Abstract: An optical system affixed to an electronic apparatus is provided, including a first optical module, a second optical module, and a third optical module. The first optical module is configured to adjust the moving direction of a first light from a first moving direction to a second moving direction, wherein the first moving direction is not parallel to the second moving direction. The second optical module is configured to receive the first light moving in the second moving direction. The first light reaches the third optical module via the first optical module and the second optical module in sequence. The third optical module includes a first photoelectric converter configured to transform the first light into a first image signal.

Abstract: The present disclosure is directed to a semiconductor device. The semiconductor device includes a substrate, an insulating layer disposed on the substrate, a first conductive feature disposed in the insulating layer, and a capacitor structure disposed on the insulating layer. The capacitor structure includes a first electrode, a first dielectric layer, a second electrode, a second dielectric layer, and a third electrode sequentially stacked. The semiconductor device also includes a first via connected to the first electrode and the third electrode, a second via connected to the second electrode, and a third via connected to the first conductive feature. A part of the first via is disposed in the insulating layer. A portion of the first conductive feature is directly under the capacitor structure.

Abstract: The invention provides a data storage system having dual channels, which comprises a host. The host comprises a host-side control unit, a first data storage device, and at least one second data storage device. The first data storage device comprises a first data-side controller. The host-side control unit is connected to the first data storage device via a high-speed channel, and accesses data of the first data storage device via the high-speed channel. The first data storage device is connected to each of the second data storage devices via a low-speed channel, respectively. The low-speed channel is a bus of broadcast type. The first data-side controller of the first data storage device manages data exchanging, data copying, and data moving between the first data storage device and the second data storage device via the low-speed channel.

Abstract: A data storage device having self-destruction function is disclosed. The data storage device is inserted into a host and includes a controller, a plurality of flash memories, a trigger, and a backup power module. When the data storage device is pulled out of the host, the trigger is triggered and transmits a physical-destruction activating signal to the backup power module, and the backup power module outputs a high voltage to the flash memories according to the physical-destruction activating signal so that the flash memories can be destroyed by the high voltage.

Abstract: A remote control system is disclosed. The remote control system comprises a cloud management platform and an electronic apparatus. The electronic apparatus comprises a data storage device and a motherboard. The data storage device comprises a data storage unit and a program execution management unit. The program execution management unit comprises a microprocessor. The data storage device is connected a powered device module. The powered device module is able to provide an Ethernet power to the data storage device. When the electronic apparatus is in a power-off state, the data storage device can keep working by the Ethernet power, so that the cloud management platform can control the operations of the data storage device at any time.

Abstract: The invention provides a data storage system having dual channels, which comprises a host. The host comprises a host-side control unit, a first data storage device, and at least one second data storage device. The first data storage device comprises a first data-side controller. The host-side control unit is connected to the first data storage device via a high-speed channel, and accesses data of the first data storage device via the high-speed channel. The first data storage device is connected to each of the second data storage devices via a low-speed channel, respectively. The low-speed channel is a bus of broadcast type. The first data-side controller of the first data storage device manages data exchanging, data copying, and data moving between the first data storage device and the second data storage device via the low-speed channel.

Abstract: A data storage device having self-destruction function is disclosed. The data storage device is inserted into a host and includes a controller, a plurality of flash memories, a trigger, and a backup power module. When the data storage device is pulled out of the host, the trigger is triggered and transmits a physical-destruction activating signal to the backup power module, and the backup power module outputs a high voltage to the flash memories according to the physical-destruction activating signal so that the flash memories can be destroyed by the high voltage.

Abstract: The invention provides a write protection circuit, which is applied to a data storage device. The data storage device comprises a controller and a plurality of flash memories. The flash memories comprise a write protection pin. The write protection circuit comprises a fuse and a switch. When the switch is operated in a turned on state, the fuse is directly grounded via the switch and therefore is burned, and a signal on the write protection pin of the flash memories becomes a signal with a low-level state so that the flash memories of the data storage device will be permanently inhibited to be written.

