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    • 2. 发明授权
    • Methodology for diagnosing engine cooling system warm-up behavior
    • 诊断发动机冷却系统预热行为的方法
    • US6128948A
    • 2000-10-10
    • US249994
    • 1999-02-16
    • Guojun ShiJames R. YurgilRandall L. Gallagher
    • Guojun ShiJames R. YurgilRandall L. Gallagher
    • G01M15/04G01M15/00
    • G01M15/048
    • A method for monitoring engine coolant warm-up behavior utilizing a model-based algorithm which provides a moving threshold for accumulated air or accumulated fuel entering into the engine. The algorithm allows for coolant temperature monitoring under a wide range of transient and steady state driving conditions while maintaining safeguards that prevent a false detection. The accumulated air (or fuel) delivered to the engine during the warm-up interval is used to represent the total heat generated by the engine during the warm-up interval. A time-varying moving calculated accumulated air threshold is therefore defined which can deliver accurate pass-fail decisions in conjunction with a predetermined target temperature.
    • 一种利用基于模型的算法来监测发动机冷却剂预热行为的方法,其提供进入发动机的累积空气或累积燃料的移动阈值。 该算法允许在宽范围的瞬态和稳态驱动条件下进行冷却液温度监测,同时保持防止错误检测的保护措施。 在预热间隔期间输送到发动机的累积空气(或燃料)用于表示在预热间隔期间发动机产生的总热量。 因此定义了随时间变化的移动计算累积空气阈值,其可以结合预定目标温度提供精确的通过失败判定。
    • 3. 发明申请
    • Transmission Gearbox Family in Parallel Shaft Transmission System
    • 传动齿轮箱系列在并联轴传动系统中
    • US20090199666A1
    • 2009-08-13
    • US12030175
    • 2008-02-12
    • Ching-Min YangJian-Gang LuDaming WangGuojun Shi
    • Ching-Min YangJian-Gang LuDaming WangGuojun Shi
    • F16H3/08F16H3/093
    • F16H3/093F16H2003/0807F16H2003/0933F16H2003/0938F16H2200/0047F16H2200/0052F16H2200/0056F16H2200/006F16H2200/0065Y10T74/19233Y10T74/19242
    • This invention relates to a transmission gearbox family to provide five, six, seven, eight and nine speed ratios with a reverse speed ratio and a neutral condition in motor vehicles. The invention arranges a plurality of gearwheels in parallel shaft systems such that minimum number of gearwheels is obtained by either combination of clutches with synchronizers for transmission gearboxes with a torque converter and direct clutch to clutch gearboxes without a torque converter, or synchronizers for automated manual transmission gearboxes. For total number of the gearwheels involving in forward driving, five-speed transmission gearboxes have eight gearwheels, six-speed transmission gearboxes have minimum of nine gearwheels, seven-speed transmission gearboxes have minimum of nine gearwheels, eight-speed transmission gearboxes have minimum of nine gearwheels and nine-speed transmission gearboxes have minimum of nine gearwheels, respectively. Each family member has three parallel shafts with either selectively or continuously interconnected with the gearwheels through the engaged single or multiple torque transmitting mechanisms. The direct clutch-to-clutch gearboxes without a torque converter and automated manual gearboxes have a mechanical damper and a main clutch.
    • 本发明涉及一种传动齿轮箱系列,用于提供五,六,七,八和九个速比,其中机动车辆的倒档速度和中性条件。 本发明在平行轴系统中布置多个齿轮,使得通过离合器与具有变矩器的传动变速箱的同步器的离合器的组合获得最少数量的齿轮,而没有变矩器的直接离合器到离合器变速器,或用于自动手动变速器的同步器 变速箱。 对于涉及前进驱动的齿轮总数,五速变速箱有八个齿轮,六速变速箱最少有九个齿轮,七档变速箱最少有九个齿轮,八速变速箱最少有 九个齿轮和九档变速箱分别至少有九个齿轮。 每个家庭成员具有三个平行的轴,其通过接合的单个或多个扭矩传递机构与齿轮选择性地或连续地互连。 没有变矩器和自动手动变速箱的直接离合器离合器变速箱具有机械阻尼器和主离合器。
    • 4. 发明申请
    • Automatic transmission using a shift support system
    • 使用换档支持系统进行自动变速
    • US20060225527A1
    • 2006-10-12
    • US11099401
    • 2005-04-06
    • Ching-Min YangGuojun Shi
    • Ching-Min YangGuojun Shi
    • F16H3/08
    • F16H3/006F16H47/06F16H2200/0052Y10T74/19228
    • An automatic transmission utilizes a shift support system using combination of coupled clutch assemblies with a fluid drive and a gear system to provide multi-speed ratios with one reverse ratio without excessive heat generation. The fluid drive has an impeller and a turbine, and each coupled clutch assembly has two respective inputs from the fluid drive impeller and turbine with one output to the gear system. Each coupled clutch assembly provides possibilities of either connection or disconnection for engine to alternatively obtain different gear ratio speeds, or drive both odd and even gears at the same time for a smooth shift transition. Utilization of the shift support system with torque transmitting elements to provide connections between different gear sets allows the transmission to be operated in higher reliability and less complicated control than dual clutch transmission with similar efficiency.
