Abstract: An example device can include a mounting device having a first connector bracket fixedly positioned on the mounting device, a plurality of pogo pins positioned within the first connector bracket, and an adjustment control mechanism positioned about at least one pogo pin of the plurality of pogo pins. A computing device has a second connector bracket fixedly positioned on the computing device, the second connector bracket forming a plurality of openings for receiving the plurality of pogo pins, wherein the adjustment control mechanism is to fixedly position the plurality of pogo pins within the plurality of openings to maintain electrical connection of the first connector bracket and the second connector bracket during adjustment of the computing device relative to the mounting device.

Abstract: An example device can include a mounting device having a first connector bracket fixedly positioned on the mounting device, a plurality of pogo pins positioned within the first connector bracket, and an adjustment control mechanism positioned about at least one pogo pin of the plurality of pogo pins. A computing device has a second connector bracket fixedly positioned on the computing device, the second connector bracket forming a plurality of openings for receiving the plurality of pogo pins, wherein the adjustment control mechanism is to fixedly position the plurality of pogo pins within the plurality of openings to maintain electrical connection of the first connector bracket and the second connector bracket during adjustment of the computing device relative to the mounting device.

Abstract: A high-reflection multilayer coating, which includes a baseplate, a reflecting layer and a composite reflecting layer, in which the reflecting layer is contiguously disposed between the baseplate and the composite reflecting layer, and the composite reflecting layer is provided with a first structure layer and a second structure layer. Moreover, the first structure is mutually contiguously disposed on the reflecting layer. Accordingly, the present invention is able to achieve 95˜100% high light reflectivity over a wavelength range of 400˜800 nanometers, thus increasing light reflectivity and extending the range of reflection. The present invention is able to increase the degree of illumination, brightness and uniformity when used in various types of lamps.

Abstract: An optical reflector includes a reflector body (1) having a receiving space (11) and an opening (12). The receiving space of the reflector body has a peripheral wall provided with a reflective surface. The reflective surface of the reflector body includes a light splitting zone (14), two light scattering zones (15) and two light gathering zones (16). The light splitting zone of the reflective surface includes an elongate protrusion (141). Each of the two light scattering zones of the reflective surface includes a plurality of elongate arcuate convex portions (151). Each of the two light gathering zones of the reflective surface includes a plurality of elongate arcuate concave portions (161).

Abstract: An intelligent voltage and current controlled PWM microcontroller type battery charger includes an electromagnetic interference filter, a bridge rectifier, a transformer and a switching power supply of a rectifier as a main structure and operates with a microcontroller unit of a PWM controller for charging various chargeable batteries. The microcontroller unit operated with a battery charging protection block include a battery charging loop circuit connected to two PWM controllers for modulating outputs if constant voltage values and constant current values to control a feedback of the switching power supply. A current detection block, a voltage detection block and a temperature protection block are operated with the microcontroller unit. A battery charging protection block and a delay startup battery charging protection system are connected to the microcontroller unit. The invention can achieve the effects of charging different types of batteries, saving energy, reducing carbon and protecting environment.

Abstract: An intelligent equalizing battery charger having equalization charging circuitry is disclosed, comprising an insulating switch-type DC to DC converting circuit, a microprocessor monitoring/calculating control circuit, and a charging battery set wherein the insulating switch-type DC to DC converting circuit is composed of a power supply switch circuit, an insulating transformer, and a rectification converting circuit. The microprocessor monitoring/calculating control circuit includes multiple switch elements and a charging control microprocessor. Via the aforementioned structure, each individual cell of the charging battery set can be appropriately charged in equalization, which can not only increase the charging/discharging times of the battery set, but also efficiently extend the battery life in application.

Abstract: An intelligent equalizing battery charger having equalization charging circuitry is disclosed, comprising an insulating switch-type DC to DC converting circuit, a microprocessor monitoring/calculating control circuit, and a charging battery set wherein the insulating switch-type DC to DC converting circuit is composed of a power supply switch circuit, an insulating transformer, and a rectification converting circuit. The microprocessor monitoring/calculating control circuit includes multiple switch elements and a charging control microprocessor. Via the aforementioned structure, each individual cell of the charging battery set can be appropriately charged in equalization, which can not only increase the charging/discharging times of the battery set, but also efficiently extend the battery life in application.

Abstract: Embodiments of the invention include a memory controller to interface to memory. In one embodiment, the memory controller includes a pull-up calibration terminal to couple to an external pull-up resistor, a pull-down calibration terminal to couple to an external pull-down resistor, a voltage reference node, a first switch coupled between the pull-up calibration terminal and the voltage reference node, and a second switch coupled between the pull-down calibration terminal and the voltage reference node. The first switch and the second switch may be selectively closed to generate an internal voltage reference on the voltage reference node in a normal mode that may be used for comparison with an input signal to receive data.