Abstract: The invention discloses a motor driving device for generating at least one driving signal according to a clock signal corresponding to the output signal of a hall sensor. The motor driving device also controls rotation of a motor via at least one driving signal, wherein the at least one driving signal includes a first driving signal and a second driving signal and the motor driving device controls the rotation of the motor according to the first driving signal and the second driving signal.

Abstract: A device for driving a single phase motor is provided. The device controls the rotation of the single phase motor according to at least a control signal. The single phase motor driving device includes a control apparatus and a detection apparatus. The control apparatus detects the rotation or stopped rotation of the single phase motor, and outputs a detection signal and at least the control signal. The detection apparatus coupled to the control apparatus generates a first comparison signal and a second comparison signal according to the detection signal, compares the first comparison signal with the second comparison signal to generate a comparison result, and then further outputs a rotation signal or a stopped rotation signal according the comparison result; wherein the control apparatus generates the at least the control signal according the rotation signal and the stopped rotation signal.

Abstract: A driving device is provided for controlling the rotation of a motor. The driving device comprises an input module, a comparing module and a processing module. The input module includes a voltage generating unit and a voltage adjusting unit to generate a comparing voltage. The voltage generating unit generates a voltage signal according to a basis voltage. The voltage adjusting unit is coupled to the voltage generating unit for adjusting the voltage signal and generating the comparing voltage according a reference voltage. The comparing module is coupled to the input module for comparing a selecting signal with the comparing voltage and generating a comparing signal. The processing module is coupled to the comparing module and generates a control signal according to the comparing signal. The driving device controls the rotation of the motor according to the control signal.

Abstract: A control device for driving a motor which includes a rotor and a stator is provided. The control device includes a Hall detector and driving circuit. The Hall detector detects magnetic flux variation when the rotor rotates and generates a first detection signal and a second detection signal. The first and second detection signals represent current rotation location when the rotor rotates. The driving circuit generates a driving signal to drive the stator. The driving circuit turns on or off the driving signal according to a control signal and the relationship between the first and second detection signals.

Abstract: A driving device is provided for controlling the rotation of a motor. The driving device comprises an input module, a comparing module and a processing module. The input module includes a voltage generating unit and a voltage adjusting unit to generate a comparing voltage. The voltage generating unit generates a voltage signal according to a basis voltage. The voltage adjusting unit is coupled to the voltage generating unit for adjusting the voltage signal and generating the comparing voltage according a reference voltage. The comparing module is coupled to the input module for comparing a selecting signal with the comparing voltage and generating a comparing signal. The processing module is coupled to the comparing module and generates a control signal according to the comparing signal. The driving device controls the rotation of the motor according to the control signal.

Abstract: A driving device is provided for controlling rotation of a motor. The driving device comprises an inputting module, a comparing module and a processing module. The inputting module includes a first current source, a first voltage source and a first capacitance. The first capacitance is coupled between the first current source and the first voltage source for charging/discharging and generating a voltage signal. The comparing module is coupled to the inputting module for comparing a selecting signal with the voltage signal and generating a comparing signal. The processing module is coupled to the comparing module and generates a control signal according to a clock signal and the comparing signal, wherein the driving device controls the rotation of the motor by the control signal.

Abstract: A device for driving a single phase motor is provided. The device controls the rotation of the single phase motor according to at least a control signal. The single phase motor driving device includes a control apparatus and a detection apparatus. The control apparatus detects the rotation or stopped rotation of the single phase motor, and outputs a detection signal and at least the control signal. The detection apparatus coupled to the control apparatus generates a first comparison signal and a second comparison signal according to the detection signal, compares the first comparison signal with the second comparison signal to generate a comparison result, and then further outputs a rotation signal or a stopped rotation signal according the comparison result; wherein the control apparatus generates the at least the control signal according the rotation signal and the stopped rotation signal.

Abstract: An improved circuit for a delta-sigma digital-to-analog converter comprises integrating operational amplifier, sampling capacitors, integrating capacitor, and a voltage divider consisting of a plurality of sampling capacitors. Three trigger signals of different phases are designed to control three sets of switches, a first trigger signal only turns on and off a first set of switches, so as to charge the plurality of sampling capacitors, a second trigger signal only turns on and off a second set of switches, so as to enable the charge on one of the sampling capacitor and the charge on the integrating capacitor to be averaged, a third trigger signal only turns on and off a third set of switches, to enable the plurality of sampling capacitors to be discharged.

Abstract: A fire-escaping room capable of providing basic living necessities for persons in case of a fire, the room being constructed by concrete to form a close space, including a fire-proof door serving as an only entrance/exit of the room and capable of preventing outdoor heavy smoke from entering the room, several vent holes being formed on the fire-proof door, a slide block set being operable in the room to close or open the vent holes; a manually operated air pump disposed in the room, having a reciprocally movable diaphragm for changing the volume of the air pump so as to intermittently suck external air through an externally extending ventilating pipe into the fire-escaping room; and a sprinkling pipe disposed around vertical room walls of the room, the sprinkling pipe being formed with a plurality of sprinkling holes and connected with a water supply incoming pipe to be supplied with water therefrom, whereby when a manually operated controlling valve disposed in the room is located at a water flow conducting