Abstract: An apparatus, system and method for forming a molded plastic substrate product for an electronic circuit for a device, wherein the substrate may include one or more electrically conductive traces that are plated and formed on a laser-etched, activated portion of the molded plastic substrate defining each electrically conductive trace. One or more electrically conductive pads may be placed at one or more predetermined positions at the one or more electrically conductive traces. An electrical component surface may then be mounted to the at least one electrically conductive pad using conductive bonding material.

Abstract: An apparatus, system and method are disclosed for a manufactured imager system. The apparatus, system and method may include an imager comprising a plurality of photosites divisible into a plurality of subsections, and at least one wafer-level lens additively composed of a plurality of material layers successively deposited directly upon the imager to achieve a predetermined optical performance for each of the plurality of subsections. The material layers may comprise one or more of a photopolymer, a thermoplastic resin, a low temperature melting glass, and a glass sheet, and may be uniform or non-uniform.

Abstract: A combiner positioning system for a head-up display includes a carrier and a locking element. The carrier supports a combiner for the head-up display, and the combiner is movable between a stowed position and a display position. The locking element has an engaged position and a disengaged position. The locking element engages a portion of the carrier in the display position and rigidly holds the carrier in the display position.

Abstract: An apparatus, system and method for wireless power transfer, where a wireless power signal is provided from a charger to a device. A moving mechanism coupled to one of the charger and the device, may move one of the charger and the device along a predetermined pattern along at least one of three axes while wireless power is provided. Wireless power characteristic data may be received from a plurality of locations. The wireless power characteristic data from at least some of the plurality of points are processed to determine at least one of a threshold and optimum wireless power characteristic data value. The moving mechanism may move the one of the device and the charger to a location within the predetermined pattern based on the processed wireless power characteristic data.

Abstract: An apparatus, system and method for inserting a contact having an insert portion, a textured portion and a head portion, into a surface of a molded shell made of plastic or other similar material. An opening is provided in a portion of the molded shell that is smaller in size than the contact and the contact is aligned into the opening. Energy, such as heat energy, ultrasonic energy, and/or infrared energy may be applied to the contact at one or more predetermined energy levels sufficient to cause the substrate to at least begin melting, and a force may be applied to the heated contact to push the heated contact into the substrate such that the plastic material forms a seal around the textured portion.

Abstract: Apparatus, system and method for detecting defects in an adhesion area that includes an adhesive mixed with a fluorescent material. One or more illumination devices may illuminate the fluorescent material in the adhesion area with a light of a predetermined wavelength. A camera may be configured to capture an image of the illuminated adhesion area. A processing device, communicatively coupled to the camera, may be configured to process the captured image by applying one or more boundary areas to the captured image and determining an image characteristic within each of the boundary areas, wherein the image characteristic is used by the processing device to determine the presence of a defect in the adhesive, such as an excess of adhesive or an insufficient application of adhesive.

Abstract: A combiner positioning system for a head-up display includes a carrier and a locking element. The carrier supports a combiner for the head-up display, and the combiner is movable between a stowed position and a display position. The locking element has an engaged position and a disengaged position. The locking element engages a portion of the carrier in the display position and rigidly holds the carrier in the display position.

Abstract: A surface mount technology (SMT)-compatible barcode-printable radio frequency identification (RFID) label that can be attached to a printed circuit board (PCB) work piece for tracking the work piece through an assembly line that includes at least one reflow solder process. The label is constructed from materials and components that function consistently and accurately after being exposed to the high temperature of the reflow solder process, and may further include shieling material to mitigate radio frequency interference. Preferably, the label is configured to be programmed and printed on using an RFID printer.

Abstract: The disclosure includes an apparatus, system and method of providing a stylus receiving tool. The apparatus, system and method may include a body portion having an anterior end, a posterior end opposite the anterior end, an exterior portion and an interior portion each extending from the anterior end to the posterior end; and a receiver suitable for receiving a stylus, formed within the interior portion, and having an open portion at the anterior end.

Abstract: Systems and methods capable of providing customized business processes, such as with regard to intermediate business transaction documents, within a standard business process flow system.

Abstract: A chip on submodule includes a submount having a top surface, bottom surface and side surfaces. A positive electrode plate is affixed to a first portion of one side surface, the top surface and a first portion of the bottom surface. The positive electrode plated first portion of the one side surface and the top surface are interconnected. A connector electrically connects the positive electrode plated top surface to the first portion of the bottom surface. A negative electrode plate is affixed to a second portion of the one side surface and a second portion of the bottom surface. The negative electrode plated second portion of the one side surface and second portion of the bottom surface are interconnected. A laser diode is affixed to the positive electrode plated first portion of the one side surface and connected to the negative electrode plated second portion of the one side surface.

