Abstract: A device includes a body having an outer surface. The device includes a plurality of pins in the body, a first pin of the plurality of pins configured to receive a first signal having a first rate, a second pin of the plurality of pins configured to receive a second signal having a second rate less than the first rate. The device includes a shield on a first portion of the outer surface to define an exposed second portion of the outer surface, wherein the second pin is positioned closer to the exposed second portion than the first pin.

Abstract: A camera module includes a printed circuit, an image sensor, a lens assembly, and a multi-layer shield. The lens assembly is configured to focus image light to the image sensor. The multi-layer shield is disposed around the lens assembly and around the image sensor. The multi-layer shield includes a shield layer and a light-blocking layer. The shielding layer is configured to block electromagnetic interference (EMI). The light-blocking layer is configured to block ambient light from becoming incident on the image sensor and the lens assembly.

Abstract: A method for driving pixels of an active matrix organic light-emitting diode display is disclosed. The method includes charging a first terminal and a second terminal of a first capacitor with a reference voltage and a reset voltage respectively, and turning on a third switch simultaneously, floating the second terminal of the first capacitor, charging the first terminal of the first capacitor according to a data voltage, floating the first terminal of the first capacitor and turning on the third switch. Thus, determine a driving current independent of process variances of the N-type thin film transistor and a voltage drop of an OLED according to a difference voltage across the first capacitor.

Abstract: A pixel driving circuit of an organic light emitting diode (OLED) includes a first switch, a first capacitor, a transistor, a second switch, a second capacitor, and an OLED. The operation of the pixel driving circuit includes four stages of reset, threshold voltage compensation, data writing, and emitting. The pixel driving circuit compensates the threshold voltage of the transistor, so the driving current of the OLED is only related to the data voltage and the reference voltage.

Abstract: A pixel driving circuit of an organic light emitting diode (OLED) includes a first switch, a first capacitor, a transistor, a second switch, a second capacitor, and an OLED. The operation of the pixel driving circuit includes four stages of reset, threshold voltage compensation, data writing, and emitting. The pixel driving circuit compensates the threshold voltage of the transistor, so the driving current of the OLED is only related to the data voltage and the reference voltage.

Abstract: A method for driving pixels of an active matrix organic light-emitting diode display is disclosed. The method includes charging a first terminal and a second terminal of a first capacitor with a reference voltage and a reset voltage respectively, and turning on a third switch simultaneously, floating the second terminal of the first capacitor, charging the first terminal of the first capacitor according to a data voltage, floating the first terminal of the first capacitor and turning on the third switch. Thus, determine a driving current independent of process variances of the N-type thin film transistor and a voltage drop of an OLED according to a difference voltage across the first capacitor.

Abstract: An electroluminescent (EL) display panel includes a blue EL device, a red EL device, a green EL device, a first power line electrically connected to the blue EL device, a second power line electrically connected to the red EL device, and a third power line electrically connected to the green EL device. The first power line has a first width, the second power line has a second width, and the third power line has a third width, wherein the first width is larger than the second width and the first width is larger than the third width.