Abstract: The invention provides a detection system and detection circuit for detecting health status of backup power supply module. The detection circuit comprises a boost converter, a controller, and at least one backup power supply module. The boost converter receives an input voltage to generate a first high voltage. When the detection circuit is operated in a detection state, the boost converter is inhibited to output the first high voltage, the backup power supply module can execute a discharging process to provide a discharged energy to a load device, the controller detects a time at which a discharged potential of the backup power supply module is dropped from a first voltage to a second voltage to obtain a discharged time detection value. The controller can know a health status of the backup power supply module by a comparison between the discharged time detection value and a discharged time threshold value.

Abstract: The present invention provides a high-speed transmission connector and application device thereof. The application device comprises an outer shell that is provided at a bottom end thereof with an OcuLink device connector conforming to an OcuLink transmission specification, and provided at an inside thereof with an application module connected to the OcuLink device connector. The OcuLink device connector can be inserted into an OcuLink board connector disposed on a motherboard, a computer system, or a circuit board. The application device further comprises an engagement element capable of engaging with a fixed element of the OcuLink board connector. The application device is directly electrically connected to the motherboard without the use of the transmission line, it will not only improve the heat dissipation of the motherboar, but also increase the stability of the OcuLink device connector in the insertion.

Abstract: The invention provides a detection system and detection circuit for detecting health status of backup power supply module. The detection circuit comprises a boost converter, a controller, and at least one backup power supply module. The boost converter receives an input voltage to generate a first high voltage. When the detection circuit is operated in a detection state, the boost converter is inhibited to output the first high voltage, the backup power supply module can execute a discharging process to provide a discharged energy to a load device, the controller detects a time at which a discharged potential of the backup power supply module is dropped from a first voltage to a second voltage to obtain a discharged time detection value. The controller can know a health status of the backup power supply module by a comparison between the discharged time detection value and a discharged time threshold value.

Abstract: The invention provides a flash memory device, which comprises a controller, a plurality of flash memories, a switcher, a power supply module, and a voltage detection circuit. When the system voltage is higher than a voltage threshold, the voltage detection circuit outputs an enable signal to the switcher to turn on the switcher, the system voltage is provided to the power supply module, the power supply module executes a charging process by the system voltage, and generates an output voltage based on the system voltage. The output voltage is an operating voltage of the controller and the flash memories. When the system voltage is lower than the voltage threshold, the voltage detection circuit outputs a disable signal to the switcher to turn off the switcher, the system voltage is inhibited to provide to the power supply module, the power module generates the output voltage by executing a discharging process.

Abstract: A flash memory device. The flash memory device comprises a controller, a plurality of flash memories, and a voltage control circuit. The voltage control circuit comprises a boost converter, a buck converter, and a voltage controller. The boost converter receives a system voltage to generate a first high voltage. The buck converter receives the first high voltage and provides an output voltage to the controller and the flash memories. The voltage controller detects the output voltage generated by the buck converter, and therefore generates a feedback signal. When the voltage controller receives a physical destruction control signal from a host computer, the buck converter will generate an output signal with high level according to the control of the feedback signal. Afterwards, semiconductor physical elements of the controller and the flash memories will be burned by the output signal with high level.

Abstract: An LCD backboard module includes a backboard, at least one speaker installed on the backboard, and a main body. The main body is combined with the backboard, and includes a motherboard and a back cover, wherein the motherboard is placed inside the back cover.

Abstract: The present disclosure relates to a light emitting diode (LED) light fixture including a frame, a light diffuser coupled to the frame, at least one LED array disposed adjacent at least one side wall of the frame and a waveform reflector panel having at least one two troughs and one crest disposed between the two troughs. The at least one LED array is disposed at an angle relative to the side wall side wall of the frame and the waveform reflector is positioned to receive and light generated by the LED array and to reflect the light through the light diffuser.