Abstract: A thin-film transistor includes an active layer, a gate electrode, a source electrode and a drain electrode. The gate electrode overlaps the active layer. The source electrode and the drain electrode are connected to the active layer. The active layer includes a source region connected to the source electrode, a drain region connected to the drain electrode, a channel region overlapping with the gate electrode, a first resistive region between the source region and the channel region, and a second resistive region between the drain region and the channel region. The length of the first resistive region is larger than the length of the second resistive region.

Abstract: A thin-film transistor includes an active layer, a gate electrode, a source electrode and a drain electrode. The gate electrode overlaps the active layer. The source electrode and the drain electrode are connected to the active layer. The active layer includes a source region connected to the source electrode, a drain region connected to the drain electrode, a channel region overlapping with the gate electrode, a first resistive region between the source region and the channel region, and a second resistive region between the drain region and the channel region. The length of the first resistive region is larger than the length of the second resistive region.

Abstract: An active matrix organic light emitting diode (OLED) display device includes an array of pixels, each pixel including an OLED, a driving transistor (DT) coupled to drive current through the OLED, a storage capacitor, and a scanning transistor (ST) coupled to control charge on the storage capacitor corresponding to a data voltage for said pixel. The display device also includes a timing controller configured to control the ST of each pixel to update the charge stored on the storage capacitor of each pixel at a frame rate including at least one frequency within a range of 1-10 Hertz (Hz).

Abstract: An active matrix organic light emitting diode (OLED) display device includes an array of pixels, each pixel including an OLED, a driving transistor (DT) coupled to drive current through the OLED, a storage capacitor, and a scanning transistor (ST) coupled to control charge on the storage capacitor corresponding to a data voltage for said pixel. The display device also includes a timing controller configured to control the ST of each pixel to update the charge stored on the storage capacitor of each pixel at a frame rate including at least one frequency within a range of 1-10 Hertz (Hz).

Abstract: An active matrix organic light emitting diode (OLED) display device includes an array of pixels, each pixel including an OLED, a driving transistor (DT) coupled to drive current through the OLED, a storage capacitor, and a scanning transistor (ST) coupled to control charge on the storage capacitor corresponding to a data voltage for said pixel. The display device also includes a timing controller configured to control the ST of each pixel to update the charge stored on the storage capacitor of each pixel at a frame rate including at least one frequency within a range of 1-10 Hertz (Hz).

Abstract: An active matrix organic light emitting diode (OLED) display device includes an array of pixels, each pixel including an OLED, a driving transistor (DT) coupled to drive current through the OLED, a storage capacitor, and a scanning transistor (ST) coupled to control charge on the storage capacitor corresponding to a data voltage for said pixel. The display device also includes a timing controller configured to control the ST of each pixel to update the charge stored on the storage capacitor of each pixel at a frame rate including at least one frequency within a range of 1-10 Hertz (Hz).

Abstract: An electronic device and a terminal communicating with the electronic device are provided. The electronic device includes a memory, a communication module connected to at least one external device having a camera to exchange data with the at least one external device, and a controller configured to, when a specific event occurs, enable the camera included in at least one of the at least one external device to capture an image through the communication module, and obtain the captured image and store the obtained image in the memory. When a specific event occurs, an image captured using a camera of an external device may be obtained and stored.

Abstract: According to one embodiment, a method includes: displaying an image in an orientation of an image capturing device associated with the mobile device rendered during a capture of the image; providing a user interface configured to process a user input for reorienting the image into a second orientation by displaying a thumbnail image of the image and a graphical user interface in a shape of a wheel surrounding the thumbnail image and rotating the thumbnail image to the second orientation when the user input is applied to the graphical user interface in the shape of the wheel to a degree of rotation corresponding to the second orientation; and displaying the image into the second orientation in response to the user input by reorienting the image in the second orientation when the user input applied to the graphical user interface in the shape of the wheel is released.

Abstract: Systems, circuits, and devices for displaying a captured image are disclosed. In one embodiment, a mobile device includes a memory; a display unit; an input device, and a processor coupled to the memory, the display unit and the input device, where the processor is configured to display an image in a first orientation irrespective of an orientation of the display unit when the image is accessed for displaying on the display unit, wherein the first orientation is an orientation of an image capturing device rendered during a capture of the image. The processor is further configured to provide a user interface configured to process a user input for reorienting the image into a second orientation and display the image in the second orientation in response to the user input.