Abstract: A compensating device for detecting and compensating for a sampling clock offset in a receiver. An SCO detector includes multiple calculation paths and a controller. Each calculation path receives a time domain signal and a hypothetic offset, calculates correlation coefficients between the time domain signal and a delayed version of the time domain signal according to a predetermined delay and the hypothetic offset, calculates correlation coefficient sums according to the correlation coefficients, and extracts a maximum correlation coefficient sum for the hypothetic offset from the correlation coefficient sums. The controller is coupled to the calculation paths for providing different hypothetic offsets to each calculation path and detects the SCO according to the maximum correlation coefficient sums obtained from the calculation paths. An SCO compensator receives the SCO and compensating for the SCO on a signal generated in a signal processing path of a receiver.

Abstract: An electronic device includes a first housing, a first pivoting mechanism disposed on a side of the first housing, a second housing, a second pivoting mechanism disposed on a side of the second housing, and a bridging component. A first end and a second end of the bridging component are respectively pivoted on the first pivoting mechanism and the second pivoting mechanism. The bridging component includes a first contacting portion for contacting against the side of the first housing when the first pivoting mechanism pivots on the first end so that the first housing rotates around the second housing at a first angle, and a second contacting portion for contacting against the side of the second housing when the second end pivots on the second pivoting mechanism so that the first housing rotates around the second housing at a second angle greater than the first angle.

Abstract: An electronic device includes a first housing, a first pivoting mechanism disposed on a side of the first housing, a second housing, a second pivoting mechanism disposed on a side of the second housing, and a bridging component. A first end and a second end of the bridging component are respectively pivoted on the first pivoting mechanism and the second pivoting mechanism. The bridging component includes a first contacting portion for contacting against the side of the first housing when the first pivoting mechanism pivots on the first end so that the first housing rotates around the second housing at a first angle, and a second contacting portion for contacting against the side of the second housing when the second end pivots on the second pivoting mechanism so that the first housing rotates around the second housing at a second angle greater than the first angle.

Abstract: An electronic device comprises an interface unit, a control circuit and a microprocessor. The interface unit receives a first operational firmware from a host. The control circuit transfers the first operational firmware to a memory. The microprocessor executes the first operational firmware which stored in the memory. The microprocessor controls operations of the electronic device according to the first operational firmware. And the control circuit is electrically coupled to a non-volatile memory which stores a second operational firmware for performing a specific function also performed by the first operational firmware.

Abstract: An optical storage device that includes a memory and a controller. The memory includes a command queue to store advanced technology attachment (ATA) commands sent by a host device. The controller executes the commands, in which at least a subset of the commands are executed in a sequence that is different from a sequence in which the commands are sent by the host device.

Abstract: An optical storage device that includes a memory and a controller. The memory includes a command queue to store advanced technology attachment (ATA) commands sent by a host device. The controller executes the commands, in which at least a subset of the commands are executed in a sequence that is different from a sequence in which the commands are sent by the host device.

Abstract: A storage box includes a flexible box body, a hard support board removably mounted in the box body to support the box body, and a cover removably mounted on the box body. The support board is receivable into the cover, and the box body is foldable when being compressed and receivable into the cover. Thus, the support board and the box body are received in the hollow inside of the cover to reduce the volume of the storage box to the minimum size so that the storage box has a smaller volume when not in use, thereby greatly saving the space of storage, and thereby facilitating packaging, storage and transportation of the storage box.

Abstract: An integrated circuit (IC) for being applied to an electronic device includes: a control circuit for controlling the electronic device; and a signal generation unit coupled to the control circuit for generating at least one signal inside the IC as an output signal and outputting the output signal to another IC for testing. A testing system includes at least one testing device and a plurality of ICs that are tested by the testing device. The ICs are coupled to the testing device. Each IC of the ICs is for being applied to an electronic device and includes: a control circuit for controlling the electronic device; and a signal generation unit coupled to the control circuit for generating at least one signal inside the IC as an output signal and outputting the output signal to one of the other IC(s) for testing.

Abstract: A testing method utilizing at least one signal between ICs includes: coupling at least one testing device to a plurality of ICs that are capable of being tested by the testing device, the ICs including at least a first IC and a second IC; coupling the second IC to the first IC to utilize at least one output signal of the first IC to be at least one input signal of the second IC; and testing the second IC by utilizing the testing device and the output signal of the first IC.

Abstract: A non-volatile memory is installed in an electronic device. A method for updating a firmware code stored in a non-volatile memory includes: providing an updating control unit having a command set; providing the updating control unit with a trigger signal to enable at least one command of the command set; and utilizing the updating control unit to read/write the non-volatile memory according to the enabled command to update the firmware code. Wherein each command of the command set is a memory read/write command. The method further includes updating at least one command of the command set in real time. The present invention further provides an electronic device corresponding to the method.

Abstract: An optical storage device that includes a memory and a controller. The memory includes a command queue to store advanced technology attachment (ATA) commands sent by a host device. The controller executes the commands, in which at least a subset of the commands are executed in a sequence that is different from a sequence in which the commands are sent by the host device.

Abstract: An optical disc drive includes a microprocessor, a control IC, an RF IC, and an interface unit. The microprocessor is electrically coupled to the control IC. The control IC is electrically coupled to the RF IC, a volatile RAM, an optional non-volatile ROM, and to a bus interface for communications with an external host. The interface unit is electrically coupled to the bus interface. Initialization of the optical disc drive is performed using initialization data stored in a non-volatile manner in the ROM, if present, or downloaded from the host if the ROM is not present. After the initialization, the interface unit signals an application program in the host to download the optical drive's operational firmware and writes received data into the RAM. The microprocessor is initialized with the operational firmware's starting address and the microprocessor executes the downloaded operational firmware. The ROM may also store read operation firmware to enable the optical disc drive to read data stored in the disc.

Abstract: An optical disc drive includes a microprocessor, a control IC, an RF IC, and an interface unit. The microprocessor is electrically coupled to the control IC. The control IC is electrically coupled to the RF IC, a volatile RAM, an optional non-volatile ROM, and to a bus interface for communications with an external host. The interface unit is electrically coupled to the bus interface. Initialization of the optical disc drive is performed using initialization data stored in a non-volatile manner in the ROM, if present, or downloaded from the host if the ROM is not present. After the initialization, the interface unit signals an application program in the host to download the optical drive's operational firmware and writes received data into the RAM. The microprocessor is initialized with the operational firmware's starting address and the microprocessor executes the downloaded operational firmware.

Abstract: A non-volatile memory is installed in an electronic device. A method for updating a firmware code stored in a non-volatile memory includes: providing an updating control unit having a command set; providing the updating control unit with a trigger signal to enable at least one command of the command set; and utilizing the updating control unit to read/write the non-volatile memory according to the enabled command to update the firmware code. Wherein each command of the command set is a memory read/write command. The method further includes updating at least one command of the command set in real time. The present invention further provides an electronic device corresponding to the method.