WO2017016052A1 - 一种液晶显示器的驱动方法及装置 - Google Patents

一种液晶显示器的驱动方法及装置 Download PDF

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Publication number
WO2017016052A1
WO2017016052A1 PCT/CN2015/089148 CN2015089148W WO2017016052A1 WO 2017016052 A1 WO2017016052 A1 WO 2017016052A1 CN 2015089148 W CN2015089148 W CN 2015089148W WO 2017016052 A1 WO2017016052 A1 WO 2017016052A1
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Prior art keywords
display screen
output ports
signal transmission
transmission channel
signal
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Ceased
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PCT/CN2015/089148
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English (en)
French (fr)
Inventor
王照
陈宥烨
陈胤宏
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TCL China Star Optoelectronics Technology Co Ltd
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Shenzhen China Star Optoelectronics Technology Co Ltd
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Priority to US15/034,813 priority Critical patent/US20170169775A1/en
Publication of WO2017016052A1 publication Critical patent/WO2017016052A1/zh
Anticipated expiration legal-status Critical
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    • G—PHYSICS
    • G09—EDUCATION; CRYPTOGRAPHY; DISPLAY; ADVERTISING; SEALS
    • G09G—ARRANGEMENTS OR CIRCUITS FOR CONTROL OF INDICATING DEVICES USING STATIC MEANS TO PRESENT VARIABLE INFORMATION
    • G09G3/00—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes
    • G09G3/20—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes for presentation of an assembly of a number of characters, e.g. a page, by composing the assembly by combination of individual elements arranged in a matrix no fixed position being assigned to or needed to be assigned to the individual characters or partial characters
    • G09G3/34—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes for presentation of an assembly of a number of characters, e.g. a page, by composing the assembly by combination of individual elements arranged in a matrix no fixed position being assigned to or needed to be assigned to the individual characters or partial characters by control of light from an independent source
    • G09G3/36—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes for presentation of an assembly of a number of characters, e.g. a page, by composing the assembly by combination of individual elements arranged in a matrix no fixed position being assigned to or needed to be assigned to the individual characters or partial characters by control of light from an independent source using liquid crystals
    • G09G3/3611—Control of matrices with row and column drivers
    • G09G3/3614—Control of polarity reversal in general
    • G—PHYSICS
    • G09—EDUCATION; CRYPTOGRAPHY; DISPLAY; ADVERTISING; SEALS
    • G09G—ARRANGEMENTS OR CIRCUITS FOR CONTROL OF INDICATING DEVICES USING STATIC MEANS TO PRESENT VARIABLE INFORMATION
    • G09G3/00—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes
    • G09G3/20—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes for presentation of an assembly of a number of characters, e.g. a page, by composing the assembly by combination of individual elements arranged in a matrix no fixed position being assigned to or needed to be assigned to the individual characters or partial characters
    • G09G3/34—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes for presentation of an assembly of a number of characters, e.g. a page, by composing the assembly by combination of individual elements arranged in a matrix no fixed position being assigned to or needed to be assigned to the individual characters or partial characters by control of light from an independent source
    • G09G3/36—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes for presentation of an assembly of a number of characters, e.g. a page, by composing the assembly by combination of individual elements arranged in a matrix no fixed position being assigned to or needed to be assigned to the individual characters or partial characters by control of light from an independent source using liquid crystals
    • G09G3/3611—Control of matrices with row and column drivers
    • G09G3/3648—Control of matrices with row and column drivers using an active matrix
    • G—PHYSICS
    • G09—EDUCATION; CRYPTOGRAPHY; DISPLAY; ADVERTISING; SEALS
    • G09G—ARRANGEMENTS OR CIRCUITS FOR CONTROL OF INDICATING DEVICES USING STATIC MEANS TO PRESENT VARIABLE INFORMATION
    • G09G3/00—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes
