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    • 1. 发明授权
    • Intake mixture introducing apparatus
    • 进气混合物引入装置
    • US08267070B2
    • 2012-09-18
    • US12744946
    • 2008-11-28
    • Akira NakawataseTaketo NagasakiJunji Watanabe
    • Akira NakawataseTaketo NagasakiJunji Watanabe
    • F02B47/08F02B47/10
    • F02M35/10118F02B75/22F02M26/19F02M26/44F02M35/10104F02M35/10222F02M35/116Y02T10/14
    • High pressure regions (31H to 35H) and low pressure regions (31L to 34L) are created based on the exhaust gas flow at curves in an EGR pipe (30), thereby enabling the exhaust gas pressure at inlets (21b to 26b) of gas introduction passages (21a to 26a) to be adjusted. Accordingly, regardless of the number of cylinders or whether the lengths of the flow paths of the EGR pipe (30) are the same, the exhaust pressure at the inlets (21b to 26b) of the gas introduction passages (21a to 26a) can be appropriately adjusted so any difference in pressure of exhaust gas introduced into branch pipes (21 to 26) can be reduced. In this way, the EGR rates of the cylinders can be made closer or the same such that stable combustion can be achieved, thus enabling stable engine operation to be maintained. The EGR pipe (30) is arranged weaving closely between the branch pipes (21 to 26) so space efficiency can be improved and a sufficient amount of exhaust gas can be introduced evenly into the cylinders.
    • 基于EGR管(30)中的曲线处的废气流量,产生高压区域(31H〜35H)和低压区域(31L〜34L),从而能够使气体入口(21b〜26b)的排气压力 导入通路(21a〜26a)被调整。 因此,无论气缸的数量还是EGR管30的流路长度是否相同,气体导入通路(21a〜26a)的入口(21b〜26b)的排气压力可以是 适当地调节,从而可以减少引入分支管(21至26)的废气的压力差。 以这种方式,可以使气缸的EGR率更接近或相同,使得可以实现稳定的燃烧,从而能够保持发动机的稳定运行。 EGR管(30)布置在分支管(21至26)之间,因此可以提高空间效率,并且可以将足够量的废气均匀地引入到气缸中。
    • 2. 发明申请
    • INTAKE MIXTURE INTRODUCING APPARATUS
    • 进口混合介绍设备
    • US20120090578A1
    • 2012-04-19
    • US12744946
    • 2008-11-28
    • Akira NakawataseTaketo NagasakiJunji Watanabe
    • Akira NakawataseTaketo NagasakiJunji Watanabe
    • F02M35/10F02M25/00
    • F02M35/10118F02B75/22F02M26/19F02M26/44F02M35/10104F02M35/10222F02M35/116Y02T10/14
    • High pressure regions (31H to 35H) and low pressure regions (31L to 34L) are created based on the exhaust gas flow at curves in an EGR pipe (30), thereby enabling the exhaust gas pressure at inlets (21b to 26b) of gas introduction passages (21a to 26a) to be adjusted. Accordingly, regardless of the number of cylinders or whether the lengths of the flow paths of the EGR pipe (30) are the same, the exhaust pressure at the inlets (21b to 26b) of the gas introduction passages (21a to 26a) can be appropriately adjusted so any difference in pressure of exhaust gas introduced into branch pipes (21 to 26) can be reduced. In this way, the EGR rates of the cylinders can be made closer or the same such that stable combustion can be achieved, thus enabling stable engine operation to be maintained. The EGR pipe (30) is arranged weaving closely between the branch pipes (21 to 26) so space efficiency can be improved and a sufficient amount of exhaust gas can be introduced evenly into the cylinders.
    • 基于EGR管(30)中的曲线处的废气流量,产生高压区域(31H〜35H)和低压区域(31L〜34L),从而能够使气体入口(21b〜26b)的排气压力 导入通路(21a〜26a)被调整。 因此,无论气缸的数量还是EGR管30的流路长度是否相同,气体导入通路(21a〜26a)的入口(21b〜26b)的排气压力可以是 适当地调节,从而可以减少引入分支管(21至26)的废气的压力差。 以这种方式,可以使气缸的EGR率更接近或相同,使得可以实现稳定的燃烧,从而能够保持发动机的稳定运行。 EGR管(30)布置在分支管(21至26)之间,因此可以提高空间效率,并且可以将足够量的废气均匀地引入到气缸中。
    • 6. 发明申请
    • INTAKE AIRFLOW CONTROL MECHANISM FOR ENGINE
    • 采用发动机的气流控制机制
    • US20090241889A1
    • 2009-10-01
    • US12413781
    • 2009-03-30
    • Akira Nakawatase
    • Akira Nakawatase
    • F02M35/10F16K31/44
    • F02D9/1095F02D9/1065
    • An intake airflow control mechanism for an engine includes a first valve shaft on which valve elements of intake airflow control valves are fitted in such a manner that the valve elements pivot in accordance with the rotation of the first valve shaft; a second valve shaft on which valve elements of intake airflow control valves are fitted in such a manner that the valve elements pivot in accordance with the rotation of the second valve shaft; an actuator that rotates the first valve shaft, a link mechanism that transmits the rotation of the first valve shaft to the second valve shaft, a stopper that stops the rotation of the second valve shaft when the second valve shaft is in a prescribed rotational position, and a sensor that detects the amount by which the first valve shaft is rotated by the actuator.
    • 用于发动机的进气流控制机构包括:第一阀轴,进气流量控制阀的阀元件装配在该第一阀轴上,使得阀元件根据第一阀轴的旋转而枢转; 第二阀轴,其中进气流量控制阀的阀元件以这样的方式被装配,使得阀元件根据第二阀轴的旋转而枢转; 旋转第一阀轴的致动器,将第一阀轴的旋转传递到第二阀轴的连杆机构,当第二阀轴处于规定的旋转位置时停止第二阀轴的旋转的止动件, 以及传感器,其检测第一阀轴由致动器旋转的量。
    • 9. 发明授权
    • Intake airflow control mechanism for engine
    • 发动机进气流量控制机构
    • US07814876B2
    • 2010-10-19
    • US12413781
    • 2009-03-30
    • Akira Nakawatase
    • Akira Nakawatase
    • F02B31/00
    • F02D9/1095F02D9/1065
    • An intake airflow control mechanism for an engine includes a first valve shaft on which valve elements of intake airflow control valves are fitted in such a manner that the valve elements pivot in accordance with the rotation of the first valve shaft; a second valve shaft on which valve elements of intake airflow control valves are fitted in such a manner that the valve elements pivot in accordance with the rotation of the second valve shaft; an actuator that rotates the first valve shaft, a link mechanism that transmits the rotation of the first valve shaft to the second valve shaft, a stopper that stops the rotation of the second valve shaft when the second valve shaft is in a prescribed rotational position, and a sensor that detects the amount by which the first valve shaft is rotated by the actuator.
    • 用于发动机的进气流控制机构包括:第一阀轴,进气流量控制阀的阀元件装配在该第一阀轴上,使得阀元件根据第一阀轴的旋转而枢转; 第二阀轴,其中进气流量控制阀的阀元件以这样的方式被装配,使得阀元件根据第二阀轴的旋转而枢转; 旋转第一阀轴的致动器,将第一阀轴的旋转传递到第二阀轴的连杆机构,当第二阀轴处于规定的旋转位置时停止第二阀轴旋转的止动件, 以及传感器,其检测第一阀轴由致动器旋转的量。