Abstract: Nail gel curing devices emitting ultraviolet light, as well as methods of their making and use are disclosed. The devices are useful for curing, inter alia, acrylic compositions, more particularly, acrylic nail gel compositions, and typically employ ultraviolet and/or visible light emitting diodes (“LED”) to cure such ultraviolet and/or visible light curable nail gel resins.

Abstract: An optical-electrical converting device includes a substrate, an electrical circuit layer, at least one auxiliary pad, and an optical-electrical converting lens. The electrical circuit layer includes at least one circuit portion. The optical-electrical lens includes at least one first supporting portion and at least one second supporting portion. Each of the at least one first supporting portion is positioned on a respective one of the at least one first circuit portion, and each of the at least one second supporting portion is positioned on a respective one of the at least one auxiliary pad. The electrical circuit layer and the at least one auxiliary pad are arranged on the substrate. The thickness of the at least one first circuit portion layer is substantially equal to the thickness of the at least one auxiliary pad.

Abstract: An exemplary electronic device is connected with an earphone. The earphone includes a first storage unit storing information as to functions of the earphone. The electronic device includes a second storage unit storing a function information table recording information as to user-controllable functions of the electronic device, function units corresponding to the user-controllable functions, an identifying module, and a control module. The identifying module retrieves the information as to functions stored in the first storage unit, and determines whether one or more of the controllable functions of the electronic device are controllable by the earphone. The control module activates all of the function units corresponding to the controllable functions of the electronic device which are controllable by the earphone, and controls one or more of the activated function units according to one or more control signals transmitted from the earphone to the electronic device. A related method is also provided.

Abstract: The present invention discloses a data error-detection system and the method thereof. The system includes an initializing module, an encoding module, a decoding module and a restoring module. The initializing module arranges the transmitting data in a 3D matrix to produce information data. The encoding module encodes the information data to produce checking data, and outputs encoding data which includes information data and checking data. The decoding module receives encoding data and detects information data according to the checking data to correct the information data and then produces 3D matrix receiving data. The restoring module produces receiving data according to the 3D matrix receiving data. Herewith, the effect of error-detection and correction of the data can be achieved.

Abstract: An optical connector includes a substrate, a photoelectric element, and a base. The substrate includes a bearing surface. The photoelectric element includes a base, at least one light emitter, and at least one light receiver. The base is positioned on the bearing surface and includes an installing surface substantially perpendicular to the bearing surface. The light emitters and the light receivers are positioned on the installing surface. The optical element includes at least two first lenses and at least two second lenses aligned with the first lenses. The light emitters and the light receivers are aligned with the first lenses.

Abstract: A method for playing interactive games via a portable apparatus is disclosed. The method is applied to a portable apparatus. The method includes: transmitting a location signal; receiving location signals transmitted from other portable apparatuses; receiving a shooting signal; and determining a game status based on the shooting signal.

Abstract: A touch display having in-plane-switching liquid crystal structure, comprising a pixel cell and a multiplexer circuit, wherein the multiplexer circuit is used to couple a source driver unit with the pixel cell to provide an in-plane switching display function during a display period, and couple a touch control unit with the pixel cell to provide a touch detection function during a touch detection period.

Abstract: A circuit board assembly includes a circuit board, at least one pad formed on the circuit board, and at least one connection line. Each of the at least one connection line includes a connection end connected to a respective one of the at least one pad and has the same resistance value as the respective pad.

Abstract: A light source includes a base, a first bonding layer, at least two laser diodes, a second bonding layer, a substrate, and a planar waveguide. The laser diodes are fixed to and are electrically connected to the base using the first bonding layer, and each of the laser diodes includes a side surface for emitting light. The substrate is fixed to the base using the second bonding layer. The waveguide is formed on the substrate and includes an output section including an output end and at least two input branches branching off from an end of the output section opposite to the output end. Each of the input branches includes an input end opposite to the output section and aligning with a respective one of the side surfaces of the at least two laser diodes.

Abstract: A touch display apparatus is provided. Data lines are used to transmit display data signals or touch scan signals during different periods, wherein the data lines, the scan lines of the touch display apparatus and touch sensing lines of the touch display apparatus are disposed on a same substrate.

Abstract: Methods and apparatuses for wafer level packaging (WLP) of semiconductor devices are disclosed. A contact pad of a circuit may be connected to a solder bump by way of a post passivation interconnect (PPI) line and a PPI pad. The PPI pad may comprise a hollow part and an opening. The PPI pad may be formed together with the PPI line as one piece. The hollow part of the PPI pad can function to control the amount of solder flux used in the ball mounting process so that any extra amount of solder flux can escape from an opening of the solid part of the PPI pad. A solder ball can be mounted to the PPI pad directly without using any under bump metal (UBM) as a normal WLP package would need.

