A display device and a driving method are provided. The display device includes a display panel and a control IC. The display panel includes a plurality of light-emitting elements. The control IC is configured to control the plurality of light-emitting elements to be turned on at a first frequency so as to display display-related data, and control at least two light-emitting elements of the plurality of light-emitting elements to be turned on and off at a second frequency greater than the first frequency so as to transmit visible light data.

A system for optical data interconnect of a source and a sink includes a first HDMI compatible electrical connector able to receive electrical signals from the source. A first signal converter is connected to the first HDMI compatible electrical connector and includes electronics for conversion of differential (including but not limited to TMDS and FRL) electrical signals to optical signals, with the electronics including an optical conversion device. At least one optical fiber is connected to the first signal converter. A second signal converter is connected to the at least one optical fiber and includes electronics for conversion of optical signals to HDMI standard TMDS or FRL electrical signals. A power module for the second signal converter includes a power tap connected to HDMI standard TMDS or FRL circuitry and a voltage regulator connected to the power tap to provide power to an electrical signal amplifier. A second HDMI compatible electrical connector is connected to the second signal converter and able to send signals to the sink.

A display system is disclosed. The display system includes an electronic device including first and second interfaces and a display apparatus. The electronic device is configured to: rectify external alternating current (AC) power by direct current (DC) power based on a first ground, convert the DC power into power based on a second ground, provide the converted power to the display apparatus through a first interface connected to the second ground, and provide a signal received from an external device through a second interface connected to an earth ground to the display apparatus through the first interface, wherein a ground of the display apparatus is the same as the second ground and the second ground is different from the earth ground.

Methods and systems for automatic or semi-automatic configuration of an array of multiple monitors are disclosed. In various embodiments, a computer system attached to a plurality of monitors causes each of the monitors to display a unique identifier. A picture is then captured of the physical layout of the plurality of monitors, which is analyzed to detect monitor edges and extract the unique identifier displayed on each monitor. The detected edges and extracted identifiers are then used to determine the physical layout of the plurality of monitors, which is then provided back to the computer system for appropriate configuration. The unique identifier may also convey monitor information such as resolution, to allow the operating system to set various parameters such as font scaling.

Embodiments of this application disclose an electronic device, including a display screen, a display control circuit, an active optical component, and an optical control circuit. The active optical component is located below the display screen. The display control circuit is configured to control refreshing of the display screen, and output a synchronization signal to the optical control circuit. The optical control circuit is configured to receive the synchronization signal, and control the active optical component to start light emission after a predetermined first delay after a moment corresponding to the synchronization signal, so that after a predetermined second delay after the active optical component completes light emission, the display control circuit refreshes to one row of at least one row on the display screen corresponding to the active optical component.

A display system includes an interface unit, a head worn display in wireless communication with the interface unit, and a first tracker sensor remote from a head of a user and configured to wirelessly sense a head pose and provide first head tracking data to the interface unit. The interface unit is remote from the head worn display. The display system also includes a second tracker sensor associated with the head of the user and configured to provide second head tracking data associated with the head pose to the head worn display. The interface unit is configured to receive the second head tracking data from the head worn display via at least one wireless link and provide video information for display on the head worn display via the at least one wireless link.

A production slate device may include a first arm having a first distal end, and a second arm having a second distal end. A hinge may movably couple the arms together so that the first distal end and second distal end form the portions of the arms that are distal to the hinge, and the hinge may enable the device to be moved into and between a closed position, in which the distal ends are proximate to or in contact with each other, and an open position, in which the distal ends are moved apart from each other. A board plate may be coupled to the second arm. The board plate may have a board length dimension (BL), and the second arm may have a total length dimension (TL). Preferably, the BL is less than 80 percent of the TL.

A data drive input circuit includes a pulse width modulation (PWM) module operable to generate a PWM signal based on input data and a clock signal. The data drive input circuit further includes a mode enable module operable to establish a light emitting diode (LED) transmit mode of a mode signal when the PWM signal is in a first state and establish an LED receive mode of the mode signal when the PWM signal is in a second state. The data drive input circuit further includes a transmit/receive drive module operable to generate a transmit data signal component of an analog input signal based on the PWM signal and the LED transmit mode generate a receive signal component of the analog input signal based on the PWM signal and the LED receive mode and output the analog input signal.

A display apparatus comprises an at least partially transparent display, the display configured to generate light to form an image for display to a user positioned in front of the display, and at least one light-transmitting and/or light-receiving device positioned behind the display, wherein the at least one light-transmitting and/or light-receiving device is configured to transmit and/or receive light through at least part of the display, wherein the at least one light-transmitting and/or light-receiving device comprises or forms part of an optical wireless communications (OWC) apparatus configured to transmit and/or receive the light through the at least part of the display.

A display presents picture-in-picture and/or picture-by-picture formatted visual information initiated by secondary information handling systems while the display presents primary visual information. The display broadcasts plural partial video buffer definitions to plural information handling systems that can selectively initiate network sessions to present visual images in areas of the display by storage of visual image information in a portion of the display video buffer. The secondary display area may present visual images for IoT or similar headless devices having relevance to an end user of a primary information handling system.