    • G09G3/20—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes for presentation of an assembly of a number of characters, e.g. a page, by composing the assembly by combination of individual elements arranged in a matrix no fixed position being assigned to or needed to be assigned to the individual characters or partial characters
    • G09G3/34—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes for presentation of an assembly of a number of characters, e.g. a page, by composing the assembly by combination of individual elements arranged in a matrix no fixed position being assigned to or needed to be assigned to the individual characters or partial characters by control of light from an independent source
    • G09G3/36—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes for presentation of an assembly of a number of characters, e.g. a page, by composing the assembly by combination of individual elements arranged in a matrix no fixed position being assigned to or needed to be assigned to the individual characters or partial characters by control of light from an independent source using liquid crystals
    • G09G3/3611—Control of matrices with row and column drivers
    • G09G3/3685—Details of drivers for data electrodes
    • G09G3/3688—Details of drivers for data electrodes suitable for active matrices only
    • G—PHYSICS
    • G09—EDUCATION; CRYPTOGRAPHY; DISPLAY; ADVERTISING; SEALS
    • G09G—ARRANGEMENTS OR CIRCUITS FOR CONTROL OF INDICATING DEVICES USING STATIC MEANS TO PRESENT VARIABLE INFORMATION
    • G09G2310/00—Command of the display device
    • G09G2310/02—Addressing, scanning or driving the display screen or processing steps related thereto
    • G09G2310/0202—Addressing of scan or signal lines
    • G09G2310/0218—Addressing of scan or signal lines with collection of electrodes in groups for n-dimensional addressing
    • G—PHYSICS
    • G09—EDUCATION; CRYPTOGRAPHY; DISPLAY; ADVERTISING; SEALS
    • G09G—ARRANGEMENTS OR CIRCUITS FOR CONTROL OF INDICATING DEVICES USING STATIC MEANS TO PRESENT VARIABLE INFORMATION
    • G09G2310/00—Command of the display device
    • G09G2310/02—Addressing, scanning or driving the display screen or processing steps related thereto
    • G09G2310/0243—Details of the generation of driving signals
    • G—PHYSICS
    • G09—EDUCATION; CRYPTOGRAPHY; DISPLAY; ADVERTISING; SEALS
    • G09G—ARRANGEMENTS OR CIRCUITS FOR CONTROL OF INDICATING DEVICES USING STATIC MEANS TO PRESENT VARIABLE INFORMATION
    • G09G2310/00—Command of the display device
    • G09G2310/02—Addressing, scanning or driving the display screen or processing steps related thereto
    • G09G2310/0264—Details of driving circuits
    • G09G2310/027—Details of drivers for data electrodes, the drivers handling digital grey scale data, e.g. use of D/A converters
    • G—PHYSICS
    • G09—EDUCATION; CRYPTOGRAPHY; DISPLAY; ADVERTISING; SEALS
    • G09G—ARRANGEMENTS OR CIRCUITS FOR CONTROL OF INDICATING DEVICES USING STATIC MEANS TO PRESENT VARIABLE INFORMATION
    • G09G2310/00—Command of the display device
    • G09G2310/02—Addressing, scanning or driving the display screen or processing steps related thereto
    • G09G2310/0264—Details of driving circuits
    • G09G2310/0297—Special arrangements with multiplexing or demultiplexing of display data in the drivers for data electrodes, in a pre-processing circuitry delivering display data to said drivers or in the matrix panel, e.g. multiplexing plural data signals to one D/A converter or demultiplexing the D/A converter output to multiple columns

Definitions

  • the present invention relates to the field of electronic circuit technologies, and in particular, to a driving method and device for a liquid crystal display.
  • TFT-LCD thin film transistor liquid crystal display
  • the current TFT-LCD will exhibit liquid crystal polarization during the driving process, that is, when the second frame image is displayed, there will be a residual image of the first frame image.
  • the data source driver (English: Data Driver) introduces the technology of positive and negative polarity switching, that is, each adjacent sub-pixel (English: Sub-pixel) is driven by voltages of different polarities. The polarity of the liquid crystal capacitor is continuously switched, thereby avoiding polarization of the liquid crystal.
  • a channel is generally configured in the driver chip corresponding to a digital to analog conversion circuit (English: Digital to Analog Conversion, referred to as: DAC), and the DACs of the adjacent two channels are configured with opposite polarities, such as channel 1 configuration + DAC, Channel 2 Configuration - DAC.
  • Different data link modes can be configured in the multiplexer (English: Multiplexer), wherein the data link mode can be controlled by mode control signals.
