Abstract: A transmission device includes a daisy chain structure composed of at least three daisy chain units arranged periodically and continuously. Each of the daisy chain units includes first, second and third conductive lines, and first and second conductive pillars. The first and second conductive lines at a first layer extend along a first direction and are discontinuously arranged. The third conductive line at a second layer extends along the first direction and is substantially parallel to the first and second conductive lines. The first conductive pillar extends in a second direction. The second direction is different from the first direction. A first part of the first conductive pillar is connected to the first and third conductive lines. The second conductive pillar extends in the second direction. A first part of the second conductive pillar is connected to the second and third conductive lines.

Abstract: A CIS has a monolithic transfer gate electrode embedded in the semiconductor substrate. In some embodiments, the transfer gate electrode is below the surface. In some embodiments, the top of the transfer gate electrode is nearly even with or below a bottom of a floating diffusion region. In some embodiments, the transfer gate electrode wraps partially around the area of the floating diffusion region. In some embodiments, the transfer gate electrode wraps entirely around the area of the floating diffusion region. Embedding the transfer gate in the substrate reduces surface crowding and allows a scale reduction. The wrapping of the transfer gate electrode around the area of the floating diffusion region increases the area of the transfer gate channel while limiting the area that is occupied by the transfer gate.

Abstract: A SRAM structure includes a first SRAM cell, a second SRAM cell arranged in mirror symmetry with the first SRAM cell along a first direction, a third SRAM cell arranged in mirror symmetry with the first SRAM cell along a second direction perpendicular to the first direction, and a fourth SRAM cell arranged in mirror symmetry with the third SRAM cell along the first direction and arranged in mirror symmetry with the second SRAM cell along the second direction. Each of SRAM cells includes a first and a second pull-down transistor. The SRAM structure further includes a contact bar extending in the second direction to sources of the second pull-down transistors of the first and third SRAM cells and extending in a third direction opposite to the second direction to sources of the second pull-down transistors of the second and fourth SRAM cells.

Abstract: A SRAM structure includes a first SRAM cell, a second SRAM cell arranged in mirror symmetry with the first SRAM cell along a first direction, a third SRAM cell arranged in mirror symmetry with the first SRAM cell along a second direction perpendicular to the first direction, and a fourth SRAM cell arranged in mirror symmetry with the third SRAM cell along the first direction and arranged in mirror symmetry with the second SRAM cell along the second direction. Each of SRAM cells includes a first and a second pull-down transistor. The SRAM structure further includes a contact bar extending in the second direction to sources of the second pull-down transistors of the first and third SRAM cells and extending in a third direction opposite to the second direction to sources of the second pull-down transistors of the second and fourth SRAM cells.

Abstract: SRAM structures are provided. A SRAM structure includes multiple SRAM cells arranged in multiple rows and multiple columns. A first SRAM cell is adjacent to a second SRAM cell in the same row. A third SRAM cell is adjacent to the first SRAM cell in the same column. A fourth SRAM cell is adjacent to the second SRAM in the same column. A contact plug is positioned between the first, second, third and fourth SRAM cells. A VSS line is electrically coupled to the first, second, third and fourth SRAM cells through the contact plug. The contact plug is free of the barrier layer.

Abstract: SRAM structures are provided. A SRAM structure includes multiple SRAM cells arranged in multiple rows and multiple columns. A first SRAM cell is adjacent to a second SRAM cell in the same row. A third SRAM cell is adjacent to the first SRAM cell in the same column. A fourth SRAM cell is adjacent to the second SRAM in the same column. A contact plug is positioned between the first, second, third and fourth SRAM cells. A VSS line is electrically coupled to the first, second, third and fourth SRAM cells through the contact plug. The contact plug is free of the barrier layer.

Abstract: SRAM structures are provided. A first SRAM cell is adjacent to a second SRAM cell in the same row. A third SRAM cell is adjacent to the first SRAM cell in the same column. A fourth SRAM cell is adjacent to the second SRAM in the same column. First fins are parallel to a first direction and positioned within the first and third SRAM cells. Second fins are parallel to the first direction and positioned within the second and fourth SRAM cells. A contact bar extends parallel to a second direction to across the first fins and extends parallel to a third direction to across the second fins. A contact plug is formed on the contact bar. VSS line is electrically coupled to the contact bar through the contact plug. The first direction is perpendicular to the second direction. The second direction is opposite to the third direction.

