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    • 4. 发明授权
    • Vehicle active brake control with bank angle compensation
    • 车辆主动制动控制,带斜角补偿
    • US06195606B1
    • 2001-02-27
    • US09207012
    • 1998-12-07
    • David John BartaAleksander Boguslaw Hac
    • David John BartaAleksander Boguslaw Hac
    • G06F770
    • B60T8/17552B60T2210/12B60T2210/22B60T2230/02
    • An improved active brake control method which compensates for the effects of a banked road surface under both steady state and transient operating conditions of the vehicle. The control includes an observer for estimating the lateral velocity of the vehicle as a means of determining vehicle slip angle, and a time derivative of the estimated lateral velocity is used along with measured values of lateral acceleration, vehicle speed and yaw rate to compute the lateral acceleration component due to the banked road surface, referred to as the bank acceleration. The bank acceleration, in turn, is then used to correct the values of measured steering angle and the measured lateral acceleration used (1) to develop the desired yaw rate, slip angle and lateral acceleration, and (2) to estimate the surface coefficient of adhesion and slip angle. Partial compensation can be achieved by applying suitable gain factors to the computed bank acceleration, if desired.
    • 一种改进的主动制动控制方法,其补偿在车辆的稳态和瞬时操作条件下的堤岸路面的影响。 该控制包括用于估计车辆的侧向速度的观察者作为确定车辆滑移角的手段,并且使用所估计的横向速度的时间导数以及横向加速度,车辆速度和横摆率的测量值来计算侧向 加速度分量由于堤岸路面,称为堤岸加速度。 然后,银行加速度又用于校正测量的转向角和所使用的测量的横向加速度的值(1),以产生所需的横摆角速度,滑移角和横向加速度,以及(2)估计表面系数 附着力和滑移角。 如果需要,可以通过将合适的增益因子应用于计算的库加速度来实现部分补偿。
    • 5. 发明授权
    • Hydraulic mount apparatus for supporting vibration source
    • 用于支撑振动源的液压安装装置
    • US09322451B2
    • 2016-04-26
    • US14232511
    • 2012-06-07
    • Eric Louis SchumannDavid John BartaBrent Wade Fourman
    • Eric Louis SchumannDavid John BartaBrent Wade Fourman
    • F16F13/10F16F13/26F16F13/30
    • F16F13/10F16F13/105F16F13/264F16F13/305F16F2224/0283F16F2224/045F16F2230/18
    • A hydraulic mount apparatus (20) for supporting a vibration source is disclosed. The mount apparatus (20) includes a housing (22) that defines a housing chamber (24) separated by a partition assembly (62) into a pumping chamber (64) and a receiving chamber (66), each containing a magnetorheological fluid (68). A flexible body (48) is partially disposed in the pumping chamber (64) for deforming elastically in response to vibrations caused by an external excitation. A fluid passage (106) extends between the pumping chamber (64) and the receiving chamber (66) for passing the fluid therebetween during low frequency vibrations. A piezostack actuator (118) partially extends into the pumping chamber (64) for moving within the pumping chamber (64) for varying the volume of the pumping chamber (64) to prevent a pressure increase in the pressure chamber to substantially cancel relatively high frequency vibrations.
    • 公开了一种用于支撑振动源的液压安装装置(20)。 安装装置(20)包括壳体(22),其限定由分隔组件(62)分离成泵送室(64)的容纳室(24)和容纳室(66),每个容纳磁流变流体(68) )。 柔性体(48)部分地设置在泵送室(64)中,用于响应于由外部激励引起的振动而弹性变形。 流体通道(106)在泵送室(64)和接收室(66)之间延伸,用于在低频振动期间使流体通过。 压柱式致动器(118)部分地延伸到泵送室(64)中,用于在泵送室(64)内移动以改变泵送室(64)的体积,以防止压力室中的压力增加以基本上抵消相对高的频率 振动
    • 6. 发明申请
    • HYDRAULIC MOUNT APPARATUS FOR SUPPORTING VIBRATION SOURCE
    • 用于支撑振动源的液压装置
    • US20140217661A1
    • 2014-08-07
    • US14232511
    • 2012-06-07
    • Eric Louis SchumannDavid John BartaBrent Wade Fourman
    • Eric Louis SchumannDavid John BartaBrent Wade Fourman
    • F16F13/10F16F13/26F16F13/30
    • F16F13/10F16F13/105F16F13/264F16F13/305F16F2224/0283F16F2224/045F16F2230/18
    • A hydraulic mount apparatus (20) for supporting a vibration source is disclosed. The mount apparatus (20) includes a housing (22) that defines a housing chamber (24) separated by a partition assembly (62) into a pumping chamber (64) and a receiving chamber (66), each containing a magnetorheological fluid (68). A flexible body (48) is partially disposed in the pumping chamber (64) for deforming elastically in response to vibrations caused by an external excitation. A fluid passage (106) extends between the pumping chamber (64) and the receiving chamber (66) for passing the fluid therebetween during low frequency vibrations. A piezostack actuator (118) partially extends into the pumping chamber (64) for moving within the pumping chamber (64) for varying the volume of the pumping chamber (64) to prevent a pressure increase in the pressure chamber to substantially cancel relatively high frequency vibrations.
