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    • 3. 发明申请
    • SYSTEM AND METHOD FOR ENVIRONMENTAL MANAGEMENT OF A VEHICLE
    • 一种车辆环境管理系统与方法
    • US20120067559A1
    • 2012-03-22
    • US13303196
    • 2011-11-23
    • Christopher GreinerGerhard DageHalim WijayaWayne Buescher
    • Christopher GreinerGerhard DageHalim WijayaWayne Buescher
    • B60H1/00
    • B60H1/00964
    • A system and method for environmental management of a vehicle automatically operates a vehicle climate control system to quickly and efficiently defog a vehicle windshield, while still operating at or near environmental comfort guidelines determined by a vehicle occupant. The method may be executed by an HVAC control system that is configured with a preprogrammed algorithm to operate an HVAC to achieve the desired results. A number of sensors can provide inputs to the control system, which can also receive inputs from a number of manual overrides operable by an occupant of the vehicle. The preprogrammed algorithm is configured to act on the various inputs to operate the HVAC to strike an appropriate balance between occupant comfort and windshield defogging.
    • 用于车辆的环境管理的系统和方法自动地操作车辆气候控制系统,以便在车辆乘客确定的环境舒适指导下仍然运行时,快速有效地除雾车辆挡风玻璃。 该方法可以由配置有预编程算法的HVAC控制系统来执行,以操作HVAC以实现期望的结果。 许多传感器可以向控制系统提供输入,该控制系统还可以接收来自车辆的乘客可操作的多个手动覆盖的输入。 预编程算法被配置为作用于各种输入以操作HVAC以在乘员舒适度和挡风玻璃除雾之间达到适当的平衡。
    • 4. 发明申请
    • SYSTEM AND METHOD FOR ENVIRONMENTAL MANAGEMENT OF A VEHICLE
    • 一种车辆环境管理系统与方法
    • US20080183334A1
    • 2008-07-31
    • US11668723
    • 2007-01-30
    • Christopher GreinerGerhard DageHalim WijayaWayne Buescher
    • Christopher GreinerGerhard DageHalim WijayaWayne Buescher
    • B60H1/00
    • B60H1/00964
    • A system and method for environmental management of a vehicle automatically operates a vehicle climate control system to quickly and efficiently defog a vehicle windshield, while still operating at or near environmental comfort guidelines determined by a vehicle occupant. The method may be executed by an HVAC control system that is configured with a preprogrammed algorithm to operate an HVAC to achieve the desired results. A number of sensors can provide inputs to the control system, which can also receive inputs from a number of manual overrides operable by an occupant of the vehicle. The preprogrammed algorithm is configured to act on the various inputs to operate the HVAC to strike an appropriate balance between occupant comfort and windshield defogging.
    • 用于车辆的环境管理的系统和方法自动地操作车辆气候控制系统,以便在车辆乘客确定的环境舒适指导下仍然运行时快速有效地除雾车辆挡风玻璃。 该方法可以由配置有预编程算法的HVAC控制系统来执行,以操作HVAC以实现期望的结果。 许多传感器可以向控制系统提供输入,该控制系统还可以接收来自车辆的乘客可操作的多个手动覆盖的输入。 预编程算法被配置为作用于各种输入以操作HVAC以在乘员舒适度和挡风玻璃除雾之间达到适当的平衡。
    • 5. 发明授权
    • System for environmental management of a vehicle
    • 车辆环境管理系统
    • US08800644B2
    • 2014-08-12
    • US13303196
    • 2011-11-23
    • Christopher GreinerGerhard DageHalim WijayaWayne Buescher
    • Christopher GreinerGerhard DageHalim WijayaWayne Buescher
    • B60H1/00F24F7/00
    • B60H1/00964
    • A system and method for environmental management of a vehicle automatically operates a vehicle climate control system to defog a vehicle windshield, while still operating at or near environmental comfort guidelines determined by a vehicle occupant. The method may be executed by an HVAC control system that is configured with a preprogrammed algorithm to operate an HVAC to achieve the desired results. A number of sensors can provide inputs to the control system, which can also receive inputs from a number of manual overrides operable by an occupant of the vehicle. The preprogrammed algorithm is configured to act on the various inputs to operate the HVAC to strike an appropriate balance between occupant comfort and windshield defogging.
