Abstract: A sensing device including a transistor, at least one response electrode, and a receptor is provided. The transistor includes a gate end, a source end, a drain end, and a semiconductor layer. The source end and the drain end are located on the semiconductor layer, and the gate end is located between the source end and the drain end. The at least one response electrode is disposed opposite to the gate end of the transistor and spaced apart from the transistor. The receptor is bonded onto the at least one response electrode. When a voltage is applied to the at least one response electrode, an electric field between the at least one response electrode and the gate end of the transistor is F, and F?1 mV/cm.

Abstract: A method and user equipment for transmission slot blank. The method includes, at the user equipment (“UE”), establishing a voice call, determining whether the voice call currently comprises a silence period, blanking at least two slots of a control frame according to a predetermined pattern, wherein the predetermined pattern includes at least one slot that is not blanked between the at least two slots that are blanked, and transmitting the control frame.

Abstract: Adaptive multiplexing and transmit/receive diversity. A wireless device may include multiple antennas. A first set of antennas may be used for communication. One or more trigger conditions may be determined, and additional antennas may be activated for measurement. Based on the measurement(s), a second set of antennas may be selected and used for communication.

Abstract: A device and method for power saving between a scheduling request and a grant. A user equipment (UE) establishes a connection to a network, the UE and the network may be configured with a Connected Discontinuous Reception (C-DRX) functionality, the C-DRX functionality including a cycle with at least one onDuration. The UE transmits, during a first subframe a scheduling request (SR) to the network, the SR corresponds to data that is to be transmitted by the UE. The UE determines a second subframe for the UE to enter an active mode of processing for a reception of a grant, the second subframe is subsequent to the first subframe and prior to a next onDuration. The UE initiates an active mode of processing for the reception of the grant during the second subframe.

Abstract: A device and method for power saving between a scheduling request and a grant. A user equipment (UE) establishes a connection to a network, the UE and the network may be configured with a Connected Discontinuous Reception (C-DRX) functionality, the C-DRX functionality including a cycle with at least one onDuration. The UE transmits, during a first subframe a scheduling request (SR) to the network, the SR corresponds to data that is to be transmitted by the UE. The UE determines a second subframe for the UE to enter an active mode of processing for a reception of a grant, the second subframe is subsequent to the first subframe and prior to a next onDuration. The UE initiates an active mode of processing for the reception of the grant during the second subframe.

Abstract: A method and user equipment for transmission slot blank. The method includes, at the user equipment (“UE”), establishing a voice call, determining whether the voice call currently comprises a silence period, blanking at least two slots of a control frame according to a predetermined pattern, wherein the predetermined pattern includes at least one slot that is not blanked between the at least two slots that are blanked, and transmitting the control frame.

Abstract: A display device and a display driving circuit with electromagnetic interference suppression capability are provided. The display device includes a substrate, an active matrix, a display driver and a thin-film transistor (TFT) conditioning circuit. The active matrix disposed on the substrate includes multiple data lines, multiple gate lines and multiple pixels. The data lines intersect with the gate lines. The pixels are coupled to intersections of the data lines and the gate lines. The display driver disposed on the substrate generates signals for driving the data lines and/or the gate lines in response to a conditioned serial data clock. The TFT conditioning circuit disposed on the substrate is coupled to the display driver. The TFT conditioning circuit includes one or more TFTs, and attenuates an amplitude of a serial data clock in response to a predetermined gate bias to provide the conditioned serial data clock to the display driver.

Abstract: A method of detecting cells is provided. The method includes the following steps. A sensor device including a base and at least one response electrode is provided, wherein the response electrode is spaced apart from the base with respect to a gate end of the base. A test solution containing a target cell is placed on the response electrode, a first pulse voltage is applied to the response electrode, and a first detection current generated from the base is measured. A membrane potential of the target cell is changed, a second pulse voltage is applied to the response electrode, and a second detection current generated from the base is measured, wherein a sign of the first detection current and a sign of the second detection current are opposite.

Abstract: The invention relates to a conductive paste comprising from 30 to 97% by weight of electrically conductive particles, from 0 to 20% by weight of a glass frit, from 3 to 70% by weight of an organic medium and from 0.1 to 67% by weight of a silicone oil, each based on the total mass of the paste, wherein the silicone oil has a boiling point or a boiling range in the range between 180° C. and 350° C. The invention further relates to a use of the conductive paste and a process for producing electrodes on a semiconductor substrate using the paste.

Abstract: Adaptive multiplexing and transmit/receive diversity. A wireless device may include multiple antennas. A first set of antennas may be used for communication. One or more trigger conditions may be determined, and additional antennas may be activated for measurement. Based on the measurement(s), a second set of antennas may be selected and used for communication.

