Abstract: A data feature augmentation system and method for a low-precision neural network are provided. The data feature augmentation system includes a first time difference unit. The first time difference unit includes a first sample-and-hold circuit and a subtractor. The first sample-and-hold circuit is used for receiving an input signal and obtaining a first signal according to the input signal. The first signal is related to a first leakage rate of the first sample-and-hold circuit and the first signal is the signal generated by delaying the input signal by one time unit. The subtractor is used for performing subtraction on the input signal and the first signal to obtain a time difference signal. The input signal and the time difference signal are inputted to the low-precision neural network.

Abstract: A device includes a package component including an interconnect structure on a first side of a substrate; metal pads on the interconnect structure; a semiconductor die connected to a second side of the substrate; a dielectric material surrounding the package component; a passivation layer extending over the package component and over the dielectric material; a first buffer layer over the passivation layer, wherein the first buffer layer extends over the package component and over the dielectric material, wherein a width of the first buffer layer is greater than a width of the package component and is less than a width of the passivation layer; and conductive connectors penetrating the passivation layer and the first buffer layer to physically contact the metal pads.

Abstract: A display device and a driving method for the display device are provided. The display device includes a driving circuit, a backlight driving unit, and a display panel. The driving circuit receives a plurality of pieces of image data. The plurality of pieces of image data include first image data and second image data. The display panel receives a plurality of image display signals of the plurality of pieces of image data. The driving circuit compares the first image data and the second image data to generate a comparison result, and provides a backlight brightness adjustment command to the backlight driving unit according to the comparison result.

Abstract: The present disclosure provides an electronic device including a display and a light-adjustable control panel including a plurality of light control units. The light-adjustable control panel includes a first substrate, a second substrate, and a display medium sandwiched between the first substrate and the second substrate. In a first displaying mode, the light control units form a plurality of first transparent regions and a plurality of non-transparent regions alternately arranged, and in a second displaying mode, the control units form a second transparent region. A ratio of a total area of the first transparent regions to a total area of the light control units is different from a ratio of an area of the second transparent region to the total area of the light control units.

Abstract: A motion detection device is provided. The motion detection device includes a first image recording unit, a first storage unit, a motion detection unit, a depth calculation unit, and a determination unit. The first image recording unit is configured to record a first video. The first storage unit is configured to store the first video. The motion detection unit is configured to detect a moving object in the first video. The depth calculation unit is configured to calculate a depth of the moving object. The determination unit is configured to determine whether or not the moving object is a concerned event according to the depth of the moving object.

Abstract: An image capturing device includes a main body, at least one light source, a lens, and at least one first light shielding structure. The light source disposed at the main body is suitable for providing a light beam to an outside of the main body. The lens disposed at the main body is suitable for capturing a light entering the lens from the outside of the main body. The first light shielding structure is disposed at the main body. The light beam turns into an actual output light beam after being shielded by the first light shielding structure. The first light shielding structure shields the light beam in a vertical direction more than it shields the light beam in a horizontal direction, so an actual vertical light emitting angle of the actual output light beam is smaller than an actual horizontal light emitting angle of the actual output light beam.

Abstract: An image capturing device includes a main body, at least one light source, a lens, and at least one first light shielding structure. The light source disposed at the main body is suitable for providing a light beam to an outside of the main body. The lens disposed at the main body is suitable for capturing a light entering the lens from the outside of the main body. The first light shielding structure is disposed at the main body. The light beam turns into an actual output light beam after being shielded by the first light shielding structure. The first light shielding structure shields the light beam in a vertical direction more than it shields the light beam in a horizontal direction, so an actual vertical light emitting angle of the actual output light beam is smaller than an actual horizontal light emitting angle of the actual output light beam.

Abstract: A data stream generation and transmission system is provided. The system includes a cable, a data stream generation device, and a wireless transmission device connected to the data stream generation device through the cable. The data stream generation device includes a storage component and a data stream generation module. The storage component stores wireless network configuration data. The data stream generation module generates a data stream. The wireless transmission device includes a wireless module, wherein the data stream generation device is adapted to send the wireless network configuration data and the data stream to the wireless transmission device through the cable, and the wireless transmission device is adapted to use the wireless network configuration data to configure the wireless module and use the wireless module to transmit the data stream wirelessly.