Abstract: A method of diagnosing a battery and adaptively adjusting charging modes of the battery includes the steps of initially charging the battery using a constant current mode, wherein the battery is charged by a fix current in the constant current mode; monitoring a deterioration index by a battery management system (BMS), the deterioration index including a highest temperature (Tempmax), an instantaneous temperature difference (?Temp), an instantaneous voltage difference (?V), an instantaneous internal resistance (IRmax), and a state of charge (SoC) of the battery; when Temp exceeds a predetermined temperature threshold, pausing charging the battery; charging the battery by a constant power charging mode when Tempmax becomes smaller than 90% of the predetermined temperature threshold, wherein the battery is charged by a fix electric power in the constant power mode; charging the battery by the constant current charging mode when Tempmax becomes smaller than 50% of the predetermined temperature thresh old.

Abstract: A motor simulator without requiring a motor is a testing motor controller used for inputting a driving signal according to a power supply driving signal, feeding back a status response of a dynamic calculator of the motor simulator, outputting a voltage and current reference command value required by the motor simulator to the motor simulator, so that the dynamic calculator and the electric power converter installed in the motor simulator generate a voltage and a current of an actual motor in an operating status. Therefore, the testing motor controller keeps converting and adjusting the electric energy for driving an operation of the motor simulator according to a status response fed back by the dynamic calculator of the motor simulator, so as to achieve a control function of the testing motor controller for testing the rotation speed and positioning of the motor.

Abstract: A method of diagnosing a battery and adaptively adjusting charging modes of the battery includes the steps of initially charging the battery using a constant current mode, wherein the battery is charged by a fix current in the constant current mode; monitoring a deterioration index by a battery management system (BMS), the deterioration index including a highest temperature (Tempmax), an instantaneous temperature difference (?Temp), an instantaneous voltage difference (?V), an instantaneous internal resistance (IRmax), and a state of charge (SoC) of the battery; when Temp exceeds a predetermined temperature threshold, pausing charging the battery; charging the battery by a constant power charging mode when Tempmax becomes smaller than 90% of the predetermined temperature threshold, wherein the battery is charged by a fix electric power in the constant power mode; charging the battery by the constant current charging mode when Tempmax becomes smaller than 50% of the predetermined temperature thresh old.

Abstract: A motor simulator without requiring a motor is a testing motor controller used for inputting a driving signal according to a power supply driving signal, feeding back a status response of a dynamic calculator of the motor simulator, outputting a voltage and current reference command value required by the motor simulator to the motor simulator, so that the dynamic calculator and the electric power converter installed in the motor simulator generate a voltage and a current of an actual motor in an operating status. Therefore, the testing motor controller keeps converting and adjusting the electric energy for driving an operation of the motor simulator according to a status response fed back by the dynamic calculator of the motor simulator, so as to achieve a control function of the testing motor controller for testing the rotation speed and positioning of the motor.

Abstract: A zero sequence current control apparatus and a zero sequence current control method for parallel power converters are disclosed to overcome the issue of having uniform output power for the parallel operation of a plurality of single module voltage control power converters, and an eCAN BUS acts as a communication interface for transmitting instructions, so that when each of the single module voltage control power converters is operated in the parallel operation, the effect of outputting uniform voltage, current and power can be achieved.

Abstract: The present invention relates to a method for detecting lithium battery. In the present invention, the method for detecting lithium battery is provided for executing the two pulse load test and AC impedance analysis to determine not only whether the state of health (SOH) of lithium battery is working or not, but also the SOH of battery would be precisely estimated to obtain the precise SOH and to avoid detection error resulted in substantial waste of resources.

