Abstract: Systems, devices, and methods for configurable sensor arrays are provided. An example of a configurable sensor array includes a plurality of sensors in a matrix array formed on a single backplane and a plurality of elements 432 within one of the plurality of sensors, where the plurality of elements provides alternative electrical paths enabling the one of the plurality of sensors to have a range of output impedances.

Abstract: Embodiments disclosed herein relate to a filter (100). In one embodiment, the filter includes a pattern (120). The pattern may reflect or fluoresce non-visible light.

Abstract: A display element includes a first electrode including conductive lines, a second electrode, and a dielectric layer on the first electrode. The dielectric layer has recess regions therein exposing at least portions of the conductive lines. The display element includes a fluid with colorant particles between the first electrode and the second electrode.

Abstract: An electro-optical display includes colorant particles that are suspended in a carrier fluid. The colorant particles are controlled by three different types of electrodes. An exposed electrode acts on the colorant particles in an electrokinetic manner by compacting the colorant particles. A passivated electrode acts on the colorant particles in an electrostatic manner by holding the colorant particles once compacted. A reference electrode attracts the colorant particles to compaction areas.

Abstract: An electro-optical display includes colorant particles that are suspended in a carrier fluid. The colorant particles are controlled by three different types of electrodes. An exposed electrode acts on the colorant particles in an electrokinetic manner by compacting the colorant particles. A passivated electrode acts on the colorant particles in an electrostatic manner by holding the colorant particles once compacted. A reference electrode attracts the colorant particles to compaction areas.

Abstract: A display element includes a first electrode including conductive lines, a second electrode, and a dielectric layer on the first electrode. The dielectric layer has recess regions therein exposing at least portions of the conductive lines. The display element includes a fluid with colorant particles between the first electrode and the second electrode.

Abstract: An electronic device comprises a substrate and an electrical contact in contact with the dielectric layer and electrically coupled with at least one resistor, a substrate carrier including an electrical trace electrically coupled to the electrical contact, a polymer enclosing the electrical contact, and a substantially planar film disposed over the electrical contact.

Abstract: An opto-coupler interface is provided. The opto-coupler interface includes a current mirror and a resistor. The opto-coupler interface is arranged such that a relatively fixed voltage is provided across the photodetector. At one end of the photodetector, the voltage is relatively fixed because the photodetector is coupled to the input of a current mirror. Because the voltage across the opto-coupler is relative fixed, the opto-coupler interface is a current interface rather than a voltage interface. Current from the photodetector is mirrored by the current mirror to provide an output mirror current. The output mirror current is provided to a resistor such that the resistor provides a voltage that is based on the output mirror current.

Abstract: Embodiments of the present invention provide a flexible circuit at least partially encapsulated by a cover layer. The flexible circuit includes a substrate having one or more openings. One or more electrical conductors are bonded to the top surface of the substrate. A first cover layer is bonded to the top surface of the substrate and to the electrical conductors. A second cover layer is bonded to the bottom surface of the substrate and to the first cover layer through the openings.

Abstract: An electronic device comprises a substrate and an electrical contact in contact with the dielectric layer and electrically coupled with at least one resistor, a substrate carrier including an electrical trace electrically coupled to the electrical contact, a polymer enclosing the electrical contact, and a substantially planar film disposed over the electrical contact.

Abstract: Embodiments of the present invention provide a flexible circuit at least partially encapsulated by a cover layer. The flexible circuit includes a substrate having one or more openings. One or more electrical conductors are bonded to the top surface of the substrate. A first cover layer is bonded to the top surface of the substrate and to the electrical conductors. A second cover layer is bonded to the bottom surface of the substrate and to the first cover layer through the openings.

Abstract: A shunt is pivotally mounted to form a pendulum positioned between a reed switch and a magnet. The shunt is formed of ferromagnetic material and is mounted such that as long as it remains between the reed switch and the magnet the reed switch remains open. The shunt is held or biased between the magnet and the reed switch by the force of the magnetic attraction between the shunt and the magnet. The mass of the shunt acts as both a tilt sensor which responds to gravity and an accelerometer sensitive to crash-induced accelerations. The reed switch, magnet and shunt are mounted in a housing which positions the reed switch and magnet and controls the maximum range of motion of the pendulum-mounted shunt. An alternative embodiment employs a subassembly which includes a magnet, a shunt, and a selectively positioned mass, the subassembly is mounted to pivot over a reed switch. The magnet is positioned on or very near the pivot axis. The shunt is positioned further from the pivot axis toward the reed switch.