A system and method for serializing output includes shift registers that sample a deserialized input signal at a relatively slow clock speed. Data latency between the input and output signals is controllable to a higher granularity than the input signal with bit positions corresponding to the high-speed input signal. A predictive learning algorithm receives data latency values from the input signal and corresponding data latency values from the output signal to correct and control output latency, potentially within one high speed clock cycle.

A shift register unit, a gate line driving device includes multiple stages of the shift register units, and a driving method for being applied to the shift register unit; the shift register unit includes: an input module connected between an input terminal and a pull-up node, and configured to charge the pull-up node; an output module connected between the pull-up node, a first clock signal terminal and an output terminal, and configured to output to the output terminal a first clock signal received at the first clock signal terminal; a pull-up node reset module connected between a reset terminal, a pull-down node and the pull-up node, and configured to reset the pull-up node; and an output reset module connected between a second clock signal terminal, the pull-down node and the output terminal, and configured to reset the output terminal.

A display device includes a gate driving circuit and a driving circuit. The gate driving circuit outputs a clock signal. The driving circuit receives the clock signal for driving a display unit and comprises two transistors. Wherein one of the two transistors is an oxide transistor and the other one of the two transistors is a silicon transistor.

The present disclosure discloses a shift register unit and a driving method thereof, a shift register circuit and a display device, and relates to the field of display technology, in order to solve problems of the conventional shift register that it has a complex structure, and occupies a too larger space. The shift register unit comprises an input module for receiving a signal of an input signal terminal and a signal of a high level terminal, a reset module for resetting an output terminal of the shift register unit and a pull-up control node, a pull-down module for discharging the pull-up control node and the output terminal of the shift register unit, a pull-down control module for generating a power supply enable signal and a power supply signal, and an output control module for generating a gate drive signal and outputting the power supply enable signal, the power supply signal and the gate drive signal. The shift register unit provided by the present disclosure is applied to the display device.

A shift register unit, includes: a first output module and a second output module, configured to output a signal of a clock signal terminal to a signal output terminal under the control of a pull-up control node; an input module, configured to output a voltage of the first power supply terminal to the pull-up control node under the control of a signal of the signal input terminal; a pull-down control module, configured to pull down a signal of the pull-down control node to a voltage of the second power supply terminal under the control of the signal input terminal; a pull-down module, configured to pull down signals of the pull-up control node and the signal output terminal to the voltage of the second power supply under the control of the pull-down control node; and a reset module, configured to output a signal of the first power supply terminal to the pull-down control node under the control of the reset signal terminal. The shift register unit is capable of raising the output capability of the signal output terminal and shortening the falling time of the output waveform. A gate driving circuit and a display apparatus are also provided.

Provided are a display panel and display device. The display panel includes a driver circuit, where the driver circuit includes an N-stage cascaded shift register which includes a first control unit, a second control unit, a third control unit, and a fourth control unit. The first control unit is configured to receive an input signal and control a signal of a first node in response to a first clock signal. The second control unit is configured to control a signal of a second node. The third control unit is configured to receive the first voltage signal and generate an output signal in response to a signal of a third node, or receive the second voltage signal and generate an output signal in response to the signal of the second node. The fourth control unit is connected to the third node.

Embodiments of the present disclosure provide a shift register unit and a driving method thereof, a gate driving circuit and a display device. The shift register unit comprises a latch module and a latch output module. Switching on and off of the transmission gates is controlled by using an intermediate signal generated based on a clock signal and an inputted signal, instead of by using the clock signal, such that the shift register unit will not be influenced by frequent flips of the clock signal in a non-operational state, thus avoiding a great deal of useless power consumption.

A shift register and driving method thereof, and a gate driving circuit. The shift register of the present disclosure comprises: an input unit for controlling whether the signal of a first input end is inputted to a charging unit; a charging unit for charging a pull-up node; a pull-up unit for maintaining a high level of the pull-up node; a high level output unit for controlling whether the high level is outputted to the output end according to the level of the pull-up node; a pull-down unit for pulling down the level of the pull-up node and outputting the low level to the output end; a low level output unit for outputting the low level to the output end. The gate driving circuit of the present disclosure is formed by cascading a plurality of the above shift registers.

A gate driver includes stages connected to clock signal lines to which clock signals are applied and a first gate power line to which a first gate power voltage is applied, and outputting the first gate power voltage as gate signals in response to the clock signals. The clock signals have a first frequency and the first gate power voltage has a first voltage level in a first period. The clock signals have a second frequency lower than the first frequency and the first gate power voltage has a second voltage level in a second period. One of the first and second voltage levels is a gate-on voltage level that turns on a transistor, and another of the first and second voltage levels is a gate-off voltage level that turns off the transistor.

The present disclosure discloses a gate driving circuit, a gate driving method, an array substrate and a display panel. The gate driving circuit includes a plurality of shift registers cascaded together to successively output a respective drive signal, and a plurality of control switches each configured for connection to a respective one of gate lines. Each of the plurality of shift registers is connected to at least two respective ones of the plurality of control switches to output the respective drive signal to the at least two control switches. The plurality of control switches are configured such that the control switches connected to the same shift register are turned on and off time-divisionally in response to a control signal, whereby the respective drive signal output by the shift register is coupled to the gate line corresponding to a turned-on one of the control switches.