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    • 92. 发明申请
    • Control method for electronically controlled thermostat
    • 电控温控器的控制方法
    • US20040237911A1
    • 2004-12-02
    • US10801815
    • 2004-03-17
    • NIPPON THERMOSTAT CO., LTD.
    • Mitsuhiro Sano
    • F01P007/14
    • F01P7/167F01P7/048F01P2007/146F01P2023/00F01P2023/08F01P2025/32F01P2070/04
    • The present invention removes the problem conventionally confronted by electronically controlled thermostats that implementation of improved fuel consumption is difficult, and implements high cooling-water temperature controllability, improved fuel consumption, and an improvement of the heater function and so forth with high accuracy and at low cost. The electronically controlled thermostat 21 comprises a heater element, which is an actuator that can be used for cooling-water control of the engine 1 and that is capable of optionally varying the valve-opening ratio, and an engine control unit that computes a target temperature by means of various engine parameters and distributes the power distribution amount required to operate the heater element so that the cooling water temperature reaches the target temperature. The current value distributed to the heater element is determined by monitoring only the actual water temperature of the cooling water. The current value is obtained by reading the difference in the cooling-water temperature variation per unit time and then predicting the cooling-water temperature according to this difference.
    • 本发明消除了电子控制式恒温器通常面临的问题,难以实现改进的燃料消耗,并且以高精度和低的速度实现高冷却水温度可控性,改进的燃料消耗和加热功能的改进等 成本。 电子控制恒温器21包括加热器元件,其是可用于发动机1的冷却水控制并且可以可选地改变阀开启比的致动器,以及计算目标温度的发动机控制单元 通过各种发动机参数,分配操作加热器元件所需的功率分配量,使冷却水温度达到目标温度。 通过仅监测冷却水的实际水温来确定分配给加热器元件的电流值。 通过读取每单位时间的冷却水温度变化的差值,然后根据该差异来预测冷却水温度来获得当前值。
    • 94. 发明申请
    • Hybrid electrical vehicle powertrain thermal control
    • 混合电动汽车动力总成热控制
    • US20040069546A1
    • 2004-04-15
    • US10271420
    • 2002-10-15
    • Zheng LouPeri Sabhapathy
    • B60K011/00
    • B60K6/22B60K11/00B60K2001/003B60L58/24B60L58/25B60L2260/56B60W2050/0045B60W2510/246F01P7/026F01P7/048F01P7/164F01P7/167F01P2007/146F01P2025/40F01P2037/02F01P2050/24Y02T10/7005Y02T10/705
    • The powertrain thermal system of the present invention contains and/or utilizes various sensors and signals. Some are located within the powertrain thermal system itself. However, the majority are located in other systems of the hybrid electrical vehicle. The sensors used by the thermal system include an engine coolant temperature sensor, located at the outlet of the engine water jacket and contained within the existing engine control unit, a transmission fluid temperature sensor, located at the transmission fluid outlet of the liquid-liquid heat exchanger and contained within the transmission control unit, a motor coolant temperature sensor, located between the electric water pump and the inverter cold plate inlet and contained within the powertrain thermal control unit, a stator end-turn temperature sensor, located at the motor stator end-turn and contained within the motor-inverter control unit, a battery temperature sensor, located and contained within the battery control unit, a road speed sensor, contained within the powertrain supervisory control and an ambient temperature sensor, contained within the electronic climate control system. In addition, the present invention comprises a method of providing an optimum thermal environment in a hybrid electrical vehicle, comprising the steps of controlling a motor coolant temperature, controlling a stator end-turn temperature, controlling a transmission fluid temperature, de-rating electric power; and controlling an electric water valve.
    • 本发明的动力系热系统包含和/或利用各种传感器和信号。 一些位于动力系统热系统本身内。 然而,大多数都位于混合动力电动车辆的其他系统中。 热系统使用的传感器包括发动机冷却剂温度传感器,位于发动机水套的出口处,并且包含在现有发动机控制单元内,传动液温度传感器位于液 - 液热传输流体出口处 交换器,并且包含在变速器控制单元内,电动机冷却剂温度传感器,位于电动水泵和逆变器冷板入口之间并且包含在动力系统热控制单元内,定子端匝温度传感器位于电动机定子端 转动并包含在电动机 - 逆变器控制单元内,位于并包含在电池控制单元内的电池温度传感器,包含在电力气候控制系统内的动力系统监视控制内的道路速度传感器和环境温度传感器 。 另外,本发明还提供了一种在混合电动车辆中提供最佳热环境的方法,包括以下步骤:控制电动机冷却剂温度,控制定子端匝温度,控制变速器液体温度,降低电力 ; 并控制电动水阀。
    • 99. 发明申请
    • System and method of controlling airflow in an air delivery system
    • 控制空气输送系统中气流的系统和方法
    • US20030042860A1
    • 2003-03-06
    • US10234264
    • 2002-09-04
    • Louis E. Sulfstede
    • H02P007/00
    • F04D27/004F01P7/048
    • A system and method of controlling airflow within an air delivery system. The method begins by identifying and measuring a particular air conditioning system's blower characteristics. A mathematical relationship for finding a particular CFM based on torque and speed is developed utilizing several discrete airflows within regions or bins within a designated range. The mathematical model is employed by a controller of the air conditioning system for controlling CFM. Additionally, the method may optionally change from an airflow control mode to a blower speed or torque control mode when restrictions are placed upon the air conditioning system.
    • 一种控制空气输送系统内气流的系统和方法。 该方法从识别和测量特定空调系统的鼓风机特性开始。 使用在指定范围内的区域或箱内的几个离散气流来开发用于基于扭矩和速度找到特定CFM的数学关系。 数学模型由空调系统的控制器用于控制CFM。 此外,当限制在空调系统上时,该方法可以可选地从气流控制模式改变到鼓风机速度或转矩控制模式。