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    • 21. 发明授权
    • Multiple-strategy crash discrimination system
    • 多策略碰撞判别系统
    • US5490069A
    • 1996-02-06
    • US181616
    • 1994-01-14
    • Tony GioutsosEdward J. Gillis
    • Tony GioutsosEdward J. Gillis
    • B60R22/46B60R21/01B60R21/013B60R21/015B60R21/16B60R21/32
    • B60R21/013B60R21/01534B60R2021/01027B60R2021/01315
    • A system (10) and method for actuating a vehicle air bag (38) uses an optical detector (12) to generate an output (22) representative of the distance between a vehicle occupant and a fixed structure within the vehicle. The output (22) is subsequently used by a signal processor/discrimination unit (26) to generate data representative of actual occupant conditions, such as transitory occupant position, velocity and/or acceleration. The occupant condition data is used to select the temporally optimal one of a plurality of different predetermined parameter-based crash discrimination strategies (R,S,T,X,Y,Z), and perhaps further used as a decisional criterion in at least one strategy. Each strategy employs different decisional criteria to provide a different range of actual times to fire. The different decisional criteria of the available strategies may be the result of uniquely-different parameter-based crash discrimination algorithms, or otherwise-identical parameter-based algorithms employing different thresholds, or both. The air bag is actuated when the decisional criteria of the selected strategy are satisfied to generate an actual time to fire. The present system and method thus optimize crash discrimination analysis by customizing the analysis in real time to match actual rather than assumed occupant conditions.
    • 用于致动车辆安全气囊(38)的系统(10)和方法使用光学检测器(12)来生成代表车辆乘客与车辆内的固定结构之间的距离的输出(22)。 输出(22)随后由信号处理器/鉴别单元(26)用于产生表示实际乘员条件的数据,例如临时乘员位置,速度和/或加速度。 乘员条件数据用于选择多个不同的基于预定参数的碰撞识别策略(R,S,T,X,Y,Z)中的时间上最佳的一个,并且还可以进一步用作至少一个 战略。 每个策略都采用不同的决策标准来提供不同的实际时间范围。 可用策略的不同决定性标准可能是独特的基于参数的崩溃识别算法或采用不同阈值的其他相同参数的算法或两者的结果。 当满足所选择的策略的决定性标准以产生实际的发射时间时,气囊被启动。 因此,本系统和方法通过实时定制分析来优化碰撞辨别分析,以匹配实际而不是假定的乘客条件。
    • 24. 发明授权
    • Vehicle crash simulator system for testing crash sensors
    • 用于测试碰撞传感器的车辆碰撞模拟系统
    • US5345402A
    • 1994-09-06
    • US71785
    • 1993-06-04
    • Tony GioutsosMichael A. Piskie
    • Tony GioutsosMichael A. Piskie
    • G01P21/00B60R21/01G01M7/08G01M17/007G01M99/00G06G7/70G09B25/02G06G7/48B60Q11/00B60R21/00
    • G01M17/0078B60R21/0132G06G7/70G09B25/02
    • A system (10) for simulating vehicle crashes for testing or evaluating the reliability of a vehicle crash sensor (20) includes a model waveform generator (16) which utilizes a method of modeling an actual vehicle crash waveform to generate an infinite set of model crash waveforms, and subsequently inputs these sets of modeled crash waveforms into a thruster apparatus (12). The thruster apparatus (12) mechanically exerts a force onto the crash sensor (20) corresponding to each input model waveform. The crash sensor response is tracked and analyzed by a test analyzer (18). The model crash waveforms are generated by breaking down a predetermined crash waveform into a crash pulse (signal of interest) and multiplicative noise signal. The multiplicative noise signal is then statistically characterized as a function of time. Randomly variable waveforms from a white noise generator (128) are then modified with the statistical characterization and multiplied with the signal of interest to generate the infinite set of model crash waveforms.
    • 用于模拟车辆碰撞以用于测试或评估车辆碰撞传感器(20)的可靠性的系统(10)包括模型波形发生器(16),其利用对实际车辆碰撞波形进行建模的方法来产生无限的模型碰撞 波形,并随后将这些建模的碰撞波形组输入推进器装置(12)。 推进器装置(12)对应于每个输入模型波形对碰撞传感器(20)机械施加力。 碰撞传感器响应由测试分析仪(18)进行跟踪和分析。 通过将预定的碰撞波形分解成碰撞脉冲(感兴趣的信号)和乘法噪声信号来产生模型碰撞波形。 然后乘法噪声信号被统计学地表征为时间的函数。 然后用统计特征修改来自白噪声发生器(128)的随机可变波形,并与感兴趣的信号相乘以产生无限的模型碰撞波形。
    • 25. 发明授权
    • Crash detection system
    • 碰撞检测系统
    • US06438475B1
    • 2002-08-20
    • US09254699
    • 2000-01-03
    • Tony GioutsosCraig WhiteBrian J. ZahnDaniel N. TabarDavid C. Milo
    • Tony GioutsosCraig WhiteBrian J. ZahnDaniel N. TabarDavid C. Milo
    • B60R2200
    • B60R21/0132B60R21/013B60R21/01558B60R2021/0004B60R2021/0006B60R2021/01027
    • A crash detection system comprises two sensors with complementary performance characteristics, a controller evaluates the signals from both sensors to determine whether an airbag should be activated, when an airbag should be activated and whether multiple stages of the airbag should be activated. The first sensor preferably comprises a ball-in-tube sensor and the second sensor preferably comprises an electronic sensing module comprising an accelerometer and a CPU. The CPU receives signals from the accelerometer and the ball-in-tube sensor. The controller activates the airbag only if both sensors generate fire signals. The controller generates an airbag activation signal based upon crash type and the sum of the times required from the beginning of the crash for both sensors to generate fire signals.
