The most common models of rotatory superchargers, Roots, Eaton and Lysholm, the scheme and principle of operation of centrifugal superchargers are analyzed. The main disadvantage of mechanical supercharging is that all the power needed to compress the air is taken from the engine crankshaft. Therefore, gas turbine supercharging is considered the most promising. Single-stage boost systems are analyzed using the example of well-known car manufacturers such as Pegaso and Volkswagen. It has been established that the use of turbocharging increases engine efficiency, which leads to a decrease in specific effective fuel consumption. The further development is aimed at improving single-stage turbocharging systems, reducing the size of turbochargers, reducing inertia, using turbine controls and using two-stage boost systems. In addition, an analysis is made of the work of well-known companies developing boost systems (ABB Turbo Systems, MTU, MAN, Borg Warner Turbo System), which showed that for diesel engines with a liter capacity of more than 60 kW / l it is rational to use a two-stage boost system with intermediate cooling of the charge air. The advantages of using a two-stage boost system are: high torque at low engine speeds; increase in rated power; increase in boost pressure; reduction in fuel consumption; smoke reduction; high potential to reduce NOx emissions; improved transient characteristics. The use of a two-stage controlled turbocharging with cooling of the charge air type R2S achieves a high average effective pressure. Depending on the setting, the system can be implemented both at low and high engine speeds.
本文分析了世界上通过改进供气系统,即安装驱动增压器和TKR(涡轮增压器)来增压柴油机的经验。考虑了两种主要类型的机械增压器,旋转式和离心式。分析了罗茨、伊顿和Lysholm三种最常见的旋转增压器型号,离心增压器的方案和工作原理。机械增压的主要缺点是压缩空气所需的所有动力都来自发动机曲轴。因此,燃气轮机增压被认为是最有前途的。以Pegaso、Volkswagen等知名汽车制造商为例,对单级增压系统进行了分析。已经确定使用涡轮增压可以提高发动机效率,从而导致比有效油耗的降低。进一步的发展旨在改进单级涡轮增压系统,减小涡轮增压器的尺寸,减少惯性,使用涡轮控制和使用两级增压系统。此外,对知名增压系统公司(ABB涡轮增压系统、MTU涡轮增压系统、MAN涡轮增压系统、Borg Warner涡轮增压系统)的工作进行了分析,结果表明,对于升气量大于60 kW / l的柴油机,采用增压空气中间冷却的两级增压系统是合理的。使用两级增压系统的优点是:在低发动机转速下的高扭矩;增加额定功率;增压压力增加;减少燃料消耗;烟减少;减少氮氧化物排放的潜力大;改进的瞬态特性。使用两级控制涡轮增压与冷却的增压空气型R2S实现了一个高的平均有效压力。根据不同的设置,该系统可以在低和高发动机转速下运行。
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引用次数: 0
DEVELOPMENT OF A MICROPROCESSOR CONTROL SYSTEM OF GAS ICE WITH SEQUENTIAL GAS FUEL INJECTION 序贯燃气喷射气冰微处理器控制系统的研制
Q4 Engineering Pub Date : 2020-08-31 DOI: 10.20998/0419-8719.2020.1.06
С. О. Ковальов
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引用次数: 1
THE COURSE'S "THE TESTING OF INTERNAL COMBUSTION ENGINES" TEACHING METHODOLOGY DEVELOPMENT IN DOMECTIC EDUCATIONAL INSTITUTIONS - FRAGMENTS OF HISTORY 课程《内燃机测试》教学方法在国内教育机构的发展——历史的碎片
Q4 Engineering Pub Date : 2020-08-31 DOI: 10.20998/0419-8719.2020.1.10
А. В. Грицюк
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引用次数: 0
FEATURES OF ANALYTICAL SYNCHRONIZATION OF DATA OF WORKING PROCESS MONITORING IN TRANSPORT DIESEL ENGINES UNDER OPERATION 运输柴油机运行过程监测数据分析同步的特点
Q4 Engineering Pub Date : 2020-08-31 DOI: 10.20998/0419-8719.2020.1.02
Р. А. Варбанець, В. І. Залож, Тарас Валерійович Тарасенко, Ю. М. Кучеренко, Виталий Григорьевич Клименко
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引用次数: 0
SELECTION OF CYLINDER-PISTON CLEARANCES OF ROTOR-PISTON ENGINES 转子-活塞发动机气缸-活塞间隙的选择
Q4 Engineering Pub Date : 2020-08-31 DOI: 10.20998/0419-8719.2020.2.01
Б. Г. Тимошевський, О. С. Митрофанов, А. Ю. Проскурін, А. С. Познанський
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引用次数: 0
DEVELOPMENT OF ELECTRONIC MICROPROCESSOR UNITS OF GAS ENGINE CONTROL 燃气发动机电子微处理器控制单元的研制
Q4 Engineering Pub Date : 2020-08-31 DOI: 10.20998/0419-8719.2020.2.03
Ігор Володимирович Парсаданов, С. О. Ковальов, С. В. Плис
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引用次数: 0
