Abstract: A electrical connector structure includes ground terminals formed in two rows, which are fixed into two bases respectively, in which each of the ground terminals includes a contact portion, a soldering portion and a main body is connected to the contact portion and the soldering portion, and each main body is fixed into the bases, and each soldering portion extends out of the bases; and a ground member including two ground plates, in which the ground plates covering surfaces of the bases, respectively, and a surface of each ground plate has a plurality of contact arms protruding, the contact arms are electrically contacted to the ground terminals, respectively, in which two ends of each contact arm contact the ground plates, respectively.

Abstract: A pixel includes a voltage dividing unit, a LC capacitor, a control unit, a first capacitor, a writing-in unit, and an adjusting unit. First terminal of the voltage dividing unit receives a first power voltage. The control terminal of the voltage dividing unit receives a first control signal. The LC capacitor is electrically coupled to the second terminal of voltage dividing unit. The control terminal of the control unit receives a second control signal. The writing-in unit provides a first pixel data signal to the first capacitor based on a third control signal. The adjusting unit receives a second power voltage. The adjusting unit divides voltage difference between the first and second power voltages based on the first pixel data signal stored in the first capacitor so as to control voltage stored in the LC capacitor, such that the LC corresponding to LC capacitor can be controlled.

Abstract: A wearable electronic device is provided. The wearable electronic device includes a wireless communication unit, a processing unit, a watch interface and a display unit. The wireless communication unit performs wireless communication with a portable electronic device. The processing unit synchronizes with the portable electronic device to retrieve event data from the portable electronic device through the wireless communication unit, wherein the event data comprises a plurality of events and time information corresponding to the events. The watch interface has a dial. The processing unit controls the display unit to display a color bar surrounding the dial, wherein the color bar includes a plurality of sections to display durations of the events based on the time information. When the processing unit determines that a time-based condition or a location-based condition of the events is met, an intimating signal is generated under the control of the processing unit.

Abstract: A wireless communication device is provided. The wireless communication device comprises a circuit board and a loop antenna. The circuit board includes a wireless communication circuit. The wireless communication circuit includes a signal transmitting end and a ground terminal. The loop antenna includes a conductive loop, a feed portion, a first short-circuit portion and a second short-circuit portion. The feed portion is connected between the conductive loop and the signal transmitting end. The first short-circuit portion and the second short-circuit portion are connected between the conductive loop and the ground terminal, respectively.

Abstract: A pixel includes a voltage dividing unit, a LC capacitor, a control unit, a first capacitor, a writing-in unit, and an adjusting unit. First terminal of the voltage dividing unit receives a first power voltage. The control terminal of the voltage dividing unit receives a first control signal. The LC capacitor is electrically coupled to the second terminal of voltage dividing unit. The control terminal of the control unit receives a second control signal. The writing-in unit provides a first pixel data signal to the first capacitor based on a third control signal. The adjusting unit receives a second power voltage. The adjusting unit divides voltage difference between the first and second power voltages based on the first pixel data signal stored in the first capacitor so as to control voltage stored in the LC capacitor, such that the LC corresponding to LC capacitor can be controlled.

Abstract: A microparticle structure for a slow release of an insect attractant pheromone includes: a core layer and a shell layer. The core layer may include a carrier and a first attractant pheromone, wherein the carrier is formed of a biodegradable material. The shell layer may be a shell including a plurality of microcapsules encapsulating the core layer, wherein the plurality of microcapsules include a chitosan shell and a second attractant pheromone encapsulated by the chitosan shell.

Abstract: A light emitting diode (LED) lighting module includes a plurality of LED components and a carrier. The LED components are electrically connected in series, and each LED component includes a LED die having a perpendicular structure. The carrier includes a substrate and a protecting dam, the LED components and the protecting dam are respectively placed on the substrate, and a height of the protecting dam is higher than that of each LED component. When a specific condition is satisfied, a short circuit condition between two adjacent LED components when performing die-bond procedure is prevented.

Abstract: A pixel circuit includes a display unit, a driving unit, a reset unit, a data unit, and a storage unit. The display unit is electrically coupled to a first supply voltage source. The driving unit has one end electrically coupled to the display unit and has another end electrically coupled to a second supply voltage source. The driving unit charges the display unit. The reset unit is electrically coupled to the driving unit and the display unit, and provides a reset voltage to an operating node between the driving unit and the display unit. The data unit is electrically coupled to the driving unit and provides a data voltage to the driving unit. The storage unit stores a voltage difference between the operating node and a data node between the data unit and the driving unit.

Abstract: A wearable electronic device includes a device body and a wearing element. The wearing element is connected to the device body. The device body includes a conductive upper cover, a conductive lower cover, an insulating frame and a circuit system. The insulating frame is disposed between the conductive upper cover and the conductive lower cover and forms an accommodating space therewith. The circuit system is disposed in the accommodating space. The conductive upper cover has a first feeding point. The conductive lower cover has a second feeding point. The circuit system is coupled to the first feeding point and the second feeding point respectively.

Abstract: A light emitting diode (LED) lighting module includes a plurality of LED components and a carrier. The LED components are electrically connected in series, and each LED component includes a LED die having a perpendicular structure. The carrier includes a substrate and a protecting dam, the LED components and the protecting dam are respectively placed on the substrate, and a height of the protecting dam is higher than that of each LED component. When a specific condition is satisfied, a short circuit condition between two adjacent LED components when performing die-bond procedure is prevented.

