Abstract: A semiconductor device includes: first and second active regions extending in a first direction and separated by a gap relative to a second direction substantially perpendicular to the first direction; and gate structures correspondingly over the first and second active regions, the gate structures extending in the second direction; and each of the gate structures extending at least unilaterally substantially beyond a first side of the corresponding first or second active region that is proximal to the gap or a second side of the corresponding first or second active region that is distal to the gap; and some but not all of the gate structures also extending bilaterally substantially beyond each of the first and second sides of the corresponding first or second active region.

Abstract: A LED feedback voltage regulating driving device is provided. The LED feedback voltage regulating driving device includes a microcontroller, a first feedback circuit, a second feedback circuit, an oscillating circuit and a comparison circuit. The first feedback circuit and the second feedback circuit adjust the voltage and current from the electricity supply module and the driving circuit respectively, and transmit the voltage and current to the microcontroller; wherein, the microcontroller and the oscillating circuit reciprocate the voltage and current from the first feedback circuit and the second feedback circuit; wherein the comparison circuit compares the signal from the microcontroller and the oscillating circuit; wherein the pulse circuit adjusts the voltage and the current then transmits the voltage and current to the driving circuit for electricity driving; wherein, during the electricity driving, the driving circuit transmits part of the voltage and current to the second feedback circuit.

Abstract: An illuminating device and a method for optimizing the light pattern are provided. The illuminating device includes a lamp case having a lighting space; a light-reflecting cup, located in the lighting space and including a light incident side, a light emergent side; a light source, located in the lighting space and corresponding to the light incident side of the light reflecting cup; and a cylindrical lens, located in the lighting space and corresponds to the light emergent side of the light reflecting cup; wherein one surface of the cylindrical lens has a plurality of convex columns extending up and down, and each convex column faces to the light emergent side; wherein, when the light source emits light, the main bright area of the light pattern reflected by the light emergent side of the light reflecting cup is wide at the top and narrow at the bottom.

Abstract: A boost voltage driving device is provided, in which the boost voltage driving device is electrically connected to a light emitting device, and drives the light emitting device. The boost voltage driving device includes: an electric power supply module, a microcontroller, a boost voltage module, a first feedback circuit and a second feedback circuit.

Abstract: A lighting device includes a lighting unit with a snapping member formed on each of two ends thereof. A lighting portion is formed to the lighting unit and located between the two snapping members. A room defined in the lighting unit. A light emitting unit is located in the room and includes a light emitting member which is located corresponding to the lighting portion. A switch is connected to the underside of the lighting unit and electrically connected to the light emitting unit so as to control the operation of the light emitting member. Two clip members are respectively connected to the two snapping members of the lighting unit, or two connection portions are respectively formed on the two ends of the lighting unit. The clip members or the connection portions are attached to the visor to maintain the lighting device to the underside of the visor.

Abstract: A lighting device includes a lighting unit with a snapping member formed on each of two ends thereof. A lighting portion is formed to the lighting unit and located between the two snapping members. A room defined in the lighting unit. A light emitting unit is located in the room and includes a light emitting member which is located corresponding to the lighting portion. A switch is connected to the underside of the lighting unit and electrically connected to the light emitting unit so as to control the operation of the light emitting member. Two clip members are respectively connected to the two snapping members of the lighting unit, or two connection portions are respectively formed on the two ends of the lighting unit. The clip members or the connection portions are attached to the visor to maintain the lighting device to the underside of the visor.

Abstract: A lighting device includes a lighting unit with two arms formed on two ends thereof. The arms each include at least one reception portion. Multiple attachments each have a slide and a clip. The slide of each attachment is slidably engaged with the at least one reception portion of each arm. The clip is pivotably connected to the slide. Each clip includes a slot so as to clip a hat visor. The clip is adjustable by sliding the slide relative to the at least one reception portion. Also, the clip is pivotable relative to the slide to adjust a direction of the slot. The lighting device is able to clip to a hat visor of different shapes by sliding the slide relative to the at least one reception, and by pivoting the clip relative to the slide.

Abstract: A power saving system for underwater vehicles includes a control system, a power unit and a battery. The control system controls the power unit to drive the underwater vehicle, and generates an output driving value. The control system includes a calculation unit, a three-axis accelerometer and gyro and an underwater vehicle weight value. The calculation unit creates a correspondent acceleration value by the output driving value and the underwater vehicle weight value. The three-axis accelerometer and gyro detects the acceleration of the underwater vehicle by every less than 0.5 second interval, and generates an acceleration value. The control system compares the correspondent acceleration value and the acceleration value to control the output driving value so as to save battery power and elongate the range of travelling of the underwater vehicles.