IMPROVEMENT OF HEAT PREPARATION PROCESSES OF VEHICLE ENGINE EQUIPPED WITH GASOLINE AND LIQUEFIED OIL SUPPLY GAS SYSTEMS 汽油、液化油供气系统车用发动机热制备工艺的改进
Q4 Engineering Pub Date : 2020-08-31 DOI: 10.20998/0419-8719.2020.1.05
И. В. Грицук, Д. С. Погорлецкий, Р. В. Симоненко, И. В. Худяков
Presented are the results of experimental studies of the heat treatment system of a vehicle gasoline engine, which is heated to operating temperatures on gasoline, and subsequent operation on liquefied oil gas. The main element of the heat preparation system is a phase transition heat accumulator. The research task to be solved is to minimize the time of heat preparation of the vehicle gasoline engine and, therefore, to reduce gasoline consumption in warm-up modes. To ensure remote registration of vehicle parameters and control of heat preparation processes, an information system for monitoring and control of heat preparation processes of a vehicle engine with a heat accumulator was developed and used. During the research, a gasoline-powered vehicle was used with additionally installed gas equipment. The use of a phase transition heat accumulator in the heat preparation system of a vehicle gasoline engine (operating both on gasoline and on liquefied gas fuel) has confirmed a significant improvement in fuel economy. For this, the engine heat preparation should be carried out immediately before starting from an additional heat source to the coolant temperature in the cooling system up to 50° C. The research results have confirmed the capabilities of the system under study to significantly reduce the time of heat preparation and reduce the vehicle gasoline engine fuel consumption running on gasoline and liquefied gas fuel under operating conditions. The phase transition heat accumulator in the heat preparation system of a vehicle gasoline engine (operating both on gasoline and on liquefied gas fuel) reduces the time required to heat the coolant to 50° C and gas consumption to ensure the transition to gas fuel when using various modes (options) of heat preparation in operating conditions.
本文介绍了一种车用汽油机的热处理系统的实验研究结果,该系统在汽油上加热到工作温度,然后在液化石油气上运行。热制备系统的主要元件是相变蓄热器。要解决的研究任务是最大限度地减少车用汽油机的热准备时间,从而减少预热模式下的汽油消耗。为实现整车参数的远程登记和整车热备过程的远程控制,开发并应用了一种车载蓄热器发动机热备过程监控信息系统。在研究过程中,使用了一辆汽油动力汽车,并额外安装了燃气设备。将相变蓄热器应用于车用汽油机(汽油和液化气两种燃料)的热准备系统,大大提高了燃油经济性。为此,应在从附加热源启动前立即进行发动机热准备,使冷却系统中的冷却剂温度达到50℃。研究结果证实了所研究系统能够显著缩短热准备时间,并降低在运行条件下使用汽油和液化气燃料运行的车用汽油机油耗。一种车用汽油发动机(同时使用汽油和液化气燃料)的供热系统中的相变蓄热器,在运行条件下使用各种供热模式(选项)时,减少了将冷却剂加热到50℃所需的时间和确保向燃气燃料过渡所需的燃气消耗。
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引用次数: 0
METHOD OF INFLUENCE OF REPLACEMENT OF MAIN ENGINES ON THE MASS AND TAKE-OFF AND LANDING CHARACTERISTICS OF AIRCRAFT MODIFICATIONS 更换主发动机对改进型飞机质量及起降特性的影响方法
Q4 Engineering Pub Date : 2020-08-31 DOI: 10.20998/0419-8719.2020.2.13
Л. В. Капітанова, О. В. Лось, Віктор Іванович Рябков
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引用次数: 0
IMPLEMENTATION OF HIGHLY EFFICIENT THERMODYNAMIC CYCLES IN TWO-STROKE SOLID-FUEL PISTON INTERNAL COMBUSTION ENGINES OF SHIP PURPOSE 船用二冲程固体燃料活塞内燃机高效热力循环的实现
Q4 Engineering Pub Date : 2020-08-31 DOI: 10.20998/0419-8719.2020.2.06
Е. В. Белоусов, И. В. Грицук, Р. А. Варбанец, А. Е. Самарин
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引用次数: 0
RESULTS OF RESEARCH FOR THE USE OF THE BIOGAS AND METHANE MIXTURE IN A GAS POWER PLANT ENGINE 沼气和甲烷混合物在燃气发电厂发动机中的应用研究结果
Q4 Engineering Pub Date : 2020-08-31 DOI: 10.20998/0419-8719.2020.2.08
А. А. Лисовал
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引用次数: 0
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Neiranji Xuebao/Transactions of CSICE (Chinese Society for Internal Combustion Engines)
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