    • 公开了一种用于支撑振动源的液压安装装置(20)。 安装装置(20)包括壳体(22),其限定由分隔组件(62)分离成泵送室(64)的容纳室(24)和容纳室(66),每个容纳室具有磁流变流体 )。 柔性体(48)部分地设置在泵送室(64)中,用于响应于由外部激励引起的振动而弹性变形。 流体通道(106)在泵送室(64)和接收室(66)之间延伸,用于在低频振动期间使流体通过。 压柱式致动器(118)部分地延伸到泵送室(64)中,用于在泵送室(64)内移动以改变泵送室(64)的体积,以防止压力室中的压力增加以基本上抵消相对高的频率 振动
    • 7. 发明授权
    • Double pumper magneto-rheological hydraulic tie bar assembly
    • 双泵磁流变液压拉杆总成
    • US09273751B2
    • 2016-03-01
    • US14232469
    • 2012-06-04
    • Stephen Lewis SettyDavid John BartaBrent Wade FourmanEric Louis SchumannSteven E. Pyle
    • Stephen Lewis SettyDavid John BartaBrent Wade FourmanEric Louis SchumannSteven E. Pyle
    • F16F13/30
    • F16F13/305F16F2224/045
    • A tie bar assembly includes front and rear units each including inner inserts interconnected with outer inserts with webs of elastomeric material. A pole sub-assembly is disposed between the units. The pole sub-assembly and the units define front and rear fluid chambers containing a magneto-rheological fluid. Fluid orifices are disposed through the pole sub-assembly for flow of the magneto-rheological fluid between fluid chambers. An electromagnet coil generates an electromagnetic field to affect viscosity of the magneto-rheological fluid. A connecting rod connects inner inserts and is slidably disposed through the pole sub-assembly for causing movement of the magneto-rheological fluid between fluid chambers. A displacement sensor detects movement to generate a signal to the electromagnet coil. Front and rear travel cushions are each disposed on the inner inserts for limiting the movement of the inner inserts toward the pole sub-assembly.
    • 拉杆组件包括前部和后部单元,每个包括内部插入件,该内部插入件与外部插入件与弹性体材料带互连。 极子组件设置在各单元之间。 杆子组件和单元定义包含磁流变流体的前后流体室。 流体孔通过极子组件设置,用于在流体室之间流动磁流变流体。 电磁线圈产生电磁场以影响磁流变流体的粘度。 连接杆连接内部插入件并且可滑动地设置穿过极子组件,以使磁流变流体在流体室之间移动。 位移传感器检测运动以向电磁线圈产生信号。 前后行走缓冲垫各自设置在内部插入件上,用于限制内部插入件朝向极子组件的运动。
    • 8. 发明授权
    • Magnetorheological fluid-based mount apparatus including rate dip track passage
    • 磁流变液体安装装置,包括速度跟踪通道
    • US09051989B2
    • 2015-06-09
    • US14232547
    • 2012-07-12
    • Eric Louis SchumannDavid John BartaBrent Wade FourmanStephen Lewis Setty
    • Eric Louis SchumannDavid John BartaBrent Wade FourmanStephen Lewis Setty
    • F16F7/10F16F9/53F16F13/30F16F9/46F16F9/512
    • F16F9/537F16F9/466F16F9/5126F16F13/305
    • A magnetorheological fluid-based hydraulic mount apparatus (20, 220) for supporting a vibration source on a base is disclosed. A main fluid passage (104, 304) extends between pumping chamber (64, 264) and receiving chamber (66, 266) for passing the fluid therebetween. Electromagnet coil (98, 298) variably generates a magnetic flux across the main fluid passage to variably change the damping stiffness of the mount. A rate dip track passage (120, 320) extends between the pumping chamber (64, 264) and receiving chamber (66, 266) for oscillating the magnetorheological fluid (68, 268) therethrough to decrease the dynamic stiffness of the mount apparatus (20, 220) at predetermined frequencies. A controller (108) applies a current through the electromagnet coils (98, 298) at the predetermined frequencies and frequencies relatively close to and above the redetermined frequencies for substantially preventing the magnetorheological fluid (68, 268) from flowing through the main fluid passage (104, 304) to force the magnetorheological fluid (68, 268) to flow substantially only through the rate dip track passage (120, 320) for preventing a sharp increase in the dynamic stiffness of the hydraulic mount apparatus (20, 220) from occurring at these frequencies.
