Abstract: A signal transmitting element is used to solve the problem that an additional surgery is required to remove the conventional vascular monitoring element after completing the detecting task. The signal transmitting element comprises a body made of a specific biodegradable material. The body includes a signal sensing portion including a structure configured to sense a blood flow information of a blood vessel surrounded and contacted by the body, thereby generating a blood vessel signal; and a signal transmitting portion coupled with the signal sensing portion for receiving the blood vessel signal and including a specific structure configured to convert the blood vessel signal into a transmission signal.

Abstract: The present disclosure discloses a feeding apparatus, which includes a motor, a driving unit, and a noise reduction module. The noise reduction module includes an audio receiving unit and a control unit. The audio receiving unit receives the sound generated by the feeding apparatus when the motor is running. The control unit is electronically connected to the driving unit and the audio receiving unit. The control unit sequentially supplies a plurality of motor drive data to the driving unit to drive the motor to run. The control unit sequentially receives a plurality of sound signals corresponding to those motor drive data from the audio receiving unit. The control unit analyzes the sound signals and selects one of the sound signals as an optimized sound signal. The control unit stores the motor drive data corresponding to the optimized sound signal as a setting motor drive data.

Abstract: A temperature measurement system and a temperature measurement method are provided. The system includes a temperature sensor, a distance sensor, an image sensor, and a processor. The image sensor is configured to obtain an environmental image of a measurement environment. The processor is configured to perform an object detection on the environmental image to obtain a calibration target. The distance sensor is configured to obtain a position information of the calibration target. The temperature sensor is configured to obtain a target temperature information of the calibration target and an environmental temperature of the measurement environment. The processor obtains a calibrated target temperature information of the calibration target according to the position information of the calibration target, the target temperature information of the calibration target, and the environmental temperature of the measurement environment.

Abstract: An image capturing device includes an optical zoom lens module, a processing module, and a motion sensing module. The optical zoom lens module captures an image corresponding to a first field of view according to a preset parameter. An auto-framing unit of the processing module defines a second field of view according to the position of a main object in the image corresponding to the first field of view, and the second field of view is smaller than the first field of view. The processing module controls the optical zoom lens module to capture images corresponding to the second field of view. When the motion sensing module detects that a suspected object enters the first field of view, it transmits a switching signal to the processing module, which controls the optical zoom lens module to capture the image corresponding to the first field of view.

Abstract: A. waking device is used for waking an electronic device. The waking device includes an infrared sensor and a radar sensor. The infrared sensor continuously measures an energy value in a detection area. When the infrared sensor detects an energy variation, the infrared sensor sends a trigger signal. The radar sensor is electrically connected to the infrared sensor and the electronic device. After the radar sensor receives the trigger signal, the radar sensor switches from a sleep mode to an operating mode. Furthermore, when the radar sensor determines that there is a moving object in the detection area, the radar sensor sends a wake-up signal to the electronic device.

Abstract: The present disclosure discloses a feeding apparatus, which includes an ejection mechanism, a motion sensor and a control module. The ejection mechanism includes a motor unit and a push rod unit. When the motion sensor detects the movement of the push rod unit, the motion sensor sends a motion signal. The control module includes a driving unit and a timing unit. The driving unit drives the motor unit turning forward and turning reverse. The timing unit stores a predetermined time. When the timing unit receives an action signal, the timing unit starts timing and sends a forward signal to the driving unit to drive the motor unit turning forward. When the timing unit determines that it has exceeded the predetermined time without receiving the action signal, the timing unit sends a reverse signal to the driving unit to drive the motor unit turning reverse.

Abstract: The present disclosure discloses a feeding apparatus, which includes an ejection mechanism, a motion sensor and a control module. The ejection mechanism includes a motor unit and a push rod unit. When the motion sensor detects the movement of the push rod unit, the motion sensor sends a motion signal. The control module includes a driving unit and a timing unit. The driving unit drives the motor unit turning forward and turning reverse. The timing unit stores a predetermined time. When the timing unit receives an action signal, the timing unit starts timing and sends a forward signal to the driving unit to drive the motor unit turning forward. When the timing unit determines that it has exceeded the predetermined time without receiving the action signal, the timing unit sends a reverse signal to the driving unit to drive the motor unit turning reverse.

Abstract: The present disclosure discloses a feeding apparatus, which includes a motor, a driving unit, and a noise reduction module. The noise reduction module includes an audio receiving unit and a control unit. The audio receiving unit receives the sound generated by the feeding apparatus when the motor is running. The control unit is electronically connected to the driving unit and the audio receiving unit. The control unit sequentially supplies a plurality of motor drive data to the driving unit to drive the motor to run. The control unit sequentially receives a plurality of sound signals corresponding to those motor drive data from the audio receiving unit. The control unit analyzes the sound signals and selects one of the sound signals as an optimized sound signal. The control unit stores the motor drive data corresponding to the optimized sound signal as a setting motor drive data.