Abstract: A speed adjustment device for electric vehicles includes a motor, a battery, an acceleration detector, a control unit and a processing unit. The acceleration detector detects the speed of the electric vehicle every period of time which is less than 0.5 seconds, and the acceleration detector generates an acceleration value which is sent to the control unit, and the processing unit calculates the acceleration value and generates a current speed value. The control unit compares the current speed value and the preset constant speed value to control output of the motor and output of the battery.

Abstract: A control system includes a bicycle includes a crank, a motor and a battery which provides power to the motor. An acceleration detector is connected to the bicycle and detects the riding acceleration of the bicycle. A torque detector is connected to the bicycle and consistently detects treading of the crank and generates multiple instant treading torque values. A controller is connected to the bicycle and electrically connected to the motor, the battery, the acceleration detector and the torque detector, and receives the riding acceleration, the treading acceleration and the instant treading torque values so as to control output of the motor and the battery instantly.

Abstract: A control system for an electric bike includes a controller which has a first Bluetooth transmitting unit connected to a mobile device by a wireless way. The mobile device includes a second Bluetooth transmitting unit, a detector and an operation application. The user calls a learning application which learns the operation application that currently operates the bike in different situations, and then the learning application takes over the control of the bike, Therefore, the user does not need a hand to operate the mobile device to control the bike.

Abstract: A control system for an electric hike includes control application which receives battery/motor output signals from other electric bikes from the cloud processing center to as to control the output of the battery to the motor to adjust the output of the battery and the motor at different travel routes. The adjusted output of the battery and the motor at different travel routes of the users' electric hike is transmitted to the transmitters of other electric bikes by a smart phone so as to reduce the burden of learning of the users of other electric bikes.

Abstract: A data protection method and associated apparatus are provided. The data protection method may include: running a data protection application on a host server system, the data protection application being configured to protect a data set stored in a tenant server system, wherein the host server system and the tenant server system are administered by different entities; receiving a plurality of versions of the data set from the tenant server system; and issuing at least one version request to get at least one specific version of the data set from the tenant server system, wherein the at least one specific version and the plurality of versions of the data set form a sequential version order of the data set.

Abstract: A power generation device is installed to a bicycle crank to provide electric power to electronic products. The power generation device includes a sensor for sensing the speed of the bicycle and the crank, and generates a speed info. A micro-controller is electrically connected to the sensor and a power supply unit, and includes a transfer unit, a switch unit and an output unit. The speed info is transferred to the transfer unit and converted into transformed signals. The switch unit activates the power supply unit according to the transformed signals. When the sensor detect that the bicycle moves at inconstant speed and the crank rotates continuously, the output unit delivers electric power to the electronic products. When the sensor detects that the bicycle moves at constant speed and the crank rotates continuously, the output unit shuts off the power supply unit, and the power supply unit stores power.

Abstract: A control system includes a bicycle includes a crank, a motor and a battery which provides power to the motor. An acceleration detector is connected to the bicycle and detects the riding acceleration speed of the bicycle. A torque detector is connected to the bicycle and consistently detects treading of the crank and generates multiple instant treading torque values. A controller is connected to the bicycle and electrically connected to the motor, the battery, the acceleration detector and the torque detector, and receives the riding acceleration speed, the treading acceleration speed and the instant treading torque values so as to control output of the motor and the battery instantly.

Abstract: A speed control system for electric bicycles includes a bicycle having pedals, a motor and a battery which provides electric power to the motor. The bicycle includes a speed detector to detect speed of the bicycle to create a current speed value. A controller is electrically connected to the motor, the battery and the speed detector. The controller has a preset constant-speed setting value. The controller receives the current speed value from the speed detector, and compares the current speed value with the preset constant-speed setting value to adjust output or the motor and the battery. The controller changes the output of the motor and the battery according to the current speed so that the motor assists the rider to operate the bicycle instantly.

Abstract: A speed control system for electric bicycles includes a bicycle having pedals, a motor and a battery which provides electric power to the motor. The bicycle includes a speed detector to detect speed of the bicycle to create a current speed value. A controller is electrically connected to the motor, the battery and the speed detector. The controller has a preset constant-speed setting value. The controller receives the current speed value from the speed detector, and compares the current speed value with the preset constant-speed setting value to adjust output of the motor and the battery. The controller changes the output of the motor and the battery according to the current speed so that the motor assists the rider to operate the bicycle instantly.