    • 车辆的环境管理的系统和方法自动地操作车辆气候控制系统,以在车辆乘员确定的环境舒适指导下仍然运行时除雾车辆挡风玻璃。 该方法可以由配置有预编程算法的HVAC控制系统来执行,以操作HVAC以实现期望的结果。 许多传感器可以向控制系统提供输入,该控制系统还可以接收来自车辆的乘客可操作的多个手动覆盖的输入。 预编程算法被配置为作用于各种输入以操作HVAC以在乘员舒适度和挡风玻璃除雾之间达到适当的平衡。
    • 7. 发明授权
    • Partial air inlet control strategy for air conditioning system
    • US10639961B2
    • 2020-05-05
    • US12831380
    • 2010-07-07
    • Halim WijayaRanganathan MadhavanCurtis M. JonesManfred Koberstein
    • Halim WijayaRanganathan MadhavanCurtis M. JonesManfred Koberstein
    • B60H1/00
    • B60H1/00849B60H1/00764B60H1/00785
    • A system and method of selecting air intake between 100% fresh air mode and 100% recirculated air mode for optimum heating/cooling performance, fuel economy and/or high voltage (HV) battery power consumption is disclosed. The system and method includes a partial recirculation control strategy in which the air inlet door is moved progressively to any position by taking into account cooling/heating loads and cabin fogging probability. As cooling/heating loads increase the air inlet door moves toward 100% recirculation mode. As fogging probability increases the air inlet door moves toward 100% fresh air mode. By selectively choosing a position between 100% recirculation and 100% fresh air, fuel economy and/or HV battery power consumption is optimized without compromising passenger comfort or causing fogging on interior glass surfaces. In cooling applications the compressor load is minimized and air conditioning performance is improved due to the reduced evaporator cooling load. The direct result of this improvement is increased fuel economy in the case of the internal combustion vehicle, reduced engine on time in the case of the hybrid electric vehicle (due to reduced HV battery power consumption), and reduced HV battery power consumption in the case of the hybrid electric vehicle (HEV) and the electric vehicle (EV). In heating applications, as the heating load is reduced the fuel economy of the internal combustion (IC) engine will be improved, the engine on time is reduced in the case of the HEV, and HV battery power consumption is reduced in the case of the EV.
    • 9. 发明授权
    • Engine start-stop control strategy for optimization of cabin comfort and fuel economy
    • 发动机起停控制策略,优化客舱舒适性和燃油经济性
    • US09181916B2
    • 2015-11-10
    • US13561328
    • 2012-07-30
    • Halim WijayaManfred Koberstein
    • Halim WijayaManfred Koberstein
    • F02N11/08F02D41/04
    • F02N11/0837F02D41/042F02N11/08F02N11/0814F02N11/084F02N11/0848F02N2200/023F02N2200/0804F02N2200/0811F02N2200/0813F02N2200/0815F02N2200/122Y02T10/48
    • A Start-Stop method and system for optimizing a selected set of parameters to provide an ideal balance between cabin thermal comfort and fuel economy performance is disclosed. The method and system include several parameters to manage how long and when the engine OFF time will occur. Such parameters include, but are not limited to, outside ambient temperature, cabin temperature, cabin humidity, engine coolant temperature, and evaporator thermistor temperature. A control logic monitors inputs such as cabin humidity and, under certain conditions, sends a request for the engine to be ON. Other factors influencing engine ON time include inputs from the wiper(s), the heated windshield, the heated back light, the HVAC blower, and the temperature control setting. The disclosed system has utility in both electronic automatic temperature control (EATC) systems as well as in manual temperature control (MTC) systems.
