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    • 52. 发明专利
    • Controller of internal combustion engine equipped with variable valve timing mechanism
    • 具有可变阀门时间机构的内燃机控制器
    • JP2007009775A
    • 2007-01-18
    • JP2005190127
    • 2005-06-29
    • Toyota Industries CorpToyota Motor Corpトヨタ自動車株式会社株式会社豊田自動織機
    • YOSHIZAKI KOJISHIMIZU SADANOBUINAGAKI KAZUHISA
    • F02D13/02F02D45/00
    • Y02T10/18
    • PROBLEM TO BE SOLVED: To provide a technology capable of more exactly obtaining the on-off valve timing of a intake valve or exhaust valve in an controller of an internal combustion engine equipped with a variable valve timing mechanism.
      SOLUTION: The internal combustion engine equipped with the variable valve timing mechanism for changing the on-off valve timing of the intake valve and exhaust valve is provided with a pressure detecting means for detecting the pressure in a cylinder, an operation state detecting means for detecting the operation state of the internal combustion engine, and an exhaust valve advanced angle amount detecting means (S104) for detecting the advanced angle amount of the exhaust valve depending on the pressure in the cylinder at the exhaust top dead center when advancing the closing timing of the exhaust valve by the variable valve timing mechanism than the intake top dead center, and delaying the closing timing of the intake valve than the intake top dead center in the predetermined operation state.
      COPYRIGHT: (C)2007,JPO&INPIT
    • 要解决的问题:提供一种能够更精确地获得装备有可变气门正时机构的内燃机的控制器中的进气门或排气门的开关阀正时的技术。 解决方案:配备有用于改变进气门和排气门的开关阀正时的可变气门正时机构的内燃机设置有用于检测气缸中的压力的​​压力检测装置,操作状态检测 用于检测内燃机的操作状态的装置和排气门提前角量检测装置(S104),用于根据排气上止点的气缸中的压力来检测排气门的提前角量, 通过可变气门正时机构使排气门的关闭正时比进气上止点延迟,并且在预定操作状态下延迟进气门的关闭正时比进气上止点。 版权所有(C)2007,JPO&INPIT
    • 53. 发明专利
    • Motor generator control method in parallel hybrid vehicle
    • 并联混合动力汽车发电机控制方法
    • JP2005110461A
    • 2005-04-21
    • JP2003343879
    • 2003-10-02
    • Toyota Motor Corpトヨタ自動車株式会社
    • MURATA HIROKIHASHIMOTO YOSHINOBUAOYAMA TAROYOSHIZAKI KOJISASAKI SHIZUOINAGAKI KAZUHISA
    • B60W20/00B60K6/485B60K6/54B60L11/14B60W10/08F02D29/02F02D45/00B60K6/04
    • Y02T10/7077
    • PROBLEM TO BE SOLVED: To suppress the change of a driving force by adjusting the driving force to a desired value and by absorbing the change of engine torque, even if change occurs in the engine torque. SOLUTION: This motor generator control method is for a parallel hybrid vehicle provided with an engine that has a cylinder internal pressure sensor and a motor generator that assists power generation by an engine output or the engine output by battery electric power. Based on the detected opening of an accelerator, engine revolutions, and preset demanded torque map, driver-demanding torque is calculated (Steps S10, S11). Using the output value of the cylinder internal pressure sensor, the change of the cylinder internal pressure is detected (Step S12). Based on this detected cylinder internal pressure, the predicted amount of change of the engine torque or the predicted amount of change of the driving force is calculated (Steps S13, S14, S15). According to the predicted amount of change of the engine torque, the assist amount or the regeneration amount of the motor generator is feedback-controlled (Step S16). COPYRIGHT: (C)2005,JPO&NCIPI
    • 要解决的问题:即使发动机转矩发生变化,为了通过将驱动力调节到期望值并且通过吸收发动机转矩的变化来抑制驱动力的变化。 解决方案:该电动发电机控制方法是用于具有发动机的并联混合动力车辆,该发动机具有气缸内部压力传感器和电动发电机,其通过发动机输出或发动机通过电池电力输出来发电。 基于检测到的加速器的开度,发动机转数和预设的要求扭矩图,计算出驱动器要求转矩(步骤S10,S11)。 使用气缸内部压力传感器的输出值,检测气缸内部压力的变化(步骤S12)。 基于该检测到的气缸内部压力,计算出发动机扭矩的预测变化量或驱动力的预测变化量(步骤S13,S14,S15)。 根据预测的发动机转矩变化量,对电动发电机的辅助量或再生量进行反馈控制(步骤S16)。 版权所有(C)2005,JPO&NCIPI
    • 55. 发明专利
    • Exhaust emission control method of internal combustion engine
    • 内燃机排气控制方法
    • JP2005016387A
    • 2005-01-20
    • JP2003181267
    • 2003-06-25
    • Toyota Motor Corpトヨタ自動車株式会社
    • YOSHIZAKI KOJISASAKI SHIZUOITO KAZUHIRO
    • F02M25/07B01D53/86B01D53/94F01N3/08F01N3/20F01N3/22F01N3/24F01N3/28F02D41/02F02D41/04F02D45/00
    • F02M26/35F02M26/05F02M26/23
