Abstract: Various examples with respect to visual depth sensing with accurate and full-range depth fusion and sensing are described. A control circuit of an apparatus receives a plurality of sensor signals that are heterogeneous in type from a plurality of sensors. The control circuit generates first depth-related information of a scene and second depth-related information of the scene based on the plurality of sensor signals. The control circuit then fuses the first depth-related information and the second depth-related information to generate a fused depth map of the scene.

Abstract: Various examples with respect to infrared (IR) patter characteristics for stereo matching are described. A control circuit of an apparatus controls an IR projector to project a patterned IR light. In response, the control circuit receives first data of a left image of a scene from a first camera and second data of a right image of the scene from a second camera. The control circuit then performs stereo matching of the left image and the right image to generate a depth map of the scene. The patterned IR light satisfies one or more characteristic requirements.

Abstract: Various examples with respect to infrared (IR) patter characteristics for stereo matching are described. A control circuit of an apparatus controls an IR projector to project a patterned IR light. In response, the control circuit receives first data of a left image of a scene from a first camera and second data of a right image of the scene from a second camera. The control circuit then performs stereo matching of the left image and the right image to generate a depth map of the scene. The patterned IR light satisfies one or more characteristic requirements.

Abstract: Various examples with respect to visual depth sensing with accurate and full-range depth fusion and sensing are described. A control circuit of an apparatus receives a plurality of sensor signals that are heterogeneous in type from a plurality of sensors. The control circuit generates first depth-related information of a scene and second depth-related information of the scene based on the plurality of sensor signals. The control circuit then fuses the first depth-related information and the second depth-related information to generate a fused depth map of the scene.

Abstract: A DC uninterruptible power supply system includes plural uninterruptible power supply devices, each of which includes a power cord, a battery module, a voltage detecting circuit, a current detecting circuit, and a control unit. When the voltage detecting circuit detects that a voltage at the power cord is lower than a first preset value, the control unit controls the battery module to output electrical power to the power cord. When the current detecting circuit detects that current of another uninterruptible power supply device is smaller than a second preset value, the control unit controls a switch to permit current flow to the another uninterruptible power supply device.

Abstract: A battery module includes a plurality of battery units, each of which supplies electrical power to a load through a respective linear regulator. In a method for managing supply of electrical power by the battery module, a number of battery units that supply electrical power to the load is controlled according to magnitude of a current required by the load, so as to reduce power loss in the linear regulators.

Abstract: A direct current (dc) uninterruptible power system is disclosed. The dc-based uninterruptible power system includes a multiplexer, a battery unit, a linear regulator, a switch-transistor, a voltage comparator and micro controller. The multiplexer receives a first control signal, a first reference voltage and a second reference voltage and outputs a control voltage according to the first control signal. The switch-transistor has a body diode and the body diode has a conduction voltage. When the dc-based uninterruptible power system is non-discharge mode, the switch-transistor is switched-off and the linear regulator receives the first reference voltage, so that the subtraction of the output voltage and the power-supply voltage is smaller than the conduction voltage to cutoff the body diode.

Abstract: A DC uninterruptible power supply system includes plural uninterruptible power supply devices, each of which includes a power cord, a battery module, a voltage detecting circuit, a current detecting circuit, and a control unit. When the voltage detecting circuit detects that a voltage at the power cord is lower than a first preset value, the control unit controls the battery module to output electrical power to the power cord. When the current detecting circuit detects that current of another uninterruptible power supply device is smaller than a second preset value, the control unit controls a switch to permit current flow to the another uninterruptible power supply device.

Abstract: A battery module includes a plurality of battery units, each of which supplies electrical power to a load through a respective linear regulator. In a method for managing supply of electrical power by the battery module, a number of battery units that supply electrical power to the load is controlled according to magnitude of a current required by the load, so as to reduce power loss in the linear regulators.

Abstract: A direct current (dc) uninterruptible power system is disclosed. The dc-based uninterruptible power system includes a multiplexer, a battery unit, a linear regulator, a switch-transistor, a voltage comparator and micro controller. The multiplexer receives a first control signal, a first reference voltage and a second reference voltage and outputs a control voltage according to the first control signal. The switch-transistor has a body diode and the body diode has a conduction voltage. When the dc-based uninterruptible power system is non-discharge mode, the switch-transistor is switched-off and the linear regulator receives the first reference voltage, so that the subtraction of the output voltage and the power-supply voltage is smaller than the conduction voltage to cutoff the body diode.

Abstract: A device receives a standard command. The device judges whether an address field and/or a data length field and/or a data field of the standard command includes at least one of a vendor command, a vendor data and a checkword. The device judges whether the address field and/or a data length field and/or the data field of the standard command matches a vendor predetermined pattern. If matched, the device performs a vendor operation based on the vendor command and/or the vendor data of the standard command.

Abstract: A device receives a standard command. The device judges whether an address field and/or a data length field and/or a data field of the standard command includes at least one of a vendor command, a vendor data and a checkword. The device judges whether the address field and/or a data length field and/or the data field of the standard command matches a vendor predetermined pattern. If matched, the device performs a vendor operation based on the vendor command and/or the vendor data of the standard command.

Abstract: An external device includes a bridge and a storage device. The bridge is connected to a host according to a first data transmission interface so as to convert data of the host from the first data transmission interface to a second data transmission interface. The bridge includes a memory unit and a control unit. The memory unit stores a virtual device datum. The control unit generates a virtual storage device in the host according to the virtual device datum. The storage device is connected to the bridge for storing the data of the host according to the second data transmission interface.

Abstract: A driving device and a method of accessing data are provided. The driving device includes a bridge and a driver. The bridge includes a first controller. The driver includes a storage unit and a second controller. The first controller is for outputting a command according to an operating event. The second controller is for obtaining a corresponding data from the storage unit according to the command and uploading the data to the first controller.

Abstract: An external storage device includes a storage device and a bridge. The storage device stores data transmitted from a computer host. The bridge includes a memory unit and a control unit. The memory unit stores a virtual device datum, and the virtual device datum includes an application program. The control unit generates a virtual storage device in the computer host according to the virtual device datum, and executes a security function of the storage device according to the application program.

Abstract: An external device includes a bridge and a storage device. The bridge is connected to a host according to a first data transmission interface so as to convert data of the host from the first data transmission interface to a second data transmission interface. The bridge includes a memory unit and a control unit. The memory unit stores a virtual device datum. The control unit generates a virtual storage device in the host according to the virtual device datum. The storage device is connected to the bridge for storing the data of the host according to the second data transmission interface.