Abstract: A semiconductor device package includes a carrier, an electronic component, a connection element and an encapsulant. The electronic component is disposed on a surface of the carrier. The connection element is disposed on the surface and adjacent to an edge of the carrier. The encapsulant is disposed on the surface of the carrier. A portion of the connection element is exposed from an upper surface and an edge of the encapsulant.

Abstract: A device for controlling and integrating multiple types of signal transmission cables includes a multi-signal transmitter module and a multi-signal receiver module. The multi-signal receiver module is connected to the multi-signal transmitter module via a network cable for receiving a first and a second differential signal sequentially transmitted by the multi-signal transmitter module. The multi-signal receiver module also performs a differential solution process for the received first and second differential signals, so as to get a first control instruction and a video signal, which are then sequentially transmitted to at least one electronic device for the same to execute a corresponding operation. With these arrangements, multiple signals can be transmitted and received with reduced quantity of cables, and the controlling and integrating device can be installed and maintained with reduced labor cost.

Abstract: An anti-fuse structure includes a substrate having at least a shallow trench isolation formed therein, a notch formed between the substrate and the STI, an electrode structure formed on the substrate, the electrode structure filling the notch, and a doped region formed in the substrate on a side of the electrode structure opposite to the notch.

Abstract: An anti-fuse structure includes a substrate having at least a shallow trench isolation formed therein, a notch formed between the substrate and the STI, an electrode structure formed on the substrate, the electrode structure filling the notch, and a doped region formed in the substrate on a side of the electrode structure opposite to the notch.

Abstract: A power-saving audio/video control device determines whether to power on/off a public broadcasting system according to a connecting status of a multimedia device through a power-saving control. The multimedia device provides an audio/video signal to be played by the public broadcasting system. The multimedia device includes an input module, a detection unit and a control unit. The audio/video control device plugs and installs the multimedia device directly, and the detection unit detects whether the input module is connected to the multimedia device, so that the control unit controls the power ON/OFF of the public broadcasting system and selects a source port automatically to achieve the effects of providing a plug and play function, turning on or off the power automatically, saving energy, reducing the labor cost, enhancing the service life, automatically switching the audio/video, and providing a convenient operation.

Abstract: A control system with bidirectional selection includes an audio/video receiving device and an audio/video transmission device. The audio/video receiving device serves to transmit an input command to a signal processing module via a first control interface for the signal processing module to generate a control signal and transmit the control signal to a detection module. According to the received control signal, a second central processor generates a switch control signal and transmits the switch control signal to an audio/video switch. According to the switch control signal, the audio/video switch selects the audio/video signal. Accordingly, the audio/video signal can be selected at both the transmission terminal and the receiving terminal.

Abstract: An energy-saving control system for automatically turning on/off electronic device is disclosed. The control system includes at least one front end device for transmitting an A/V signal, a control device, and at least one back end device. The control device detects whether the at least one front end device transmits any A/V signal, and automatically controls on/off of power supply to an A/V control unit in the control device and/or the at least one back end device, so as to effective achieve energy saving.

Abstract: An energy-saving audio-amplifier control device is electrically connected to an amplifier for sensing an audio signal input state at a sound-source input end of the amplifier and controlling the on/off of the amplifier accordingly. The control device includes a signal detection module, a control module and a power control module. The signal detection module detects the state at the sound-source input end and generates a first signal to the control module. Based on the first signal, the control module controls the power control module to control the on/off of the amplifier. With these arrangements, it is able to automatically control the amplifier to off when the audio signal input to the amplifier is ended, and accordingly, achieve the purpose of saving energy, reducing power consumption, and minimizing loss of components.

Abstract: An energy-saving control device for remote image receiver is disclosed. The control device is electrically connected to an image receiver, and includes a detection module, a control module, and a power control module. The detection module detects a differential signal transmission state at the remote image receiver, and generates a detection signal to the control module accordingly. The control module generates a control signal according to the detection signal, so as to control the power control module to control on/off of power supply to the image receiver. With these arrangements, it is able to control the image receiver to automatically turn off when the differential signal transmission stops, so as to achieve the effects of energy saving and extended service life of the image receiver.

Abstract: An automatic video delay correction method in which an automatic delay equalizer is used. The method includes steps of: using a processor to read a video signal and analyze and judge whether the back porch of the three primary color signal in a received video signal is the same; if not, using a delay regulator to automatically adjust the delay time of any two leading or trailing primary color signal to generate an adjusted back porch of two primary color signal; using the processor to compare the adjusted back porch of the two primary color signal with the back porch of a maximum delay time to judge whether the adjusted back porch is the same as the back porch of the maximum delay time; and if so, using the processor to generate an adjusted video signal and transmit the adjusted video signal to a remote-end receiving device.

Abstract: An automatic video gain adjustment method in which an automatic gain equalizer is used. The method includes steps of: using a processor to read and analyze a video signal and compare the video signal with a standard value to judge whether the video signal matches the standard value; using a gain regulator to automatically adjust the amplitude of the video signal in case the video signal fails to match the standard value, the gain regulator then generating an adjusted video signal; and using the processor to receive the adjusted video signal and transmit the adjusted video signal to a remote-end receiving device. By means of the automatic video gain adjustment method, the video signal can be automatically and more conveniently adjusted to match the standard value.