会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 1. 发明授权
    • Increased dynamic range sensor
    • 增加动态范围传感器
    • US09588134B2
    • 2017-03-07
    • US13468203
    • 2012-05-10
    • Udo AusserlechnerMario Motz
    • Udo AusserlechnerMario Motz
    • G01P3/487G01D21/02G01R33/07G01R33/09G01D1/14
    • G01P3/487G01D1/14G01D21/02G01R33/07G01R33/09
    • Some aspects of the present disclosure provide for a sensor system having a large range between minimum and maximum allowed input quantities. In some embodiments, the sensor system has a nonlinear sensor and a linear sensor. The nonlinear sensor is generates a first nonlinear signal corresponding to a detected physical input quantity. The linear sensor generates a second linear signal corresponding to the detected physical input quantity. A signal processor receives the first nonlinear signal and the second linear signal and generates a composite output signal that corresponds to the detected physical input quantity. The composite output signal is a combination of the first nonlinear signal and the second linear signal that provides for a signal having a high sensitivity to small physical input quantities while avoiding saturation at large physical input quantities.
    • 本公开的一些方面提供了在最小和最大允许输入量之间具有大范围的传感器系统。 在一些实施例中,传感器系统具有非线性传感器和线性传感器。 非线性传感器产生对应于检测到的物理输入量的第一非线性信号。 线性传感器产生对应于检测到的物理输入量的第二线性信号。 信号处理器接收第一非线性信号和第二线性信号,并产生对应于检测到的物理输入量的复合输出信号。 复合输出信号是第一非线性信号和第二线性信号的组合,其提供具有对小物理输入量的高灵敏度的信号,同时避免在大的物理输入量处的饱和。
    • 2. 发明授权
    • Vertical hall sensor with series-connected hall effect regions
    • 垂直霍尔传感器与串联霍尔效应区域
    • US08981504B2
    • 2015-03-17
    • US13530235
    • 2012-06-22
    • Mario MotzUdo Ausserlechner
    • Mario MotzUdo Ausserlechner
    • H01L29/82G01R33/06G01R33/07H01L27/22H01L43/06
    • G01R33/077G01R33/066G01R33/07H01L27/22H01L43/065
    • A vertical Hall sensor includes first and second vertical Hall effect regions in a semiconductor substrate, with first and second pluralities of contacts arranged at one side of the first or second vertical Hall effect regions, respectively. The second vertical Hall effect region is connected in series with the first vertical Hall effect region regarding a power supply. The vertical Hall sensor further includes first and second layers adjacent to the first and second vertical Hall effect regions at a side other than a side of the first or second pluralities of contacts. The first and second layers have different doping properties than the first and second vertical Hall effect regions and insulate the first and second vertical Hall effect regions from a bulk of the semiconductor substrate by at least one reverse-biased p-n junction per vertical Hall effect region during an operation of the vertical Hall sensor.
    • 垂直霍尔传感器包括半导体衬底中的第一和第二垂直霍尔效应区域,第一和第二多个触点分别布置在第一或第二垂直霍尔效应区域的一侧。 第二垂直霍尔效应区域与关于电源的第一垂直霍尔效应区域串联连接。 垂直霍尔传感器还包括在除了第一或第二多个触点的一侧以外的一侧与第一和第二垂直霍尔效应区域相邻的第一和第二层。 第一和第二层具有与第一和第二垂直霍尔效应区域不同的掺杂特性,并且使绝缘半导体衬底的第一和第二垂直霍尔效应区域与每个垂直霍尔效应区域至少一个反向偏置pn结隔离 垂直霍尔传感器的操作。
    • 3. 发明授权
    • Vertical hall sensor circuit comprising stress compensation circuit
    • 垂直霍尔传感器电路包括应力补偿电路
    • US08723515B2
    • 2014-05-13
    • US13541863
    • 2012-07-05
    • Mario MotzUdo Ausserlechner
    • Mario MotzUdo Ausserlechner
    • G01R33/06
    • G01R33/0029G01R33/0082G01R33/072G01R33/077H01L2924/0002H01L2924/00
    • A vertical Hall sensor circuit includes an arrangement comprising a vertical Hall effect region of a first doping type, formed within a semiconductor substrate and having a stress dependency with respect to a Hall effect-related electrical characteristic. The vertical Hall sensor circuit further includes a stress compensation circuit which comprises at least one of a lateral resistor arrangement and a vertical resistor arrangement for generating a stress-dependent lateral resistor arrangement signal based on a reference signal provided to the stress compensation circuit, and for generating a stress-dependent vertical resistor arrangement signal based on the reference signal, respectively. The vertical Hall sensor circuit further includes a first circuit for providing a first signal to the arrangement based on at least one of the stress-dependent lateral resistor arrangement signal and the stress-dependent vertical resistor arrangement signal.
