Abstract: Some implementations described herein include a semiconductor device. The semiconductor device includes a radio frequency switch structure including a phase change material layer and a heat spreader component. A form factor and a location of the heat spreader component improves a uniformity of heat distribution within the radio frequency switch structure relative to other heat spreader components having different form factors and/or locations. Additionally, the phase change material layer includes a concentration of germanium and tellurium that reduces a resistivity of the radio frequency switch structure relative to other concentrations.

Abstract: A display device is provided. The display device includes a display module and an antenna coil. The display panel has a first substrate, a second substrate, a common electrode layer, a TFT layer and a light modulating layer. The common electrode layer is disposed between the first substrate and the second substrate. The antenna coil is disposed on the side of the first substrate or the second substrate facing away from the light modulating layer. The orthogonal projection of the antenna coil on the light common electrode defines a contour of the antenna coil, wherein the common electrode layer is discontinuous along at least one part of the contour.

Abstract: A wireless communication interface and a driving method thereof are provided. The wireless communication interface includes a substrate, a plurality of active antennas, a plurality of passive antennas, and a sensing driving circuit. The active antennas are disposed on the substrate for receiving a radio frequency signal. The passive antennas are disposed on the substrate for resonating the RF signals of the adjacent active antennas in response to a control signal. The sensing driving circuit is coupled to the active antennas and the passive antennas for providing the radio frequency signal and the control signal.

Abstract: A wireless communication interface and a driving method thereof are provided. The wireless communication interface includes a substrate, a plurality of active antennas, a plurality of passive antennas, and a sensing driving circuit. The active antennas are disposed on the substrate for receiving a radio frequency signal. The passive antennas are disposed on the substrate for resonating the RF signals of the adjacent active antennas in response to a control signal. The sensing driving circuit is coupled to the active antennas and the passive antennas for providing the radio frequency signal and the control signal.

Abstract: A display panel comprises a pixel array, multiple vertical driving lines, multiple parallel driving lines, and a first induction area. The pixel array comprises multiple pixels. One of the multiple parallel driving lines comprises a first driving line and a second driving line. The first induction area comprises part of the pixels, wherein magnetic field of a first RF antenna passes through the display panel via the first induction area, a first projection area is corresponding to a vertical projection of the first RF antenna on the display panel, and the first induction area is larger than the first projection area. The first driving line and the second driving line are configured to drive a first row of pixels among the part of the pixels, and the first driving line and the second driving line are electrically isolated from each other within the first induction area.

Abstract: A display device is provided. The display device includes a display module and an antenna coil. The display panel has a first substrate, a second substrate, a common electrode layer, a TFT layer and a light modulating layer. The common electrode layer is disposed between the first substrate and the second substrate. The antenna coil is disposed on the side of the first substrate or the second substrate facing away from the light modulating layer. The orthogonal projection of the antenna coil on the light common electrode defines a contour of the antenna coil, wherein the common electrode layer is discontinuous along at least one part of the contour.

Abstract: A display panel comprises a pixel array, multiple vertical driving lines, multiple parallel driving lines, and a first induction area. The pixel array comprises multiple pixels. One of the multiple parallel driving lines comprises a first driving line and a second driving line. The first induction area comprises part of the pixels, wherein magnetic field of a first RF antenna passes through the display panel via the first induction area, a first projection area is corresponding to a vertical projection of the first RF antenna on the display panel, and the first induction area is larger than the first projection area. The first driving line and the second driving line are configured to drive a first row of pixels among the part of the pixels, and the first driving line and the second driving line are electrically isolated from each other within the first induction area.

Abstract: An electronic device and a display module used therein are provided. The display module includes a display panel, a backlight module and a sensing antenna. The backlight module has a light exit surface and a reflective plate opposite to the light exit surface, and the display panel is stacked on the light exit surface. The sensing antenna is disposed on a surface of the reflective plate opposite to the light exit surface and has a body and two signal connecting terminals connecting the body. The electronic device includes the display module, a system circuit module, and a conductive device. The system circuit module is disposed on a back side of the display module and has a signal connecting parts corresponding to and connecting the signal connecting terminals.

Abstract: An electronic device and a display module used therein are provided. The display module includes a display panel, a backlight module and a sensing antenna. The backlight module has a light exit surface and a reflective plate opposite to the light exit surface, and the display panel is stacked on the light exit surface. The sensing antenna is disposed on a surface of the reflective plate opposite to the light exit surface and has a body and two signal connecting terminals connecting the body. The electronic device includes the display module, a system circuit module, and a conductive device. The system circuit module is disposed on a back side of the display module and has a signal connecting parts corresponding to and connecting the signal connecting terminals.

Abstract: An Internet-based system and application includes both a server and a plurality of client hardware platforms for executing the server as well as the client software. The current invention provides both bottom-up and top-down approaches in modeling information while all other existing systems provide only bottom-up approach. The system and application provide a set of pre-build widgets, also called “molecules”, that spare users from the details and complexity of the underlying web technologies while allowing them to build end applications from intermediary components called droplets by simply assembling and connecting existing molecules. Droplets are stored in a centralized repository wherein all other droplets that have been previously created by this user or others are also stored. Droplets can be selectively shared with others by assigning read/write privileges on creation or on the fly. Multiple droplets can be saved as a single HTML file called a formation.

Abstract: A pixel unit including a pixel electrode, a scan electrode, a common voltage electrode, a data electrode and at least one redundancy electrode is provided. During the fabricating process of the pixel unit, if a particle is simultaneously located between any two of the pixel electrode, the scan electrode and the common voltage electrode, it would cause a short circuit between the two electrodes. The pixel unit can generate a cross-shaped defect signal at the location where a short circuit happens when the pixel unit undergoes an array test or a cell test. The user can thereby quickly locate the defect and repair it.

Abstract: A pixel unit including a pixel electrode, a scan electrode, a common voltage electrode, a data electrode and at least one redundancy electrode is provided. During the fabricating process of the pixel unit, if a particle is simultaneously located between any two of the pixel electrode, the scan electrode and the common voltage electrode, it would cause a short circuit between the two electrodes. The pixel unit can generate a cross-shaped defect signal at the location where a short circuit happens when the pixel unit undergoes an array test or a cell test. The user can thereby quickly locate the defect and repair it.