    • 公开了一种用于在基座上支撑振动源的基于磁流变液体的液压安装装置(20,220)。 主流体通道(104,304)在泵送室(64,264)和接收室(66,266)之间延伸,用于使流体在其间通过。 电磁线圈(98,298)可变地产生穿过主流体通道的磁通量,以可变地改变底座的阻尼刚度。 速率倾斜轨道通道(120,320)在泵送室(64,264)和接收室(66,266)之间延伸,用于使磁流变流体(68,268)振动,从而降低安装装置(20)的动态刚度 ,220)。 控制器(108)以相对接近和高于重新确定的频率的预定频率和频率施加电流通过电磁线圈(98,298),用于基本上防止磁流变流体(68,268)流过主流体通道 104,304)以迫使磁流变流体(68,268)基本上仅通过速率倾斜轨道通道(120,320)流动,以防止液压安装装置(20,220)的动态刚度的急剧增加不发生 在这些频率。
    • 9. 发明申请
    • MAGNETORHEOLOCIGAL FLUID-BASED MOUNT APPARATUS INCLUDING RATE DIP TRACK PASSAGE
    • 基于流体的基于流体的装置包括速率DIP跟踪通道
    • US20140216869A1
    • 2014-08-07
    • US14232547
    • 2012-07-12
    • Eric Louis SchumannDavid John BartaBrent Wade FourmanStephen Lewis Setty
    • Eric Louis SchumannDavid John BartaBrent Wade FourmanStephen Lewis Setty
    • F16F9/53F16F9/46F16F9/512
    • F16F9/537F16F9/466F16F9/5126F16F13/305
    • A magnetorheological fluid-based hydraulic mount apparatus (20, 220) for supporting a vibration source on a base is disclosed. A main fluid passage (104, 304) extends between pumping chamber (64, 264) and receiving chamber (66, 266) for passing the fluid therebetween. Electromagnet coil (98, 298) variably generates a magnetic flux across the main fluid passage to variably change the damping stiffness of the mount. A rate dip track passage (120, 320) extends between the pumping chamber (64, 264) and receiving chamber (66, 266) for oscillating the magnetorheological fluid (68, 268) therethrough to decrease the dynamic stiffness of the mount apparatus (20, 220) at predetermined frequencies. A controller (108) applies a current through the electromagnet coils (98, 298) at the predetermined frequencies and frequencies relatively close to and above the redetermined frequencies for substantially preventing the magnetorheological fluid (68, 268) from flowing through the main fluid passage (104, 304) to force the magnetorheological fluid (68, 268) to flow substantially only through the rate dip track passage (120, 320) for preventing a sharp increase in the dynamic stiffness of the hydraulic mount apparatus (20, 220) from occurring at these frequencies.
    • 公开了一种用于在基座上支撑振动源的基于磁流变液体的液压安装装置(20,220)。 主流体通道(104,304)在泵送室(64,264)和接收室(66,266)之间延伸,用于使流体在其间通过。 电磁线圈(98,298)可变地产生穿过主流体通道的磁通量,以可变地改变底座的阻尼刚度。 速率倾斜轨道通道(120,320)在泵送室(64,264)和接收室(66,266)之间延伸,用于使磁流变流体(68,268)振动,从而降低安装装置(20)的动态刚度 ,220)。 控制器(108)以相对接近和高于重新确定的频率的预定频率和频率施加电流通过电磁线圈(98,298),用于基本上防止磁流变流体(68,268)流过主流体通道 104,304)以迫使磁流变流体(68,268)基本上仅通过速率倾斜轨道通道(120,320)流动,以防止液压安装装置(20,220)的动态刚度的急剧增加不发生 在这些频率。
    • 10. 发明申请
    • DOUBLE PUMPER MAGNETO-RHEOLOGICAL HYDRAULIC TIE BAR ASSEMBLY
    • 双泵液压液压液压杆组件
    • US20140217660A1
    • 2014-08-07
    • US14232469
    • 2012-06-04
    • Stephen Lewis SettyDavid John BartaBrent Wade FourmanEric Louis SchumannSteven E. Pyle
    • Stephen Lewis SettyDavid John BartaBrent Wade FourmanEric Louis SchumannSteven E. Pyle
    • F16F13/30
    • F16F13/305F16F2224/045
    • A tie bar assembly includes front and rear units each including inner inserts interconnected with outer inserts with webs of elastomeric material. A pole sub-assembly is disposed between the units. The pole sub-assembly and the units define front and rear fluid chambers containing a magneto-rheological fluid. Fluid orifices are disposed through the pole sub-assembly for flow of the magneto-rheological fluid between fluid chambers. An electromagnet coil generates an electromagnetic field to affect viscosity of the magneto-rheological fluid. A connecting rod connects inner inserts and is slidably disposed through the pole sub-assembly for causing movement of the magneto-rheological fluid between fluid chambers. A displacement sensor detects movement to generate a signal to the electromagnet coil. Front and rear travel cushions are each disposed on the inner inserts for limiting the movement of the inner inserts toward the pole sub-assembly.
    • 拉杆组件包括前部和后部单元,每个包括内部插入件,该内部插入件与外部插入件与弹性体材料带互连。 极子组件设置在各单元之间。 杆子组件和单元定义包含磁流变流体的前后流体室。 流体孔通过极子组件设置,用于在流体室之间流动磁流变流体。 电磁线圈产生电磁场以影响磁流变流体的粘度。 连接杆连接内部插入件并且可滑动地设置穿过极子组件,以使磁流变流体在流体室之间移动。 位移传感器检测运动以向电磁线圈产生信号。 前后行走缓冲垫各自设置在内部插入件上,用于限制内部插入件朝向极子组件的运动。