  • the data in the channel can be passed through the in-phase DAC or the inverting DAC according to the data link mode of the multiplexer configuration, so that data with alternating output polarity of multiple channels can be realized, that is, the output polarity is “+-+-+ - --.
  • Embodiments of the present invention provide a driving method and apparatus for a liquid crystal display.
  • a plurality of polarity patterns can be outputted on the display screen, which satisfies the requirement of the multi-polarity output mode.
  • embodiments of the present invention provide a method of driving a liquid crystal display.
  • the method can include the following steps:
  • constructing a first signal transmission channel group including N signal transmission channels for the N-channel image signals input to the N input ports of the driver of the liquid crystal display The first signal transmission channel group transmits N road image signals to the display screen of the liquid crystal display to present a first polarity pattern on the display screen, and the N is an integer greater than 1;
  • constructing a second signal transmission channel group including N signal transmission channels for inputting the N image signals of the N input ports of the driver of the liquid crystal display The second signal transmission channel group transmits N road image signals to the display screen of the liquid crystal display to present a second polarity pattern on the display screen.
  • the first polarity pattern includes a first positive polarity pattern and a first negative polarity pattern
  • the second polarity pattern includes a second positive polarity pattern and a second negative polarity pattern
  • the method further includes:
  • the driver includes N output ports, and the first signal transmission channel group including N signal transmission channels for the N image signals includes:
  • the constructing the second signal transmission channel group including the N signal transmission channels for the N channel image signals includes:
  • the method further includes:
  • a DAC array comprising N DACs is provided, wherein x of the positive DACs are adjacent, y of the negative DACs are adjacent, and N is an integer multiple of the sum of x and y.
  • embodiments of the present invention provide a driving device for a liquid crystal display.
  • the device includes the following modules:
  • a mode detecting module configured to detect a mode control signal
  • a first building module configured to: when the mode detecting module detects that the mode control signal is a high potential signal, construct N signals for N image signals input to N input ports of the driver of the liquid crystal display a first signal transmission channel group of the channel;
  • a first transmission module configured to transmit, by using the first signal transmission channel group, an N-way image signal to a display screen of the liquid crystal display to present a first polarity pattern on the display screen, where N is greater than 1 Integer
  • a second building module configured to: when the mode detecting module detects that the mode control signal is a low potential signal, construct N signals for N image signals input to N input ports of the driver of the liquid crystal display a second signal transmission channel group of the channel;
  • a second transmission module configured to transmit, by using the second signal transmission channel group, an N-way image signal to a display screen of the liquid crystal display to present a second polarity pattern on the display screen.
  • the first polarity pattern includes a first positive polarity pattern and a first negative polarity pattern
  • the second polarity pattern includes a second positive polarity pattern and a second negative polarity pattern.
  • the device also includes:
  • a polarity detecting module for detecting a polarity control signal
  • the first transmission module includes:
  • a first positive transfer unit configured to transmit, by the first signal transmission channel group, an N-way image signal to a display screen of the liquid crystal display when the polarity detecting module detects that the polarity control signal is at a high level Presenting the first positive polarity pattern on the display screen;
  • a first negative electrode transmission unit configured to: when the polarity detecting module detects that the polarity control signal is a low level, use the first signal transmission channel group to transmit an N-channel image signal to a display screen of the liquid crystal display to Presenting the first negative polarity pattern on the display screen;
  • the second transmission module includes:
  • a second positive transmission unit configured to: when the polarity detecting module detects that the polarity control signal is at a high level, transmit an N image signal to the display screen of the liquid crystal display by using the second signal transmission channel group to Presenting the second positive polarity pattern on the display screen;
  • a second negative transmission unit configured to: when the polarity detecting module detects that the polarity control signal is a low level, use the second signal transmission channel group to transmit an N image signal to a display screen of the liquid crystal display to The second negative polarity pattern is presented on the display screen.
  • the first building module includes:
  • a first adjacent linking unit for linking the x input ports of the driver to the input terminals of the x positive DACs, and linking the output ends of the x positive DACs to the x output ports of the driver, wherein the driver Include N output ports, the x output ports being adjacent x output ports of the N output ports;
  • a second adjacent linking unit configured to link the y input ports of the driver to the input ends of the y negative DACs, and link the output ends of the y negative DACs to the y output ports of the driver, wherein the y The output ports are adjacent y output ports of the N output ports.
