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    • 1. 发明授权
    • Spark ignition type internal combustion engine
    • 火花点火式内燃机
    • US08342143B2
    • 2013-01-01
    • US12674846
    • 2009-01-16
    • Mamoru YoshiokaDaisuke AkihisaEiichi KamiyamaYukihiro Nakasaka
    • Mamoru YoshiokaDaisuke AkihisaEiichi KamiyamaYukihiro Nakasaka
    • F02B75/04F01L1/34
    • F02D15/02F02D13/0261F02D41/0025F02D2200/0611Y02T10/18
    • Disclosed is a spark ignition type internal combustion engine, which comprises a variable compression ratio mechanism capable of changing a mechanical compression ratio, and a variable valve timing mechanism capable of controlling the closing timing of an intake valve. The intake air flow to be fed to the inside of a combustion chamber is controlled mainly by changing the closing timing of an intake valve so that the mechanical compression ratio is set higher at an engine low-load running time than that at an engine high-load running time. The mechanical compression ratio at the engine low-load running time before completion of the warm-up of the internal combustion engine is set lower than that at the engine low-load running time after completion of the warm-up of the internal combustion engine. Although the expansion ratio at the engine low-load running time is raised to improve the mileage, it is possible at an engine cold start to heat an exhaust purifying catalyst promptly and to suppress the deterioration of an exhaust emission.
    • 公开了一种火花点火式内燃机,其包括能够改变机械压缩比的可变压缩比机构,以及能够控制进气门的关闭正时的可变气门正时机构。 主要通过改变进气门的关闭正时来控制供给到燃烧室内部的进气流,使发动机低负荷运转时的机械压缩比在发动机高压运转时设定得更高, 负载运行时间。 在内燃机的预热结束之前的发动机低负荷运行时间的机械压缩比设定得比内燃机的预热结束后的发动机低负荷运转时的机械压缩比低。 虽然提高发动机低负荷运转时间的膨胀率以提高里程,但是在发动机冷启动时可以及时加热排气净化催化剂并抑制废气排放的劣化。
    • 2. 发明申请
    • SPARK IGNITION TYPE INTERNAL COMBUSTION ENGINE
    • 火花点火型内燃机
    • US20100294245A1
    • 2010-11-25
    • US12674846
    • 2009-01-16
    • Mamoru YoshiokaDaisuke AkihisaEiichi KamiyamaYukihiro Nakasaka
    • Mamoru YoshiokaDaisuke AkihisaEiichi KamiyamaYukihiro Nakasaka
    • F02B75/04F01L1/34
    • F02D15/02F02D13/0261F02D41/0025F02D2200/0611Y02T10/18
    • Disclosed is a spark ignition type internal combustion engine, which comprises a variable compression ratio mechanism capable of changing a mechanical compression ratio, and a variable valve timing mechanism capable of controlling the closing timing of an intake valve. The intake air flow to be fed to the inside of a combustion chamber is controlled mainly by changing the closing timing of an intake valve so that the mechanical compression ratio is set higher at an engine low-load miming time than that at an engine high-load running time. The mechanical compression ratio at the engine low-load running time before completion of the warm-up of the internal combustion engine is set lower than that at the engine low-load running time after completion of the warm-up of the internal combustion engine. Although the expansion ratio at the engine low-load running time is raised to improve the mileage, it is possible at an engine cold start to heat an exhaust purifying catalyst promptly and to suppress the deterioration of an exhaust emission.
    • 公开了一种火花点火式内燃机,其包括能够改变机械压缩比的可变压缩比机构,以及能够控制进气门的关闭正时的可变气门正时机构。 主要通过改变进气门的关闭正时来控制供给到燃烧室内部的进气流,使发动机低负载模拟时间的机械压缩比在发动机低负荷模拟时间高于发动机高压模式时, 负载运行时间。 在内燃机的预热结束之前的发动机低负荷运行时间的机械压缩比设定得比内燃机的预热结束后的发动机低负荷运转时的机械压缩比低。 虽然提高发动机低负荷运转时间的膨胀率以提高里程,但是在发动机冷启动时可以及时加热排气净化催化剂并抑制废气排放的劣化。
    • 6. 发明授权
    • Electrically heated catalyst
    • 电加热催化剂
    • US09121322B2
    • 2015-09-01
    • US13695532
    • 2010-08-31
    • Takashi WatanabeMamoru Yoshioka
    • Takashi WatanabeMamoru Yoshioka
    • B01D50/00F01N3/20
    • F01N3/2026F01N3/2013F01N3/2871Y02T10/26
    • The present invention is intended to suppress a decrease in insulation resistance between electrodes and a case in an electrically heated catalyst (EHC). The EHC according to the present invention is provided with a heat generation element that is electrically energized to generate heat thereby to heat a catalyst, a case that receives a heat generation element therein, an insulating member that is arranged between the heat generation element and the case for insulating electricity, electrodes that are connected to the heat generation element through an electrode chamber which is a space located between an inner wall surface of the case and an outer peripheral surface of the heat generation element, and a communication passage that makes communication between a portion of an exhaust system of the internal combustion engine, which is other than a portion thereof in which the electrically heated catalyst is arranged, and the electrode chamber.
