Abstract:
A stocker system includes a main frame, a plurality of shelves disposed within the main frame, and a crane adjacent to the main frame. The crane includes a lower module that includes a plurality of lower profiles. An upper module is disposed on the lower module. The upper module includes a plurality of upper profiles and at least one upper expandable plate. The plurality of upper profiles is disposed on the plurality of lower profiles. The at least one upper expandable plate is disposed between the plurality of upper profiles.
Abstract:
An image sensor includes: a pixel array including pixels and reference pixels; an analog sensing circuit configured to sense signals from the pixels and the reference pixels; and a digital logic circuit configured to receive the sensed signals from the analog sensing circuit and configured to compensate signals corresponding to the pixels from among the sensed signals by using signals corresponding to the reference pixels from among the sensed signals, wherein each of the reference pixels is at least partially surround by the pixels.
Abstract:
An image sensor including: a pixel array including first and second pixel groups, each of the first and second pixel groups includes of pixels arranged in rows and columns; and a row driver configured to provide transmission control signals to the pixel array, the first pixel group includes a first auto-focus (AF) pixel including photodiodes arranged in a first direction, the pixels of the first pixel group output a pixel signal through a first column line, and the second pixel group includes a second AF pixel including photodiodes arranged in a second direction perpendicular to the first direction, the pixels of the second pixel group output a pixel signal through a second column line, and the first AF pixel of the first pixel group and the second AF pixel of the second pixel group receive same transmission control signals.
Abstract:
A method for operating an electronic device including a touch sensitive display is provided. The method includes displaying at least two application execution screens on the touch sensitive display not to be superposed on one another, receiving a touch input or a hovering input through the touch sensitive display, selecting at least one application execution screen among the at least two application execution screens at least partially in response to the reception of the touch input or the hovering input, and displaying the selected application execution screen to be superposed on at least a portion of a non-selected application execution screen among the at least two application execution screens.
Abstract:
A method for operating an electronic device including a touch sensitive display is provided. The method includes displaying at least two application execution screens on the touch sensitive display not to be superposed on one another, receiving a touch input or a hovering input through the touch sensitive display, selecting at least one application execution screen among the at least two application execution screens at least partially in response to the reception of the touch input or the hovering input, and displaying the selected application execution screen to be superposed on at least a portion of a non-selected application execution screen among the at least two application execution screens.
Abstract:
A pixel including: a first sub-pixel including a plurality of first photodiodes and a first reset transistor; and a second sub-pixel including a plurality of second photodiodes and a second reset transistor, wherein the first sub-pixel shares a floating diffusion node with the second sub-pixel, and wherein a length in a first direction of a metal line for sharing the floating diffusion node is shorter than a length in the first direction of a line connecting a center point of the first sub-pixel to a center point of the second sub-pixel.
Abstract:
Disclosed are a method for controlling a voltage supplied to a radio frequency (RF) transmission/reception module, and an electronic device for carrying out same. The electronic device, according to an embodiment, comprises: a communication processor including at least one processor comprising processing circuitry; an RF integrated circuit configured to generate a RF signal by processing data received from the communication processor, and transmit the RF signal to a RF transmission/reception module; the RF transmission/reception module comprising an amplification circuit configured to amplify the RF signal, and an overvoltage protection circuit configured to reduce overvoltage-induced damage to the amplification circuit, and configured to transmit the amplified RF signal; and a power management integrated circuit configured to manage power supplied to the amplification circuit using a voltage converter comprising a boost circuit configured to step up a voltage input into the boost circuit and a buck circuit configured to step down a voltage input into the buck circuit, wherein at least one processor of the communication processor, individually and/or collectively, is configured to: use the overvoltage protection circuit to detect the occurrence of an overshoot in which a voltage supplied to the RF transmission/reception module exceeds a threshold value, and in response to detecting the occurrence of the overshoot, control the power management integrated circuit and thus reduce an operation time of the boost circuit.
Abstract:
In some embodiments, a storage apparatus for a plurality of semiconductor devices includes a plurality of frames stacked at least partially on top of one another in a vertical direction, a plurality of shelves provided to be slidably movable on the plurality of frames along at least one guide rail extending in a first horizontal direction, a coupling portion including first couplers and second couplers that are selectively engaged with each other by an external control signal, and a driving portion provided to be movable in the first horizontal direction along the at least one guide rail. The plurality of shelves are configured to accommodate the plurality of semiconductor devices on upper surfaces of the plurality of shelves. The first couplers are provided on a first side surface of the plurality of shelves, and the second couplers are provided on a second opposite side surface of the plurality of shelves.
Abstract:
A pixel array including pixels arranged in a matrix shape is provided. The pixels have a same structure and are separated from each other by front deep trench isolation (FDTI). A first pixel among the pixels includes a first floating diffusion region, a first group of photoelectric conversion elements, a first group of charge transfer transistors, a first source follower transistor, and a first transistor, a second transistor, and a first reset transistor connected in series between the first floating diffusion region and a voltage supply line. One of the first transistor, the second transistor, and the first reset transistor is formed in a first sub-pixel region. At least another one of the first transistor, the second transistor, and the first reset transistor is formed in a second sub-pixel region. The first sub-pixel region and the second sub-pixel region are separated from each other by the FDTI.
Abstract:
A method for operating an electronic device including a touch sensitive display is provided. The method includes displaying at least two application execution screens on the touch sensitive display not to be superposed on one another, receiving a touch input or a hovering input through the touch sensitive display, selecting at least one application execution screen among the at least two application execution screens at least partially in response to the reception of the touch input or the hovering input, and displaying the selected application execution screen to be superposed on at least a portion of a non-selected application execution screen among the at least two application execution screens.