Abstract: A tissue identification method including a preparation step and a detection step is provided. The preparation step includes preparing a biosensor which includes a transistor and a response electrode. The response electrode is spaced apart from the transistor relative to a gate terminal of the transistor. The detection step includes disposing a biological tissue sample to be identified on the response electrode, applying a pulse voltage that has a tunable pulse width and a tunable pulse height to the response electrode, resulting in a voltage difference between the response electrode and the gate terminal of the transistor, and measuring and calculating a detection current which is generated from the transistor in the pulse width, so as to obtain a first sensing indicator. In addition, a biosensor for tissue identification is also provided.

Abstract: The present invention provides a layout pattern of a static random access memory (SRAM). The layout pattern includes a first inverter and a second inverter constituting a latch circuit, wherein the latch circuit includes four transistors, a first access transistor (PG1) and a second access transistor (PG2) being electrically connected to the latch circuit, wherein the first access transistor is electrically connected to a first word line and a first bit line, and the second access transistor is electrically connected to a second word line and a second bit line, the first access transistor has a first gate length, the first access transistor has a second gate length, and the first gate length is different from the second gate length, and two read transistors series connected to each other, wherein one of the two read transistors is connected to the latch circuit.

Abstract: A biosensor includes a transistor and a reactive electrode. The transistor has a source, a drain and a gate surface disposed therebetween. The reactive electrode is spaced apart from the gate surface of the transistor, has a receptor immobilized thereon for specific binding with an analyte in a liquid sample, and is configured to contact the liquid sample together with the gate surface of the transistor.

Abstract: Adaptive multiplexing and transmit/receive diversity. A wireless device may include multiple antennas. A first set of antennas may be used for communication. One or more trigger conditions may be determined, and additional antennas may be activated for measurement. Based on the measurement(s), a second set of antennas may be selected and used for communication.

Abstract: A bonding apparatus includes a wafer stage, a first chip stage, a first chip transporting device, a second stage and a second chip transporting device. The wafer stage is used for holding a wafer. The first chip stage is used for holding at least one first chip. The first chip transporting device is used for transporting the first chip from the first chip stage onto the wafer. The second chip stage is used for holding at least one second chip. The second chip transporting device is used for transporting the second chip from the second chip stage onto the wafer.

Abstract: A detecting method for blood is provided. The method includes the following steps. A sensing device including a base and at least one response electrode is provided, wherein the response electrode is spaced apart from a gate end of the base. Blood including blood cells and targets is disposed on the response electrode. The blood is separated into a first part and a second part, wherein the first part is in contact with the response electrode, and the blood cell count in the first part is less than that in the second part. A voltage is applied on the response electrode, such that an electric field is generated between the response electrode and the gate end of the base, and a detection current generated from the base is measured to detect a characterize of the targets.

Abstract: In a ball movement state measuring system with a ball, a sensing module, a wireless communication module, a power supply and an induction coil, the speed, rotation speed, rotation axis and trace of the ball at first movement state are calculated based on first accelerated speed and first angular velocity of the ball at first movement state and first movement result is obtained by the processor. The speed, rotation speed, rotation axis and trace of the ball at second movement state are calculated based on speed and rotation axis of the ball at first movement state, second accelerated speed and environment parameter of the ball at second movement state and second movement result is obtained by the processor. The ball is forced by gravity, applied force and air resistance at first movement state, and the ball is forced by gravity, air resistance and centripetal force at second movement state.

Abstract: In a ball movement state measuring system with a ball, a sensing module, a wireless communication module, a power supply and an induction coil, the speed, rotation speed, rotation axis and trace of the ball at first movement state are calculated based on first accelerated speed and first angular velocity of the ball at first movement state and first movement result is obtained by the processor. The speed, rotation speed, rotation axis and trace of the ball at second movement state are calculated based on speed and rotation axis of the ball at first movement state, second accelerated speed and environment parameter of the ball at second movement state and second movement result is obtained by the processor. The ball is forced by gravity, applied force and air resistance at first movement state, and the ball is forced by gravity, air resistance and centripetal force at second movement state.

Abstract: A sensing device including a transistor, at least one response electrode, and a receptor is provided. The transistor includes a gate end, a source end, a drain end, and a semiconductor layer. The source end and the drain end are located on the semiconductor layer, and the gate end is located between the source end and the drain end. The at least one response electrode is disposed opposite to the gate end of the transistor and spaced apart from the transistor. The receptor is bonded onto the at least one response electrode. When a voltage is applied to the at least one response electrode, an electric field between the at least one response electrode and the gate end of the transistor is F, and F?1 mV/cm.

Abstract: A sensing device including a transistor, at least one response electrode, and a selective membrane is provided. The transistor includes a gate end, a source end, a drain end, and a semiconductor layer, wherein the source end and the drain end are located on the semiconductor layer, and the gate end is located between the source end and the drain end. The at least one response electrode is disposed opposite to the gate end of the transistor and spaced apart from the transistor. The selective membrane is located on the at least one response electrode or on the transistor.