Abstract: A method for testing a TSV comprises charging a through-silicon-via under test to a first predetermined voltage level charging a capacitance device to a second predetermined voltage level; performing charge-sharing between the through-silicon-via and the capacitance device; and determining that the through-silicon-via under test is not faulty if the voltage level of the through-silicon-via after the charge-sharing step is within a predetermined range.

Abstract: An electronic paper touch device including: a first substrate; a first electrode layer located on the first substrate; an electronic paper display layer located on the first electrode layer; a transparent electrode layer located on the electronic paper display layer and having plural transparent electrodes; a second substrate located on the transparent electrode layer; and a control unit having a touch mode and an electronic paper mode, wherein, when the control unit is in the touch mode, the control unit will couple a touch detection unit with the first electrode layer and with the transparent electrode layer to perform a capacitive touch detection procedure.

Abstract: A short detection circuit includes a voltage divider circuit, for generating, according to a bottom voltage of one or more light-emitting diode strings, a divided voltage less than the bottom voltage. Additionally, the short detection circuit includes a voltage clamp circuit, coupled to the voltage divider circuit, for clamping the divided voltage, and a comparator, coupled to the voltage divider circuit, for comparing the divided voltage and a reference voltage, to decide whether a short circuit occurs in the one or more light-emitting diode strings according to a result of the comparison.

Abstract: A power management method for a computer system is provided. The power management method includes: obtaining a system power consumption; determining whether the system power consumption is greater than a first safe operating point; when the system power consumption is greater than the first safe operating point, controlling a CPU and a graphics processing unit (GPU) to activate a frequency reduction mechanism according to a first adjustment sequence; when the system power consumption is not greater than the first safe operating point, determining whether the system power consumption is smaller than a second safe operating point; and when the system power consumption is smaller than the second safe operating point, controlling the CPU and the GPU to deactivate the frequency reduction mechanism according to a second adjustment sequence. The second adjustment sequence is reverse to the first adjustment sequence.

Abstract: A method and system for motion estimation modeling for cardiac and respiratory motion compensation is disclosed. Specifically, a coronary sinus catheter is tracked in a plurality of frames of a fluoroscopic image sequence; and cardiac and respiratory motion of a left atrium is estimated in each of the plurality of frames based on tracking results of the coronary sinus catheter using a trained motion estimation model.

Abstract: A device projecting images by micro electro-mechanical system (MEMS) technology mirrors includes a base, a first substrate, a first reflective mirror, a second substrate, and a second reflective mirror. The first substrate and the second substrate are adjacently positioned on the base. The first reflective mirror is formed on the first substrate by a micro electro-mechanical system (MEMS) technology and configured for receiving a light beam and rotating in two directions under control of the MEMS for reflect the received light in two directions. The second reflective mirror is formed on the rotatable second substrate to receive the image and be rotated, thus further adjusting the range of the projected images.

Abstract: A device projecting images by micro electro-mechanical system (MEMS) technology mirrors includes a base, a rotating seat, a substrate, a reflective mirror, a driver, and a controller. The rotating seat is rotably positioned on the base. The substrate is positioned on the rotating seat. The at least one MEMS reflective mirror is formed on the substrate and configured for rotating in two directions under control of the attached driver and controller to form two-dimensional images in a range.

Abstract: The disclosure provides a capturing apparatus and a capturing method for the capturing apparatus. The method includes steps: controlling the capturing unit to capture an image; performing an image processing function in relation to the captured image to obtain pixels of the captured image; comparing the pixels of the captured image with the pixels of the pre-stored standard images and determining whether a percentage of the pixels of the image is similar to the pixels of one of the standard images. If the percentage of the pixels of the image reaches a threshold of similarity to the pixels of one standard image, acquiring the parameters associated with the standard image; and controlling the capturing unit to capture subsequent images according to the parameters associated with the standard image.

Abstract: A circuit board assembly includes a circuit board, a first optical transceiver electrically connected to the circuit board, a first transparent shell optically coupled with the first optical transceiver, a second optical transceiver electrically connected to the circuit board, a second transparent shell optically coupled with the second optical transceiver, and a plurality of light wave guides optically coupled with the first transparent shell and the second transparent shell. The first optical transceiver sends first light signals. The first light signals are transmitted through the first transparent shell, the light wave guides, and the second transparent shell and are received by the second optical transceiver. The second optical transceiver sends second light signals. The second light signals are transmitted through the second transparent shell, the light wave guides, and the first transparent shell and are received by first optical transceiver.