Abstract: Systems and methods for monitoring a battery stack having a plurality of cells are provided. One system includes a plurality of time delay circuits. Each of the time delay circuits is electrically coupled to at least one of the plurality of cells. The time delay circuits are configured to execute a time delay in response to receiving a trigger signal and output a time delay marking signal indicating that the time delay has elapsed. The time delay is based on a voltage of the cell(s) to which the respective time delay circuit is electrically coupled. The system further includes a control circuit configured to receive the time delay marking signal from each of the time delay circuits and, for each received time delay marking signal, to determine the voltage of the at least one of the plurality of cells associated with the respective time delay marking signal.

Abstract: A system for estimating fluid flow in a system including a pump and a fluid vessel operatively coupled to the pump via a conduit is described herein. The system comprises an accelerometer affixed to an exterior surface of the conduit, wherein the accelerometer is configured to generate signals representing physical movement of the conduit, and wherein the signals are suitable for estimating fluid flow in the conduit.

Abstract: Systems and methods for monitoring a battery stack having a plurality of cells are provided. One system includes a plurality of time delay circuits. Each of the time delay circuits is electrically coupled to at least one of the plurality of cells. The time delay circuits are configured to execute a time delay in response to receiving a trigger signal and output a time delay marking signal indicating that the time delay has elapsed. The time delay is based on a voltage of the cell(s) to which the respective time delay circuit is electrically coupled. The system further includes a control circuit configured to receive the time delay marking signal from each of the time delay circuits and, for each received time delay marking signal, to determine the voltage of the at least one of the plurality of cells associated with the respective time delay marking signal.

Abstract: A light emitting diode (LED) lighting assembly (200) includes an LED lighting source (223) and a heat sink assembly (209) that is configured between a power source and the LED light source (223) that works as an electrical conductor for the LED light source (223) and for removing heat generated by the LED light source (223).

Abstract: A power inverter, such as a synchronous buck power inverter, that is configured with a high frequency switching control having a (PWM) controller and sensing circuit. Controller provides a low frequency oscillating wave to effect switching control on a synchronous-buck circuit portion that includes a plurality of switches to invert every half cycle of the frequency provided by controller. The inverting process thus creates a positive and negative transition of the oscillating wave signal. A low frequency switching stage includes a further plurality of switches configured to operate as zero voltage switching (ZVS) and zero current switching (ZCS) drives Charge on an output capacitor is discharged to zero on every zero crossing of low frequency switching stage and advantageously discharges energy every half cycle. During this discharge of energy, the zero crossing distortion in the low frequency sine wave is greatly reduced.

Abstract: An oscillator circuit that includes a Wien bridge oscillator circuit, a full-wave rectifier circuit, coupled to an output of the Wien bridge oscillator circuit, an integrator circuit, coupled to an output of the full-wave rectifier circuit, and a multiplier circuit. The multiplier circuit may include a first input coupled to the output of the Wien bridge oscillator circuit, and a second input, coupled to an output of the integrator, wherein the multiple signals are configured to provide dynamic gain control to the Wien bridge oscillator circuit.

Abstract: A fan assembly for an electronics module is presented, the fan assembly includes a fan housing at least partially enclosing a fan, a first bracket assembly at a first end of the fan housing, the first bracket having a handle and a latching element, and a second bracket disposed on a second end of the fan housing. The handle is movable between an unlatched position for manual grasping of the handle and a latched position for allowing an air flow through the fan assembly.

Abstract: An apparatus, system and method for wirelessly powering a device. The apparatus, system and method may include a primary coil housing that houses a primary coil; a secondary coil housed within the device and suitable for having power induced therein responsive to the primary coil; an isolator that at least partially mechanically and electrically isolates the primary coil from the secondary coil; and a plurality of paired feedback sensors respectively communicatively and physically associated with, and paired as between, the primary coil housing and the device, wherein the plurality of paired feedback sensors exchanges indications regarding performance of the secondary coil, and wherein performance of the primary coil is modified responsively to the indications.

Abstract: A light emitting diode (LED) lighting assembly (200) includes an LED lighting source (223) and a heat sink assembly (209) that is configured between a power source and the LED light source (223) that works as an electrical conductor for the LED light source (223) and for removing heat generated by the LED light source (223).