Delta Electronics, Inc.

Quanta Storage Inc.

Tsinghua University

Power Forest Technology Corporation

Cheng-Yi Lin

Sheng-Yu Wen

Yi-Long Hsiao

Ting-Yun Lu

Ying-Kai Yu

Yi-Chih Hsu

Jen-Yuan Chang

Tsung-Shune Chin

Chien-Chung Chang

Cheng-Kuo Sung

Kuan-Sheng Wang

Wei-Chan Hsu

Heng-Sheng Hsiao

Ren-Huei Tzeng

Jen-Chieh Tsai

Sheng-Ching Wang

Chun-Chih Chen

Hung-Wen Chueh

Geu-Cheng Hu

Chien-Yu Lo

Shih-Wei Chen

Yi-Han Yang

A connector is disclosed and includes a housing base, a conductive terminal, a signal terminal and a protrusion. A sleeve of an electronic device end sleeves on the housing base through an opening end along a first direction and slides a first displacement distance, plural contact pins of the electronic device end slide into the accommodation space through the opening end, and a conductive contact pin of the electronic device end is interfered with the conductive terminal to form an electrical connection. The protrusion is elastically connected to the housing base and penetrates through the housing base. When the sleeve passes through the opening end and slides a second displacement distance greater than the first displacement distance, the protrusion is interfered with the sleeve and drives the signal terminal, so that the signal terminal pushes against a signal contact pin of the electronic device end to form an electrical connection.

Connector

A connector is disclosed and includes a main body, a sleeving component, a conductive terminal and a signal terminal. The main body has an opening end and a sleeved end opposite to each other. An electronic device end is matched with the connector through the opening end. The sleeving component is slidably disposed on the sleeved end, and includes a conductive contact portion and a signal contact portion arranged in parallel. The conductive terminal is fixed to the main body for connecting with the conductive contact portion. The signal terminal is fixed to the main body for connecting with the signal contact portion. When the connector is detached from the electronic device end, the sleeving component is displaced relative to the main body, the signal contact portion is separated from the signal terminal, and the conductive terminal end and the conductive contact portion are maintained in an electrical connection.

A hybrid power conversion circuit includes a high-side switch, a low-side switch, a transformer, a resonance tank, a first switch, a second switch, a first synchronous rectification switch, a second synchronous rectification switch, and a third switch. The resonance tank has an external inductor, an external capacitance, and an internal inductor. The first switch is connected to the external inductor. The second switch and a first capacitance form a series-connected path, and is connected to the external capacitance. The first and second synchronous rectification switches are respectively coupled to a first winding and a second winding. The third switch is connected to the second synchronous rectification switch. When an output voltage is less than a voltage interval, the hybrid power conversion circuit operates in a hybrid flyback conversion mode, and otherwise the hybrid power conversion circuit operates in a resonance conversion mode.

Hybrid power conversion circuit

The disclosure provides a power transmission system and method. The power transmission method includes: determining to perform a charging operation or a discharge operation between a battery module and a power supplying/receiving module according to a handshake procedure performed by a power transmission module. Performing the charging operation includes: adjusting a supply voltage outputted by the power supplying/receiving module; and converting the supply voltage into a charging voltage received by the battery module to charge the battery module. Performing the discharging operation includes: converting a discharge voltage outputted by the battery module into a required voltage required by the power supplying/receiving module to supply the power supplying/receiving module. The charging operation or the discharging operation is performed in a maximum power mode, an optimal efficiency mode or a combination thereof between the battery module and the power supplying/receiving module.

Power transmission system and method

The present disclosure provides a DC motor driving system including a DC motor, a power supply device, a switch circuit, and a microprocessor. The power supply device provides an input electrical energy. The switch circuit receives the input electrical energy and outputs a motor electrical energy, which includes a motor power and a motor voltage, to the DC motor. The DC motor driving system switchably works in a constant-voltage mode, a first variable-voltage mode, or a second variable-voltage mode. In the constant-voltage mode, the input electrical energy remains unchanged. In the first variable-voltage mode, the microprocessor controls the power supply device to adjust the input electrical energy for increasing the motor voltage and the motor power. In the second variable-voltage mode, the microprocessor controls the power supply device to adjust the input electrical energy for decreasing the motor voltage and keeping the motor power unchanged.