    • 碰撞检测系统包括具有互补性能特征的两个传感器,控制器评估来自两个传感器的信号,以确定气囊是否应被激活,当气囊应当被激活以及是否应该启动安全气囊的多个阶段时。 第一传感器优选地包括球内传感器,并且第二传感器优选地包括包括加速度计和CPU的电子感测模块。 CPU从加速度计和球内传感器接收信号。 仅当两个传感器产生火灾信号时,控制器才会启动安全气囊。 控制器基于碰撞类型和两个传感器开始碰撞所需的时间总和产生气囊激活信号以产生火焰信号。
    • 26. 发明授权
    • Vehicle passenger weight sensor
    • 车载重量传感器
    • US5739757A
    • 1998-04-14
    • US792180
    • 1997-01-30
    • Tony Gioutsos
    • Tony Gioutsos
    • G01G3/15B60K28/04B60N2/00B60N2/90B60R21/01B60R21/015B60R21/16G01G19/12G01G19/414G01G19/52G01L1/12G08B21/00
    • B60R21/01516B60K28/04B60N2/002B60R21/01526G01G19/4142G01L1/125G01L1/127
    • A vehicle safety system having crash detection circuitry and an airbag adjacent a vehicle seat further includes a system for determining the weight of a passenger on the vehicle seat. If the detected weight of the passenger does not exceed a predetermined weight threshold, the airbag is disabled. A forward sensor and a rear sensor are mounted in a vehicle seat adjacent a ferromagnetic structure element in the seat. The sensors measure strain on the ferromagnetic element, which is proportional to weight on the vehicle seat. A comparison of the measurements of the two sensors also provides an indication of the position of the passenger on the vehicle seat, such that the airbag may be disabled if the passenger is sitting too close to the airbag. Each of the sensors preferably comprises an electromagnet generating an oscillating magnetic field of a known frequency and a coil. Strain on the ferromagnetic element alters the magnetic field and such strain is detected by the coil. The detected change in the magnetic field is proportional to the weight of the passenger.
    • 具有碰撞检测电路和邻近车辆座椅的气囊的车辆安全系统还包括用于确定车辆座椅上的乘客的重量的系统。 如果检测到的乘客重量不超过预定的重量阈值,则气囊被禁用。 向前传感器和后传感器安装在与座椅中的铁磁结构元件相邻的车辆座椅中。 传感器测量铁磁元件上的应变,这与车辆座椅上的重量成正比。 两个传感器的测量值的比较还提供了乘客在车辆座椅上的位置的指示,使得如果乘客坐在太靠近气囊的话,则可能禁用气囊。 每个传感器优选地包括产生已知频率和线圈的振荡磁场的电磁体。 铁磁元件上的应变会改变磁场,这种应变由线圈检测。 检测到的磁场变化与乘客的重量成比例。
    • 28. 发明授权
    • Adjustable crash discrimination system with occupant position detection
    • 可调式碰撞识别系统与乘员位置检测
    • US5446661A
    • 1995-08-29
    • US48366
    • 1993-04-15
    • Tony GioutsosEdward J. GillisWalter E. ChapelleCarolyn A. Swayze
    • Tony GioutsosEdward J. GillisWalter E. ChapelleCarolyn A. Swayze
    • B60R22/46B60R21/01B60R21/013B60R21/015B60R21/16B60R21/12B60R21/32
    • B60R21/013B60R21/01534B60R2021/01027B60R2021/01315
    • A method and system for discriminating motor vehicle crashes to actuate a safety restraint (10) utilizes an optical vehicle occupant position detector (12) to generate data (22) representative of the position of an occupant relative to fixed structure within the vehicle. The data (22) is subsequently used by a signal processor/discrimination unit (26) as criteria for a parameter based crash discrimination analysis, and for adjusting parameters of the discrimination analysis, such as changing the discrimination threshold values. The occupant position data optimizes the discrimination analysis used in the system (10) due to the system's ability to customize the discrimination analysis in real time to match actual conditions of a vehicle occupant. Occupant position is determined by detecting the relative intensity, or average of scattering angles of a light beam (34) reflectively scattered by the occupant (24). An optical, low threshold safing sensor (40) can further be used to provide system calibration, discrimination of spurious occupant movement, and data representative of vehicle acceleration.
    • 用于识别机动车辆碰撞以致动安全限制(10)的方法和系统利用光学车辆乘员位置检测器(12)生成代表乘员相对于车辆内的固定结构的位置的数据(22)。 数据(22)随后由信号处理器/鉴别单元(26)用作基于参数的碰撞识别分析的标准,并用于调整鉴别分析的参数,例如改变鉴别阈值。 乘客位置数据优化了系统(10)中使用的辨别分析,这是由于系统实时定制辨别分析的能力,以匹配车辆乘客的实际情况。 通过检测由乘员(24)反射散射的光束(34)的相对强度或散射角度的平均值来确定乘员位置。 还可以使用光学,低阈值安全传感器(40)来提供系统校准,识别虚假乘员运动以及代表车辆加速度的数据。