    • 本发明旨在抑制电极之间的绝缘电阻降低和电加热催化剂(EHC)中的情况。 根据本发明的EHC具有发电元件,其通电以产生热量,从而加热催化剂,其中容纳发热元件的壳体,布置在发热元件和发热元件之间的绝缘构件 通过电极室连接到发热元件的电极,该电极室是位于壳体的内壁表面和发热元件的外周表面之间的空间,以及连通通道, 内燃机的排气系统的一部分,其不同于其中布置有电加热催化剂的部分,以及电极室。
    • 7. 发明授权
    • Electric heating catalyst
    • 电加热催化剂
    • US09060387B2
    • 2015-06-16
    • US13814676
    • 2010-08-23
    • Mamoru YoshiokaNoriaki KumagaiNaoya Takagi
    • Mamoru YoshiokaNoriaki KumagaiNaoya Takagi
    • H05B3/06H05B1/00F01N3/20F01N3/00B01D53/88
    • H05B1/00B01D53/88F01N3/005F01N3/2013F01N2470/24Y02T10/26
    • An object of the invention is to control the penetration of condensed water into an insulation member or a heater element in an electric heating catalyst (EHC). The EHC according to the invention includes a heater element that generates heat by supply of electric current to heat a catalyst, a casing that houses the heater element, an insulation member provided between the heater element and the casing to provide electric insulation, and an electrode connected to the heater element through an electrode chamber, which is a space located between the inner wall surface of the casing and the outer circumferential surface of the heater element. The EHC is further provided with a bypass passage, one end of which is connected to a bottom part of the casing at a position upstream of the upstream end face of the insulation member. The bypass passage bypasses the insulation member.
    • 本发明的一个目的是控制冷凝水渗透到电加热催化剂(EHC)中的绝缘构件或加热元件中。 根据本发明的EHC包括通过供应电流来加热催化剂而产生热量的加热器元件,容纳加热器元件的壳体,设置在加热器元件和壳体之间以提供电绝缘的绝缘部件,以及电极 通过电极室连接到加热器元件,该电极室是位于壳体的内壁表面和加热器元件的外周表面之间的空间。 EHC还设置有旁通通道,其旁边通道在绝缘构件的上游端面的上游位置连接到壳体的底部。 旁通通道绕过绝缘构件。
    • 10. 发明授权
    • Electrically heated catalyst
    • 电加热催化剂
    • US08894942B2
    • 2014-11-25
    • US13821595
    • 2010-09-09
    • Mamoru YoshiokaTakashi Watanabe
    • Mamoru YoshiokaTakashi Watanabe
    • B01D50/00
    • F01N3/2026B01D53/9431B01D53/9454F01N3/2013F01N3/2853F01N3/2871F01N2240/16F01N2330/06F01N2330/10F01N2470/08Y02T10/22Y02T10/26
    • Electricity is suppressed from flowing to a case (4) of an electrically heated catalyst (1). Provision is made for a heat generation element (2) adapted to be electrically energized to generate heat, the case (4) in which the heat generation element (2) is contained, a mat (5) arranged between the heat generation element (2) and the case (4) to insulate electricity and at the same time to support the heat generation element (2), an electrode (6) connected to the heat generation element (2) from outside of the case (4), an insulation part (7) to plug a gap between the case (4) and the electrode (6), an electrode chamber (8) which is a space formed around the electrode (6) at an inner side of the case (4) and at an outer side of the heat generation element (2), and which is formed by providing a gap between the electrode (6) and the mat (5), and a partition part (9) arranged in the electrode chamber (8) at an upstream side of the electrode (6) in a direction of flow of an exhaust gas, in such a manner that the exhaust gas flowing through the interior of the electrode chamber (8) impinges against the partition part (9).
    • 抑制电流流向电加热催化剂(1)的壳体(4)。 规定了适用于通电以产生热量的发热元件(2),其中容纳发热元件(2)的壳体(4),布置在发热元件(2)之间的垫(5) )和壳体(4),以隔离电力并同时支撑发热元件(2),从壳体(4)的外部连接到发热元件(2)的电极(6),绝缘体 插入壳体(4)和电极(6)之间的间隙的部分(7),电极室(8),其在壳体(4)的内侧周围形成在电极(6)周围的空间, 通过在电极(6)和垫(5)之间设置间隙而形成的发热元件(2)的外侧,以及配置在电极室(8)内的分隔部(9) 电极(6)的上游侧沿着排气的流动方向,使得流过电极室(8)的内部的废气, 撞击分隔部分(9)。