Abstract: A pixel driving circuit includes a first capacitor, a data input unit, a liquid crystal capacitor, a control unit and a driving unit. The first capacitor has a first terminal and a second terminal, wherein the first terminal is configured for receiving a first reference voltage. The data input unit is configured for inputting a data signal to the second terminal of the first capacitor according to a first scanning signal. The liquid crystal capacitor has a first terminal and a second terminal. The first terminal receives a first operating signal. The control unit is configured to control a voltage of the second terminal of the liquid crystal capacitor according to a second scanning signal. The driving unit is configured to control the voltage of the second terminal of the liquid crystal capacitor in response to the data input unit is disabled by the first scanning signal.

Abstract: A carrier generation material is provided, which has a chemical structure of: wherein R1 is hydrogen or alkyl group; each of R2 is independently hydrogen, halogen, —CN, —CF3, —NO2, or alkyl group; each of R3 is independently hydrogen, halogen, —CN, —CF3, —NO2, or alkyl group; R4 is hydrogen, halogen, —CN, —CF3, —NO2, or alkyl group; R5 is hydrogen, halogen, —CN, —CF3, —NO2, or alkyl group; R6 is ?O, ?NH, or malononitrile group, and R7 is hydrogen, halogen, —CN, —CF3, —NO2, or alkyl group.

Abstract: A wearable electronic device includes a body and a wearing element. The body includes a conductive frame. The conductive frame includes a feeding point and at least one grounding point to form a first current path and a second current path. Furthermore, the conductive frame forms a loop antenna via the first current path and the second current path, respectively, so as to operate in a first band and a second band. The wearing element is connected to the body.

Abstract: An organic light-emitting device is provided. The organic light-emitting device includes a substrate having a first surface and a second surface opposite to the first surface; an organic light-emitting element disposed on the first surface; and a low refractive index layer disposed on the second surface, wherein the low refractive index layer includes a mixture including polyvinylidene fluoride and inorganic nano-platelet, a hyperbranched polysiloxane, or a combination thereof.

Abstract: A pixel driving circuit includes a first capacitor, a data input unit, a liquid crystal capacitor, a control unit and a driving unit. The first capacitor has a first terminal and a second terminal, wherein the first terminal is configured for receiving a first reference voltage. The data input unit is configured for inputting a data signal to the second terminal of the first capacitor according to a first scanning signal. The liquid crystal capacitor has a first terminal and a second terminal. The first terminal receives a first operating signal. The control unit is configured to control a voltage of the second terminal of the liquid crystal capacitor according to a second scanning signal. The driving unit is configured to control the voltage of the second terminal of the liquid crystal capacitor in response to the data input unit is disabled by the first scanning signal.

Abstract: Embodiments of the present disclosure provide methods for patterning a hardmask layer disposed on a metal layer, such as a copper layer, to form an interconnection structure in semiconductor devices. In one embodiment, a method of patterning a hardmask layer on a metal layer disposed on a substrate includes supplying a first etching gas mixture comprising a carbon-fluorine containing gas and a chlorine containing gas into a processing chamber to etch a portion of a hardmask layer disposed on a metal layer formed on a substrate, supplying a second etching gas mixture comprising a hydrocarbon gas into the processing chamber to clean the substrate, and supplying a third etching gas mixture comprising a carbon-fluorine containing gas to remove a remaining portion of the hardmask layer until a surface of the metal layer is exposed.

Abstract: A carrier generation material is provided, which has a chemical structure of: wherein R1 is hydrogen or alkyl group; each of R2 is independently hydrogen, halogen, —CN, —CF3, —NO2, or alkyl group; each of R3 is independently hydrogen, halogen, —CN, —CF3, —NO2, or alkyl group; R4 is hydrogen, halogen, —CN, —CF3, —NO2, or alkyl group; R5 is hydrogen, halogen, —CN, —CF3, —NO2, or alkyl group; R6 is ?O, ?NH, or malononitrile group, and R7 is hydrogen, halogen, —CN, —CF3, —NO2, or alkyl group.

Abstract: A receptacle connector includes a connector body at least suitable to mate with a plug connector having an insulating housing and a metal case. The metal case encompasses the outside of the insulating housing, and the metal case is made of a suitable metallic material. The connector body includes a plurality of metal terminals and a plastic base. The plastic base includes at least a tongue plate for the metal terminals to interpose therein. The plastic base forms a circumferential gap near a region in the vicinity of the tongue plate. The circumferential gap defines an accommodation space. When the receptacle connector and the plug connector are mated, the metal case at least partially encompasses the outside of the tongue plate. When the receptacle connector and another plug connector with a longer metal case are mated, the longer metal case is accommodated in the circumferential gap.

Abstract: A high-frequency electronic connector includes an insulating main body, a terminal module and a metal shielding plate. The insulating main body includes a matching portion and a mounting portion. The terminal module includes signal terminals and grounding terminals. Each of the signal terminals and the grounding terminals has a docking portion, a main body portion, and a trailing portion. The docking portions extend out of the matching portion and are aligned in two opposite rows. The trailing portions extend out of the mounting portion. The main body portions are fixed on the insulating main body. The main body portion of each of the grounding terminals has a notch. The metal shielding plate is disposed at the notches and electrically connected with the grounding terminals. The metal shielding plate is located between the two opposite rows of the signal terminals.

Abstract: A high-frequency electronic connector includes an insulating main body, a terminal module and a metal shielding plate. The insulating main body includes a matching portion and a mounting portion. The terminal module includes signal terminals and grounding terminals. Each of the signal terminals and the grounding terminals has a docking portion, a main body portion, and a trailing portion. The docking portions extend out of the matching portion and are aligned in two opposite rows. The trailing portions extend out of the mounting portion. The main body portions are fixed on the insulating main body. The main body portion of each of the grounding terminals has a notch. The metal shielding plate is disposed at the notches and electrically connected with the grounding terminals. The metal shielding plate is located between the two opposite rows of the signal terminals.