Abstract: A structure of a semiconductor array comprises multiple semiconductor units, an isolation layer and a decomposed or buffer unit. Multiple semiconductor units combined the semiconductor array. The isolation layer coated each semiconductor unit. The decomposed or buffer unit coated the isolation layer and filled between each semiconductor unit to enhance structure of the semiconductor units. Wherein, the isolation layer protected by edge of the semiconductor units and the decomposed or buffer unit.

Abstract: The invention discloses a light emitting array structure.

Abstract: A high-brightness vertical light emitting diode (LED) device includes an outwardly located metal electrode having a low illumination side and a high illumination side. The LED device is formed by: forming the metal electrode on an edge of a surface of a LED epitaxy structure using a deposition method, such as physical vapor deposition (PVD), chemical vapor deposition (CVD), evaporation, electro-plating, or any combination thereof; and then performing a packaging process. The composition of the LED may be a nitride, a phosphide or an arsenide. The LED has the following advantages: improving current spreading performance, reducing light-absorption of the metal electrode, increasing brightness, increasing efficiency, and thereby improving energy efficiency. The metal electrode is located on the edge of the device and on the light emitting side. The metal electrode has two side walls, among which one side wall can receive more emission light from the device in comparison with the other one.

Abstract: The invention discloses a semiconductor structure, processing light signal, the semiconductor structure comprising: a first type semiconductor layer; a second type semiconductor layer; an active layer located between the first type semiconductor layer and the second type semiconductor layer; a reflector covered surfaces of the first type semiconductor layer and the second type semiconductor layer; a first pad disposed on a top surface of the reflector which is covered the first type semiconductor layer; a second pad disposed on the top surface of the reflector or second type semiconductor layer; an aperture disposed on the top surface of the first type semiconductor layer and passed through the reflector; and a light collection module disposed around the aperture or covered a top surface of the reflector.

Abstract: A three-dimensional printing method for a three-dimensional printing system including a tank, a platform, an injection module, a warning module, a curing module, and a control module is provided. The control module is electrically connected to the curing module, the injection module, and the warning module. The method includes: analyzing a required amount of the liquid forming material corresponding to a three-dimensional object; obtaining a safe amount of the liquid forming material in the tank; and comparing the required amount and the safe amount, wherein the control module provides a response signal to the injection or warning module when the safe amount is less than the required amount. The injection module receives the response signal to inject the liquid forming material to the tank. The warning module receives the response signal to remind a user to provide the liquid forming material to the tank.

Abstract: The present disclosure provides a semiconductor package device and a method for manufacturing the same. In embodiments of the present disclosure, a semiconductor package device includes a carrier, a first antenna, a second antenna, a package body and a first shield. The carrier includes an antenna area and a component area. The first antenna is formed on the antenna area. The second antenna extends from the antenna area and over the first antenna. The second antenna is electrically connected to the first antenna. The package body includes a first portion covering the component area and a second portion covering the antenna area. The first shield is conformally formed on the first portion of the package body and exposes the second portion of package body.

Abstract: A three-dimensional printing device including a body, a tank, an origin target, a sensor, and a control module is provided. The tank is rotatably assembled on the body, and the tank is filled with a liquid forming material. The origin target is disposed on the tank and rotates along with the tank. The sensor is disposed on the body and located above the liquid forming material to sense a liquid level of the liquid forming material. The control module electrically connects the tank and the sensor and drives the tank to rotate. The sensor is located above a rotation path of the origin target, and the control module senses the origin target through the sensor and positions a rotation origin of the tank.

Abstract: Systems, methods, architectures, mechanisms and/or apparatus configured to provide a compressive spectral imager for estimating a spectral image of a rotating scene such as a target scene as viewed from a spinning munition.

Abstract: The described technology provides a system and method for sequential execution of one or more operation segments in an asynchronous event driven architecture. One or more operation segments may be associated and grouped into an activity of operation segments. The operation segments of an activity may be sequentially executed based on a queue structure of references to operation segments stored in a context memory associated with the activity. Any initiated operation segment may be placed on the queue structure upon completion of an associated I/O action.

Abstract: A computer-implement operating method includes periodically generating sensing data by determining a triggered area of each of the sensors of a surface on which each of the sensors disposed; grouping effective sensors among the sensors into a plurality of sensor groups respectively corresponding to the fingers; obtaining a bending angle of one finger among the fingers according to the sensing values of the sensing data of all effective sensors in one sensor group corresponding to the said one finger among the sensor groups; and bending one virtual finger corresponding to the said one finger among virtual fingers of a virtual hand rendered in a virtual space corresponding to the electronic system according to the obtained bending angle of the said one finger, so as to render the virtual hand having a gesture matching to a gesture of the hand sensed by the controller.