Abstract: A motion detection device is provided. The motion detection device includes a first image recording unit, a first storage unit, a motion detection unit, a depth calculation unit, and a determination unit. The first image recording unit is configured to record a first video. The first storage unit is configured to store the first video. The motion detection unit is configured to detect a moving object in the first video. The depth calculation unit is configured to calculate a depth of the moving object. The determination unit is configured to determine whether or not the moving object is a concerned event according to the depth of the moving object.

Abstract: A data stream generation and transmission system is provided. The system includes a cable, a data stream generation device, and a wireless transmission device connected to the data stream generation device through the cable. The data stream generation device includes a storage component and a data stream generation module. The storage component stores wireless network configuration data. The data stream generation module generates a data stream. The wireless transmission device includes a wireless module, wherein the data stream generation device is adapted to send the wireless network configuration data and the data stream to the wireless transmission device through the cable, and the wireless transmission device is adapted to use the wireless network configuration data to configure the wireless module and use the wireless module to transmit the data stream wirelessly.

Abstract: A wireless network setting method applied to a wireless network communication system is provided. The wireless network communication system includes a wireless network base station, a remote device and a universal repeater. The setting method includes following steps. The wireless network base station provides a wireless network. The wireless network base station signally connects to the remote device and transmits a setting parameter corresponding to the wireless network. The remote device receives and stores the setting parameter corresponding to the wireless network. The universal repeater signally connects to the remote device. The universal repeater and the remote device activate a transmission procedure of network setting according to a trigger signal. In the transmission procedure of network setting, the remote device transmits the setting parameter corresponding to the wireless network to the universal repeater.

Abstract: A resistive component suitable for detecting electric current in a circuit and a method of manufacturing the resistive component are provided. The resistive component includes a carrier, a resistive layer, an electrode unit, an upper oxide layer and a protective layer. The resistive layer comprises copper alloy and is disposed on the carrier. The electrode unit is electrically connected to the resistive layer. The upper oxide layer is disposed on a part of a surface of the resistive layer and includes oxides of the resistive layer. The protective layer covers at least a part of the upper oxide layer.

Abstract: A resistive component suitable for detecting electric current in a circuit and a method of manufacturing the resistive component are provided. The resistive component includes a carrier, a resistive layer, an electrode unit, an upper oxide layer and a protective layer. The resistive layer comprises copper alloy and is disposed on the carrier. The electrode unit is electrically connected to the resistive layer. The upper oxide layer is disposed on a part of a surface of the resistive layer and includes oxides of the resistive layer. The protective layer covers at least a part of the upper oxide layer.

Abstract: A process of forming a high-k gate dielectric layer is applied in forming semiconductor devices such as metal oxide semiconductor transistor or memory devices. A metal layer such as Hf or Zr is formed on a substrate. The substrate is then dipped in an acidic solution such as a nitric acid aqueous solution to form a high-K metal oxide layer including oxides or silicate with a predetermined thickness. Thereby, leakage current is effectively reduced to meet the requirement of currently technology nodes.

Abstract: A method for forming a metal oxide layer by a nitric acid oxidation is disclosed. The method comprises steps of: a) providing a substrate, b) forming an ultra-thin silicon dioxide layer on the substrate, c) forming a metal layer on the silicon dioxide layer, d) oxidizing the metal layer into the metal oxide layer by the nitric acid oxidation, and e) annealing the metal oxide layer.

Abstract: A process of forming a high-k gate dielectric layer is applied in forming semiconductor devices such as metal oxide semiconductor transistor or memory devices. A metal layer such as Hf or Zr is formed on a substrate. The substrate is then dipped in an acidic solution such as a nitric acid aqueous solution to form a high-K metal oxide layer including oxides or silicate with a predetermined thickness. Thereby, leakage current is effectively reduced to meet the requirement of currently technology nodes.