Abstract: The present disclosure relates to sensors including pressure sensors. In some cases, the pressure sensor may include a membrane or diaphragm, multiple sense elements connected to one another in a bridge configuration and positioned on the membrane, and an amplifier coupled to an output of the bridge configuration and having an output, where the diaphragm, sense elements and amplifier may be formed on a singled substrate or formed integrally therewith, or both. In one example, the pressure sensor may sense a particular range of pressures applied to the sensor, and/or may include an amplifier that has a selectable gain for amplifying an output of the bridge.

Abstract: The present disclosure relates to sensors including pressure sensors. In some cases, the pressure sensor may include a membrane or diaphragm, multiple sense elements connected to one another in a bridge configuration and positioned on the membrane, and an amplifier coupled to an output of the bridge configuration and having an output, where the diaphragm, sense elements and amplifier may be formed on a singled substrate or formed integrally therewith, or both. In one example, the pressure sensor may sense a particular range of pressures applied to the sensor, and/or may include an amplifier that has a selectable gain for amplifying an output of the bridge.

Abstract: A pressure sensor port apparatus and method comprising a pressure port that includes a hexagonal area preferably comprising a plastic material (e.g., thermoplastic). Additionally, one or more electronic interconnections can be associated with the pressure sensor port, such that the electronic interconnections are isolated from sensed media while providing a pressure sensor port apparatus based on a cost effective injection molding process rather than a machining processes required for a metal.

Abstract: A method and apparatus for configuring a pressure sensor. A homogeneous piece of metal can be provided. A pressure port and a machined diaphragm are integrated onto the homogeneous piece of metal, wherein the machined diaphragm is connected to the pressure port. The machined diaphragm can be configured utilizing Advanced Thick Film (ATF) technology, thereby providing a high-pressure pressure sensor for use in high-pressure sensing application based on the pressure port and the machined diaphragm and related pressure sensor components thereof.

Abstract: Sensor systems and methods are disclosed, including first and second sensing elements element co-located on a leadframe structure with respect to a particular target. In general, target-specific sensing applications can be determined by varying the distance between the first and second sensing elements on the leadframe structure with respect to a common datum point thereof in order to provide speed and direction detection data from the first and second sensing elements with respect to the particular target.

Abstract: A magnetoresistive sensor system includes a plurality of chip carriers, such that each integrated circuit among the plurality of chip carriers is associated with a respective magnetoresistive sensing components. A plurality of magnetoresistive sensing components can be arranged in an array, wherein each magnetoresistive component among the plurality of magnetoresistive components is associated with a respective integrated circuit among the plurality of chip carriers and wherein the plurality of magnetoresistive sensing components comprises sensing components that are spaced irregular from one another in order to optimize the performance of the array and meet requirements of a particular magnetoresistive sensing application.

Abstract: A magnetic sensing method and system include a die comprising a central location thereof. A group of magnetoresistive bridge circuits are located and configured upon the die. A magnetic biasing component is then utilized to bias the plurality of magnetoresistive bridge circuits with a magnetic field rotating about an axis of the central location of the die in order to generate a plurality of bridge output signals thereof. Finally, the plurality of bridge output signals are processed in order to determine position data thereof.

Abstract: A position detection system and method for linear and rotary sensing applications are disclosed herein, including a plurality of magnetoresistive sensing components for linear and rotary detection sensing, and an integrated circuit for amplifying and calibrating signals generated by the magnetoresistive sensing components in order to provide a full digital calibration and a ratio-metric output voltage or digital output signal indicative of linear and rotary position data.