DC motor driving system and method

An active bridge rectifying control apparatus includes a bridge rectifying unit and a rectifying control module. The rectifying control module includes a phase control unit, a low-side drive unit, and a self-drive unit. The phase control unit provides a live line signal and a ground line signal according to a positive half cycle and a negative half cycle of an AC power source. The low-side drive unit provides a low-side control signal according to the live line signal and the ground line signal. The self-drive unit establishes a drive voltage according to the positive half cycle and the negative half cycle of the AC power source, and provides a high-side control signal according to the low-side control signal. The bridge rectifying unit rectifies the AC power source into a DC power source according to the low-side control signal, the high-side control signal, and the drive voltage.

Rectifying control module, bridge rectifying control apparatus using active switch and method of operating the same

An over temperature compensation control circuit is coupled to a conversion unit. The over temperature compensation control circuit includes a detection circuit, a temperature control resistor, and a comparison unit. The detection circuit provides a current signal responsive to an input voltage according to a voltage signal responsive to the input voltage of the conversion unit. The temperature control resistor generates a temperature control voltage according to the current signal. The comparison unit compares the temperature control voltage with a reference voltage to generate a control signal. The control signal represents whether a temperature of the conversion unit reaches an over temperature protection point.

Over temperature compensation control circuit

An absolute position detecting device and method are provided. The absolute position detecting device utilizes the incremental magnetization on a magnetic encoding ruler with two different pole widths, such that elliptical Lissajous curves may be obtained by magnetoresistive sensors. The absolute position may be obtained by determining the region of the signals on the ellipses read by the magnetoresistive sensors.

Absolute position detecting device and method

A shared memory is initially set in the solid state module. A command for accessing information is received. The translation time of the flash translation layer is measured. The translation time is compared to a predetermined time. Dynamic storing of the flash translation layer is initialized. And, the flash translation layer is moved to the shared memory to increase efficiency.

Method for dynamically storing a flash translation layer of a solid state disk module

A high efficiency bridgeless power factor correction converter includes a power factor correction control unit, a first switch, a second switch, a third switch, a fourth switch, a fifth switch, a sixth switch, a first inductor, a second inductor and a bulk capacitor. The power factor correction control unit is configured to turn on or turn off the first switch, the second switch, the third switch, the fourth switch, the fifth switch and the sixth switch, so that the high efficiency bridgeless power factor correction converter converts an input alternating current voltage into an output direct current voltage.

High efficiency bridgeless power factor correction converter for converting input alternating current into output direct current

A method for dynamically establishing a transition layer of a solid state disk (SSD). When a SSD is activated, the storage mode of the logical to physical (L2P) table is dynamically selected according to the state in the buffer memory of the SSD and the comparison between the capacity of the buffer memory and that of the L2P table. The establishing position of a flash translation layer (FTL) is suitably adjusted according to the selected storage mode such that the lifespan of the SSD can be prolonged.

Method for dynamically establishing translation layer of solid state disk

A writing method for SSD (SSD) is disclosed. When processing a write data request from an internal of the SSD, whether both the source physical address and the destination physical address of the write data are in a healthy state is checked; the destination physical address corresponding to the logical address of the write data is registered to the flash transmit layer (FTL); the write data stored in the source is directly written to the destination physical address to accelerate the write speed.

Writing method for solid state drive

A method for dynamically adjusting a cache buffer of a solid state drive includes receiving data, determine if the data are continuous according to logical allocation addresses of the data, increasing a memory size of the cache buffer, searching the cache buffer for same data as at least one portion of the data, modifying and merging of the at least one portion of the data with the same data already temporarily stored in the cache buffer, temporarily storing the data in the cache buffer.

Method for dynamically adjusting a cache buffer of a solid state drive

The present invention is to provide a reading method of a solid state disk, receiving read requests, pre-checking the blocked state of the request queue in non-volatile memory, registering the reading request to the reading request queue if the request queue is adjudged to be unblocked, buffering the request queue if the reading request queue is adjudged to be blocked, sending a next reading request, and checking and re-sending the buffered reading request at predetermined time length in order to improve the speed of data reading.

Growing community of inventors

Taoyuan, Taiwan

Cheng-Yi Lin