    • 公开了一种用于优化选定参数集以提供机舱热舒适性和燃料经济性之间的理想平衡的起停方法和系统。 该方法和系统包括几个参数来管理发生多长时间和什么时候发生关机时间。 这些参数包括但不限于外部环境温度,机舱温度,机舱湿度,发动机冷却液温度和蒸发器热敏电阻温度。 控制逻辑监控诸如机舱湿度的输入,并且在某些情况下,发送引擎要求为ON的请求。 影响发动机启动时间的其他因素包括雨刮器,加热挡风玻璃,加热背光,暖通空调风扇和温度控制设置的输入。 所公开的系统在电子自动温度控制(EATC)系统以及手动温度控制(MTC)系统中都具有实用性。
    • 10. 发明申请
    • PARTIAL AIR INLET CONTROL STRATEGY FOR AIR CONDITIONING SYSTEM
    • 用于空调系统的部分空气入口控制策略
    • US20120009859A1
    • 2012-01-12
    • US12831380
    • 2010-07-07
    • Halim WijayaRanganathan MadhavanCurtis M. JonesManfred Koberstein
    • Halim WijayaRanganathan MadhavanCurtis M. JonesManfred Koberstein
    • B60H1/00B60S1/54B60H1/02
    • B60H1/00849B60H1/00764B60H1/00785
    • A system and method of selecting air intake between 100% fresh air mode and 100% recirculated air mode for optimum heating/cooling performance, fuel economy and/or high voltage (HV) battery power consumption is disclosed. The system and method includes a partial recirculation control strategy in which the air inlet door is moved progressively to any position by taking into account cooling/heating loads and cabin fogging probability. As cooling/heating loads increase the air inlet door moves toward 100% recirculation mode. As fogging probability increases the air inlet door moves toward 100% fresh air mode. By selectively choosing a position between 100% recirculation and 100% fresh air, fuel economy and/or HV battery power consumption is optimized without compromising passenger comfort or causing fogging on interior glass surfaces. In cooling applications the compressor load is minimized and air conditioning performance is improved due to the reduced evaporator cooling load. The direct result of this improvement is increased fuel economy in the case of the internal combustion vehicle, reduced engine on time in the case of the hybrid electric vehicle (due to reduced HV battery power consumption), and reduced HV battery power consumption in the case of the hybrid electric vehicle (HEV) and the electric vehicle (EV). In heating applications, as the heating load is reduced the fuel economy of the internal combustion (IC) engine will be improved, the engine on time is reduced in the case of the HEV, and HV battery power consumption is reduced in the case of the EV.
    • 公开了一种在100%新鲜空气模式和100%再循环空气模式之间选择进气的系统和方法,以获得最佳加热/冷却性能,燃油经济性和/或高压(HV)电池功率消耗。 该系统和方法包括部分再循环控制策略,其中进气门通过考虑到冷却/加热负载和机舱雾化概率逐渐移动到任何位置。 随着冷却/加热负载的增加,进气门向100%再循环模式移动。 当雾化概率增加时,进气门朝向100%新鲜空气模式移动。 通过选择性地选择100%再循环和100%新鲜空气之间的位置,优化燃油经济性和/或HV电池功率消耗,而不会影响乘客舒适度或引起内部玻璃表面的起雾。 在冷却应用中,压缩机负载最小化,并且由于蒸发器冷却负荷的降低,空气调节性能得到改善。 这种改进的直接结果是在内燃车辆的情况下提高燃料经济性,在混合电动车辆的情况下减少发动机的时间(由于HV电池电力消耗降低),并且在这种情况下降低HV电池功率消耗 的混合电动车辆(HEV)和电动车辆(EV)。 在加热应用中,随着加热负载的降低,内燃(IC)发动机的燃油经济性将得到改善,在HEV的情况下发动机运转时间减少,并且在电池的功率消耗 电动汽车