8 results about "Mobile industry processor interface" patented technology

The application belongs to the technical field of display, and particularly relates to a display screen refresh frame rate adjustment method and device, a processor, a chip and a terminal. In the embodiment of the application, the working state of a mobile industry processor interface is monitored, and when the working state of the mobile industry processor interface changes, the refresh frame rate of the display screen for image display is adjusted, so that the refresh frame rate of the display screen can be dynamically adjusted according to the working state of the mobile industry processor interface, thereby avoiding the problem of high power consumption of the display screen caused by fixed use of high refresh frame rate for display, and helping to reduce the power consumption of the display screen. Meanwhile, the real-time performance is higher.

The invention discloses a control method of external equipment, the external equipment, a host and a storage medium, and relates to the technical field of the external equipment, the control method is applied to the external equipment, and the external equipment comprises a wired interface, a video bridging chip, a display module and an operation module. Based on the control instruction of the current display content of the display module, the control instruction is sent to the host through the wired interface; a display port signal fed back by the host after executing the control instruction is converted into a mobile industry processor interface signal based on the video bridging chip; and outputting a display picture corresponding to the interface signal of the mobile industry processor in the display module. The external equipment does not need to be equipped with a high-power-consumption assembly supporting independent operation, so that a high-capacity battery does not need to be arranged to meet the high-power-consumption requirement, the problem of equipment weight increase caused by the high-capacity battery is effectively avoided, and the user experience is improved.

Method for driving a display system at low power with a Mobile Industry Processor Interface. The method of a display driver IC includes: (a) upon receiving a t1-st MIPI sync signal and a t1-st video data, (i) synchronizing the t1-st MIPI sync signal with a t1-st display sync signal, (ii) generating a t1-st display data, and (iii) transmitting the t1-st display sync signal and the t1-st display data to a display panel having in-pixel memory, to store the t1-st display data in in-pixel memories and display a t1-st video image; and (b) in response to receiving a low power drive initiating command, in case a (t1+1)-th MIPI sync signal and a (t1+1)-th video data has not been received, transmitting a (t1+1)-th display sync signal to the display panel having in-pixel memory, to display the t1-st video image corresponding to the t1-st display data stored in the in-pixel memories.

A display apparatus includes: a display panel including a display layer and a touch screen layer; a flexible printed circuit board electrically connected to one side of the display panel; a driving driver on the display panel; a processor on the flexible printed circuit board; and mobile industry processor interface (MIPI) data lanes on the flexible printed circuit board and electrically connecting the processor and the driving driver to each other, wherein each of the MIPI data lanes includes a first access line and a second access line, and in at least one of the MIPI data lanes, a phase of a signal at the first access line and a phase of a signal at the second access line are configured to be different from each other, based on transmission of a low power state (LPS) signal.

Embodiments of the present disclosure provide an image transmission apparatus and method, a processor, and a virtual reality chip. A master processor is connected to a slave processor by means of a mobile industry processor interface. An apparatus applied to the master processor comprises: a data arrangement module, used for respectively performing data arrangement on Alpha data and RGB data of an image in an application, the Alpha data and the RGB data being arranged to different data regions; and a sending control module, used for sending the arranged Alpha data and RGB data by means of the mobile industry processor interface. In the embodiments of the present disclosure, the master processor transmits the image comprising the Alpha data and the RGB data to the slave processor by means of the mobile industry processor interface, which does not affect a transmission protocol of the mobile industry processor interface, and has good universality.

An interface circuit has a data recovery circuit, a protocol interface circuit, and a controller or processor that can be implemented using a finite state machine. The data recovery circuit may be configured to receive a stream of symbols through three wires of a serial bus according to a high speed mode defined by a Mobile Industry Processor Interface Alliance (C-PHY) protocol. The protocol interface circuit may be coupled to an output of the data recovery circuit and configured to receive data from the data recovery circuit. The finite state machine may be configured to disable the data recovery circuit when an end of transmission is indicated in a first end of transmission signal received from the protocol interface circuit.

According to an embodiment, an electronic device may comprise: a control circuit including a plurality of mobile industry processor interface (MIPI) circuits; a plurality of driving circuits connected to the plurality of MIPI circuits; and a selection circuit connected to a plurality of control paths between the plurality of MIPI circuits and the plurality of driving circuits. The selection circuit may be configured to, while control signals are respectively provided to the plurality of driving circuits, output at least one of the plurality of control signals provided to the plurality of driving circuits.

The invention discloses an MIPI (Mobile Industry Processor Interface) double-display screen switching system and method for sharing clock synchronization. The system comprises a processor, a first display screen, a second display screen, a clock sharing link, a data switching module, a frame buffer area and a display driving module. The same clock channel of the processor MIPI DSI controller is directly connected to the two display screens in parallel through the clock sharing link, so that clock synchronization is ensured; the display driving module responds to vertical synchronization interruption generated by a processor MIPI DSI controller to determine a vertical synchronization blanking period, controls the data switching module to switch the display screen in the blanking period, and then sends corresponding sub-image data in the frame buffer area to the switched display screen. Therefore, stable and tear-free time-sharing driving of the single MIPI DSI interface to the double display screens is realized. TE signals do not need to be provided by a display screen, hardware cost and power consumption are remarkably reduced, and application development is simplified.