    • PROBLEM TO BE SOLVED: To restrain both an exhaust of H 2 S and an exhaust of SO 3 at regeneration of sulfur poisoning. SOLUTION: This exhaust emission control method of the internal combustion engine using an exhaust emission control device comprises: a first exhaust emission control means 46 which occludes sulfur; a second exhaust emission control means 56 including an oxidation catalyst arranged to a downstream side of the first exhaust emission control means 46; and an air supply means 43 arranged between the first exhaust emission control means 46 and the second exhaust emission control means 56. When the sulfur is discharged from the first exhaust emission control means 46, sulfur poisoning regeneration control for discharging the sulfur from the first exhaust emission control means 46 is performed, and in the sulfur poisoning regeneration control, a temperature of the second exhaust emission control means 56 is controlled to be more than a previously set first predetermined temperature in order to restrain an oxidation reaction from SO 2 to SO 3 in the second exhaust emission control means 56. COPYRIGHT: (C)2005,JPO&NCIPI
    • 要解决的问题:在硫中毒再生时,抑制H 2 S排气和SO 3排气。 解决方案:使用废气排放控制装置的内燃机的废气排放控制方法包括:阻塞硫的第一废气排放控制装置46; 包括设置在第一废气排放控制装置46的下游侧的氧化催化剂的第二废气排放控制装置56; 以及布置在第一废气排放控制装置46和第二废气排放控制装置56之间的空气供应装置43.当硫从第一废气排放控制装置46排出时,硫中毒再生控制用于从第一废气排放 执行排放控制装置46,并且在硫中毒再生控制中,为了抑制SO 2的氧化反应,将第二废气排放控制装置56的温度控制为大于预先设定的第一预定温度 到第二废气排放控制装置56中的SO 3 。版权所有(C)2005,JPO&NCIPI
    • 59. 发明专利
    • INTERNAL COMBUSTION ENGINE
    • JP2000145505A
    • 2000-05-26
    • JP32396498
    • 1998-11-13
    • TOYOTA MOTOR CORP
    • SASAKI SHIZUOGOTO MASAHITOITO TAKEKAZUYOSHIZAKI KOJIMURATA HIROKI
    • F02M25/07F01N3/08F01N3/24F02D41/02F02D41/04F02D43/00
    • PROBLEM TO BE SOLVED: To surely suppress engine vibration at the time of idling by controlling an intake air rate so as to converge engine rotating speed to a target value, and controlling an inert gas rate to the target value so as to converge intake pipe negative pressure to the target value, in a device wherein inert gas is supplied into a combustion chamber. SOLUTION: When inert gas is supplied into a combustion chamber 5, a generating rate of soot is increased, and attains a peak value. After that, when inert gas rate is supplied, a condition becomes an operating condition in which the soot is hardly generated. In such constituted internal combustion engine 1, an intake air rate is controlled to a target value at the time of combustion when an inert gas rate much more than an inert gas rate having peaked soot generating rate is supplied into the combustion chamber, and at the time of an idling operation, and a rate of the inert gas supplied into the combustion chamber 5 is controlled to the target value. After a rate of the inert gas supplied into the combustion chamber 5 is controlled, a rate of fuel injected from a fuel injection valve into the combustion chamber 5 is controlled to the target value so as to surely suppress engine vibration.
    • 60. 发明专利
    • INTERNAL COMBUSTION ENGINE
    • JP2000145501A
    • 2000-05-26
    • JP32254698
    • 1998-11-12
    • TOYOTA MOTOR CORP
    • SASAKI SHIZUOGOTO MASAHITOITO TAKEKAZUYOSHIZAKI KOJIMURATA HIROKI
    • F02M25/07F01N3/08F01N3/20F01N3/24F02D41/04
    • PROBLEM TO BE SOLVED: To improve purifying performance of NOx by setting a condition in a combustion condition in which rates of inert gas supplied to a combustion chamber is differed from each other in a first operating region of a low load side and a second operating region of a high load side, and setting an air-fuel ratio of exhaust gas to a theoretical air-fuel ratio while the combustion condition is changed from the first combustion condition to the second combustion condition. SOLUTION: In an internal combustion engine 1 wherein NOx absorbent 25 is arranged in an exhaust passage, combustion is changed into first combustion in which a rate of inert gas supplied into a combustion chamber is much more than a rate of inert gas having peaked soot generating rate and soot is hardly generated, and second combustion in which a rate of inert gas supplied into the combustion chamber is few more than the rate of inert gas having peaked soot generating rate. First combustion is performed in an operating region of a low load side and second combustion is performed in an operating region of a high load side. While the combustion is changed from the first combustion into the second combustion, an air-fuel ratio of exhaust gas is set to a stoichiometric air-fuel ratio or a rich condition, and NOx absorbed to the NOx absorbent 25 is discharged and reduced.