Abstract: The invention provides a DC to DC converting circuit, comprising: a transforming unit with a primary winding and a secondary winding; a bridge rectifier unit coupled to an input voltage, having a first output terminal and a second output terminal coupled to both side of the primary winding respectively; a first switch coupled between the input voltage and the first output terminal; a second switch coupled between the first output terminal and a ground terminal; a third switch coupled between the input voltage and the second output terminal; and a fourth switch coupled between the second output terminal and the ground terminal; an output unit paralleled to the secondary winding; and a clamping unit coupled to the input voltage and paralleled to the bridge rectifier unit, having an auxiliary switch coupled to the input voltage; and a clamping capacitor coupled between the auxiliary switch and the ground terminal; wherein the auxiliary switch is turned on when operation statuses of the first switch and the fourt

Abstract: Disclosed is a dual-source converter for a hybrid power supply. The converter includes a first power circuit, a second power circuit, an auxiliary circuit, an output circuit and a closed loop circuit. The first power circuit is electrically connected to the second power circuit in series for receiving two varied voltage sources. The auxiliary circuit is configured to achieve soft switching of all switches. The closed loop circuit is configured to control the duty cycles of the first power circuit, the second power circuit and the auxiliary circuit so as to improve the efficiency of the dual-source converter.

Abstract: The invention provides a DC to DC converting circuit, comprising: a transforming unit with a primary winding and a secondary winding; a bridge rectifier unit coupled to an input voltage, having a first output terminal and a second output terminal coupled to both side of the primary winding respectively; a first switch coupled between the input voltage and the first output terminal; a second switch coupled between the first output terminal and a ground terminal; a third switch coupled between the input voltage and the second output terminal; and a fourth switch coupled between the second output terminal and the ground terminal; an output unit paralleled to the secondary winding; and a clamping unit coupled to the input voltage and paralleled to the bridge rectifier unit, having an auxiliary switch coupled to the input voltage; and a clamping capacitor coupled between the auxiliary switch and the ground terminal; wherein the auxiliary switch is turned on when operation statuses of the first switch and the fourt

Abstract: The present invention relates to a voltage converting circuit of active-clamping zero voltage switch, consisting of a transformed unit, a primary-side input unit, a second-side output unit, and a first switch, wherein the primary-side input unit has a clamping capacitor and a second switch, which are used for avoid from the production of spike voltage on the first switch when the first switch is turned off, so as to increase the voltage conversion efficiency of the voltage converting circuit.

Abstract: The present invention relates to a secondary side serial resonant full-bridge DC/DC converter, comprising: a transistor full-bridge unit, a transformer unit, a resonant unit, a rectifying unit, and an output unit. Particularly, in the present invention, a resonant inductor and a resonant capacitor of the resonant unit and a load resistor of the output unit constitute a serial resonant circuit having a serial resonant frequency; therefore, when the circuit frequency is operated on the serial resonant frequency, the resonant inductor impedance would be offset by the resonant capacitor impedance, such that the circuit is operated in the zero current switch (ZCS) region, and the output voltage variation can be controlled in ±0.2%. Moreover, through the serial resonant circuit, the issue about the resonant components hard to be designed due to their small characteristic impedance can simultaneously be improved.

Abstract: A battery testing system with energy circulation includes a battery module to be tested, an electric power storage module, a bi-directional conversion module and a control module, and the control module controls the bi-directional conversion module to discharge the electric power storage module and charge the battery module to be tested, or discharge the battery module to be tested and charge the electric power storage module, so that the electricity can be fully and repeatedly used, and the electric power storage module can use a second-used power battery to save the cost of the electric power storage module while the battery testing system can be isolated from the grid of utility power to avoid creating a burden to the grid of the utility power.

Abstract: A constant-frequency asynchronous modulation apparatus includes a current feedback control unit connected to a constant-frequency asynchronous modulation unit. The current feedback control unit includes a reference signal generator and an error amplifier. The reference signal generator provides an error. The error amplifier is connected to a reference signal generator, and provides an error-compensating signal based on the error, and adds up a reference signal and the error-compensating signal to provide a compensation reference signal. The constant-frequency asynchronous modulation unit connected to the current feedback control unit, and includes a hysteresis comparator, an integrator connected to the hysteresis comparator, and a hysteresis boundary generator connected to both of the hysteresis comparator and the integrator.