    • 垂直霍尔传感器电路包括包括形成在半导体衬底内并具有与霍尔效应相关的电特性的应力依赖性的第一掺杂类型的垂直霍尔效应区域的布置。 垂直霍尔传感器电路还包括应力补偿电路,其包括横向电阻器布置和垂直电阻器布置中的至少一个,用于基于提供给应力补偿电路的参考信号产生应力依赖的横向电阻器布置信号,并且 分别基于参考信号产生应力依赖垂直电阻器布置信号。 垂直霍尔传感器电路还包括第一电路,用于基于应力依赖性横向电阻器布置信号和应力依赖垂直电阻器布置信号中的至少一个向布置提供第一信号。
    • 8. 发明申请
    • MAGNETIC FIELD CURRENT SENSORS
    • 磁场电流传感器
    • US20100156394A1
    • 2010-06-24
    • US12630596
    • 2009-12-03
    • Udo AusserlechnerMario Motz
    • Udo AusserlechnerMario Motz
    • G01R33/00
    • G01R15/202G01R15/207G01R19/0092G01R33/072G01R33/075
    • Embodiments related to magnetic current sensors, systems and methods. In an embodiment, a magnetic current sensor integrated in an integrated circuit (IC) and housed in an IC package comprises an IC die formed to present at least three magnetic sense elements on a first surface, a conductor, and at least one slot formed in the conductor, wherein a first end of the at least one slot and at least one of the magnetic sense elements are relatively positioned such that the at least one of the magnetic sense elements is configured to sense an increased magnetic field induced in the conductor proximate the first end of the at least one slot.
    • 与磁流传感器,系统和方法相关的实施例。 在一个实施例中,集成在集成电路(IC)中并且容纳在IC封装中的磁流传感器包括IC模具,其形成为在第一表面,导体和至少一个槽上形成至少三个磁感应元件 所述导体,其中所述至少一个狭槽的第一端和所述磁感应元件中的至少一个相对定位成使得所述至少一个所述磁感应元件被配置为感测在所述导体中感应的增加的磁场, 至少一个槽的第一端。
    • 9. 发明授权
    • Stress compensation systems and methods in differential sensors
    • 差动传感器中的应力补偿系统和方法
    • US09410820B2
    • 2016-08-09
    • US13540081
    • 2012-07-02
    • Udo AusserlechnerMario Motz
    • Udo AusserlechnerMario Motz
    • G01D3/02
    • G01D3/021
    • Embodiments relate to stress compensation in differential sensors. In an embodiment, instead of compensating for stress on each sensor element independently, stress compensation circuitry aims to remove stress-related mismatch between two sensor elements using the sensor elements themselves to detect the mismatch. A circuit can be implemented in embodiments to detect mechanical stress-related mismatch between sensor elements using the sensor elements, and tune the output signal by a compensation factor to eliminate the mismatch. Embodiments are therefore less complicated and less expensive than conventional approaches. While embodiments have applicability to virtually any differential sensor, including magnetic field, pressure, temperature, current and speed, an example embodiment discussed herein relates to magnetic field.
    • 实施例涉及差动传感器中的应力补偿。 在一个实施例中,代替独立地补偿每个传感器元件上的应力,应力补偿电路旨在消除使用传感器元件本身的两个传感器元件之间的应力相关失配,以检测失配。 在实施例中可以实现电路以使用传感器元件检测传感器元件之间的机械应力相关失配,并且通过补偿因子来调整输出信号以消除不匹配。 因此,实施例比常规方法更不复杂和便宜。 虽然实施例可适用于几乎任何包括磁场,压力,温度,电流和速度的差分传感器,但本文讨论的示例实施例涉及磁场。