Abstract: A rectifying module including an input end, a load end, a one way conduction element, an electricity storage device, a first switch, and a first control circuit is provided. The one way conduction element is electrically connected between the input end and the load end. The electricity storage device is used to store electricity energy. The first switch is electrically connected between the input end and the electricity storage device. The first control circuit is electrically connected to the output end, and is used to enable the first switch when the voltage of the load end is bigger than a predetermined value. A generating device use thereof is provided.

Abstract: The present invention discloses a real-time responsive motor control system comprising a central MCU (Microcontroller Unit) core logic and at least one PWM (Pulse Width Modulation) MCU core logic. The central MCU core logic takes care of all interrupt events. The PWM (Pulse Width Modulation) MCU core logic is dedicated to the transformation of PWM signals so that the PWM signals output to a motor device are highly accurate. Further, the central MCU core logic may directly control the PWM MCU core logics so that the switching timing of the PWM signals is even more accurate. The present invention provides a modularized hardware architecture with flexible software control. The system design is simple and the associated cost is reduced.

Abstract: The present invention discloses a real-time responsive motor control system comprising a central MCU (Microcontroller Unit) core logic and at least one PWM (Pulse Width Modulation) MCU core logic. The central MCU core logic takes care of all interrupt events. The PWM (Pulse Width Modulation) MCU core logic is dedicated to the transformation of PWM signals so that the PWM signals output to a motor device are highly accurate. Further, the central MCU core logic may directly control the PWM MCU core logics so that the switching timing of the PWM signals is even more accurate. The present invention provides a modularized hardware architecture with flexible software control. The system design is simple and the associated cost is reduced.

Abstract: The present invention discloses an emulation system for a single-chip multiple-microcontroller and an emulation method thereof, wherein a multiple-microcontroller emulator comprises: an emulation control logic, at least two microcontrollers, and program counters separately related to the microcontrollers; each program counter corresponds to at least one breakpoint address; every executing program will stop at its corresponding breakpoint address; the status of every microcontroller at the breakpoint addresses is transmitted to a personal computer via the emulation control logic. Thereby, the multiple-microcontroller emulation program in the personal computer can read the execution status of every microcontroller occurring at the breakpoint addresses, and the programmer can obtain the execution status of the multiple-microcontroller emulator in order to develop and debug the program of a single-chip multiple-microcontroller.

Abstract: The present invention discloses a multiple-microcontroller chip emulation system and an integrated development environment for use therewith, in which the statuses of at least two microcontrollers in the multiple-microcontroller chip are displayed on the screen of a computer to facilitate debugging. A programmer may select one or more microcontrollers and trace program steps in association with the selected microcontrollers, while neglect the other program steps in association with the unselected microcontrollers.