    • 自动变速器利用换档支撑系统,其使用耦合离合器组件与流体驱动器和齿轮系统的组合,以提供具有一个反向比例的多速比而不产生过多的热量。 流体驱动器具有叶轮和涡轮机,并且每个耦合的离合器组件具有来自流体驱动叶轮和涡轮机的两个相应的输入,其中一个输出到齿轮系统。 每个联接的离合器组件提供用于发动机的连接或断开的可能性,以交替地获得不同的齿轮比速度,或同时驱动奇数和偶数齿轮以进行平稳的换档转换。 利用具有扭矩传递元件的换档支撑系统以提供不同齿轮组之间的连接,允许变速器以比具有类似效率的双离合器变速器更高的可靠性和更不复杂的控制操作。
    • 6. 发明授权
    • Method and apparatus for monitoring catalyst efficiency and secondary air injection
    • 监测催化剂效率和二次注气的方法和装置
    • US06802181B2
    • 2004-10-12
    • US10341616
    • 2003-01-14
    • Wenbo WangMatthew J. RoelleGuojun Shi
    • Wenbo WangMatthew J. RoelleGuojun Shi
    • F01N300
    • F01N11/007F01N3/22Y02T10/47
    • Method and apparatus to monitor secondary air injection and catalyst conversion efficiency. The method includes operating an engine in a rich condition after detecting an engine steady state condition. The secondary air injector injects air into an exhaust stream to simulate a lean engine condition. The injection of the air into the exhaust stream is ceased after both inlet and outlet sensors detect the lean condition. After ceasing air injection, a lag time is determined between the inlet sensor detecting the rich condition and the outlet sensor detecting the rich operating condition. An oxygen storage capacity of the catalytic converter is calculated based on the lag time. An efficiency of the catalytic converter is determined as a function of the storage capacity. Additionally, performance of the secondary air injector is monitored. If the inlet sensor fails to detect the lean condition after the secondary air injector is active, a fault is signaled.
    • 监测二次空气注入和催化剂转化效率的方法和装置。 该方法包括在检测到发动机稳态条件之后,操作处于丰富状态的发动机。 二次空气喷射器将空气喷射到排气流中以模拟稀薄发动机状况。 在入口和出口传感器检测到稀薄状态之后,将空气注入排气流中停止。 在停止空气喷射之后,在检测浓气条件的入口传感器和检测富操作状态的出口传感器之间确定滞后时间。 基于滞后时间计算催化转化器的储氧能力。 催化转化器的效率被确定为存储容量的函数。 此外,监测二次空气喷射器的性能。 如果入口传感器在二次空气喷射器激活后未能检测到稀薄状态,则发出故障信号。
    • 8. 发明授权
    • Methodology of robust initialization of catalyst for consistent oxygen storage capacity measurement
    • 稳定的初始化催化剂的方法,用于一致的储氧能力测量
    • US06631611B2
    • 2003-10-14
    • US09867977
    • 2001-05-30
    • Guojun ShiSharanjit SinghMinghui KaoDavid W. Dempsey
    • Guojun ShiSharanjit SinghMinghui KaoDavid W. Dempsey
    • F01N300
    • F01N11/007F01N11/00F01N2550/02F01N2900/0422F02D41/003F02D41/1441F02D41/1474F02D41/1475F02D41/1495F02D41/187F02D41/2454F02D2200/0816F02M26/15F02P9/005Y02T10/47
    • A method of initializing the catalyst converter for monitoring the conversion efficiencies of a catalytic converter by measuring the oxygen storage capacity (OSC) of the converter. The measurement of the OSC indicates the degree of health of the converter. Under the same engine running conditions, the greater the OSC measurement, the healthier the converter. The catalyst needs to be set to either a rich state or a lean state prior to the measurement of its OSC time. This process is called catalyst state initialization. The catalyst has to be fully saturated from test to test in order to make consistent OSC measurements. This is through open loop fuel control by commanding a lean air to fuel ratio and then monitoring thepost-O2 sensor voltage until it falls below a calibrated value (e.g. 80 mV) indicating a lean state. The system continues to command a lean air to fuel ratio (e.g. 6%) for a calibrated duration of time (e.g. 3 seconds) to saturate the catalytic converter and drive it to a fixed saturation state. This ensures consistent OSC measurement in the second stage of the test.
    • 一种初始化催化剂转化器的方法,用于通过测量转化器的储氧容量(OSC)来监测催化转化器的转化效率。 OSC的测量值表示转换器的健康程度。 在相同的发动机运行条件下,OSC测量越大,转换器越健康。 在测量OSC时间之前,需要将催化剂设定为富状态或稀态。 这个过程称为催化剂状态初始化。 催化剂必须从试验完全饱和才能进行一致的OSC测量。 这是通过指挥稀空燃比的开环燃料控制,然后监测氧气传感器电压,直到它低于指示稀薄状态的校准值(例如80mV)。 系统在校准的持续时间(例如3秒)内继续命令稀空燃比(例如6%),以使催化转化器饱和并将其驱动到固定饱和状态。 这样可以在测试的第二阶段确保OSC测量的一致性。