Abstract: A semiconductor device package includes a first semiconductor device having a first surface, an interconnection element having a surface substantially coplanar with the first surface of the first semiconductor device, a first encapsulant encapsulating the first semiconductor device and the interconnection element, and a second semiconductor device disposed on and across the first semiconductor device and the interconnection element.

Abstract: A stereo lithography apparatus includes a base, a lifting rail, a slider, a forming pedestal, a nut assembly and a screw rod. The lifting rail is arranged upright on the base. The slider is arranged on the lifting rail and allowed to move along the lifting rail. A position hole and at least an adjusting groove are defined on the forming pedestal. The nut assembly is connected with the slider by multiple screw bolts, one of the screw bolts is inserted through the position hole and connected with the slider, each of the other screw bolts is inserted through corresponding adjusting groove and connected with the slider. The screw rod is arranged upright on the base and engaged with the nut assembly. Thereby, the nut assembly would not be rotated to stick the screw rod while the forming pedestal is rotated.

Abstract: A 3D printing method is provided. A stereolithography 3D printer (2) selects one of multiple layers of print data sequentially, makes a modeling plane be a default thickness (h) away from a material tank (23), irradiates heading to the modeling plane according to the selected layer of the print data for printing one layer of slice physical model (421-422, 431-433), makes the modeling plane detach from light-curable materials (41) in the material tank (23), rotates the material tank (23) for making an angle difference between angles before and after rotation be within a default angle interval, and performs above steps repeatedly until completion of a 3D physical model.

Abstract: A method includes a mobile device receiving data from a first beacon in a plurality of beacons, wherein the data indicates a plurality signals strengths of signals received by the first beacon from the other beacons in the plurality of beacons. The mobile device uses multivariable regression based on the data received from the first beacon and signal strengths of signals received by the mobile device from the other beacons in the plurality of beacons to determine distances from the mobile device to the beacons. The mobile device determines a location of the mobile device based on the determined distances.

Abstract: A sprinkler comprises a water outlet tube and an annular adjusting element. The water outlet tube comprises a positioning and stopping portion and a mounting section with a position-limiting guide block. The position-limiting guide block comprises a water outlet opening communicating with the interior of the water outlet tube. The adjusting element comprises a pivot hole that allows the adjusting element to rotate about and along the mounting section. The pivot hole comprises a position-limiting space for accommodating the position-limiting guide block in a pivotable manner, in order for the position-limiting guide block to limit back-and-forth rotation of the adjusting element. The position-limiting space comprises a through hole and a water-blocking area. The adjusting element can be rotated in one direction to align the through hole with the water outlet opening and in the opposite direction to block the water outlet opening with the water-blocking area.

Abstract: A charging method includes: measuring a plurality of battery voltages of a plurality of batteries through a plurality of switch modules sequentially, switching on the switch module coupled to the battery with the lowest battery voltage to cause the battery with the lowest battery voltage to electrically connect to a charging unit, enabling the charging unit to supply power, and switching on the switch module corresponding to an attained battery voltage whenever the battery with the lowest battery voltage is charged to attain the battery voltage of one of the batteries.

Abstract: A polarizer includes a first polarizing layer. The polarizing layer is configured for polarizing light. The first polarizing layer has a first absorption axis. The first absorption axis is a curved line.

Abstract: A key-value storage system is described herein for interacting with key-value entries in a content store using a resource-efficient index. The index provides a data structure that includes a plurality of hash buckets. Each hash bucket includes a linked list of hash bucket units. The key-value storage system stores hash entries in each linked list of hash bucket units in a distributed manner between an in-memory index store and a secondary index store, based on time of their creation. The key-value storage system is further configured to store hash entries in a particular collection of linked hash bucket units in a chronological order to reflect time of their creation. The index further includes various tunable parameters that affect the performance of the key-value storage system.

Abstract: A 3D printing device including a base, a gantry, a forming platform, a tank, an adjustable platform, a driving module and a control module is provided. The gantry and the tank are respectively disposed on the base. The forming platform is movably assembled to the gantry. The adjusting platform is disposed between the gantry and the forming platform or between the tank and the base. The driving module is connected to the forming platform and the gantry. The control module is electrically connected to the driving module to drive the forming platform to reciprocate along the gantry, so that the forming platform is moved into or out of the tank. Before 3D printing is performed, the control module moves the forming platform to lean against the tank through the driving module, so as to drive the adjustable platform to deform, and confirm consistency of contact surfaces of the forming platform and the tank.