  • the second building module includes:
  • a first interval linking unit configured to link the x input ports to an input end of the x positive DACs, and link an output end of the x positive DACs to x output ports of a driver, where
  • the x output ports are x output ports that are mutually spaced among the N output ports;
  • a second interval linking unit configured to link the y input ports of the driver to the input ends of the y negative DACs, and link the output ends of the y negative DACs to the y output ports of the driver, wherein the y The output port is y output ports that are mutually spaced among the N output ports.
  • the device further includes:
  • a setting module configured to set a DAC array comprising N DACs, wherein x of the positive DACs are adjacent, y of the negative DACs are adjacent, and N is an integer multiple of a sum of x and y.
  • embodiments of the present invention also provide a driving device for a liquid crystal display.
  • the device comprises a memory, a processor, N input ports and N output ports, wherein:
  • the N input ports are used to input N way image signals
  • the N output ports are configured to be connected to a display screen of the liquid crystal display, and transmit the N road image signals to the display screen;
  • the processor invokes program code stored in the memory to perform the following operations:
  • the group transmits N road image signals to the display screen of the liquid crystal display to Presenting a first polarity pattern on the display screen, the N being an integer greater than one;
  • the group transmits an N-way image signal to a display screen of the liquid crystal display to present a second polarity pattern on the display screen.
  • the first polarity pattern includes a first positive polarity pattern and a first negative polarity pattern
  • the second polarity pattern includes a second positive polarity pattern and a second negative polarity pattern
  • the processor calls the program code stored in the memory, and is also used to perform the following operations:
  • the processor transmits an N-way image signal to the display screen of the liquid crystal display by using the first signal transmission channel group to present a first polarity pattern on the display screen, specifically:
  • the processor uses the second signal transmission channel group to transmit N road image signals to the display screen of the liquid crystal display to present a second polarity pattern on the display screen, specifically:
  • the processor transmits an N-way image signal to the display screen of the liquid crystal display by using the first signal transmission channel group to present a first polarity pattern on the display screen, specifically:
  • the processor uses the second signal transmission channel group to transmit N road image signals to the display screen of the liquid crystal display to present a second polarity pattern on the display screen, specifically:
  • the apparatus further includes a first multiplexer, a second multiplexer, and a DAC array, wherein the processor constructs a first letter including N signal transmission channels for the N image signals.
  • the number of transmission channel groups includes:
  • the processor constructs a second signal transmission channel group including N signal transmission channels for the N image signals, including:
  • x of the positive DACs are adjacent in the DAC array, and y of the negative DACs are adjacent, and N is an integer multiple of the sum of x and y.
  • different signal transmission channels can be established for the N image signals input to the N input ports of the driver of the liquid crystal display; through different signal transmission channels An N-way image signal is transmitted to the display screen of the liquid crystal display, and different polarity patterns can be presented on the display screen. Thereby, a plurality of polarity patterns are outputted on the display screen, which satisfies the requirement of the multi-polarity output mode.
  • FIG. 1 is a flow chart showing an embodiment of a driving method of a liquid crystal display according to the present invention
  • FIG. 2 is a flow chart showing another embodiment of a driving method of a liquid crystal display according to the present invention.
  • FIG. 3 is a schematic structural view of an embodiment of a driving device for a liquid crystal display according to the present invention.
  • FIG. 4 is a schematic structural view of another embodiment of a driving device for a liquid crystal display according to the present invention.
  • Fig. 5 is a schematic structural view showing still another embodiment of a driving device for a liquid crystal display according to the present invention.
  • FIG. 1 is a flow chart of an embodiment of a driving method of a liquid crystal display according to the present invention.
  • the method can include the following steps.
  • Step S101 detecting a mode control signal.
  • the polarity output mode of the driver can be determined by detecting a mode control signal.
  • the detection mode control signal can be issued by the controller, wherein the controller can issue a mode control signal to control the polarity output mode of the driver.
  • different signal transmission channel groups can be constructed for the N image signals, thereby outputting different polarity patterns and realizing the output of the multi-polar mode. For details, refer to step S102 and step S103.
  • Step S102 when detecting that the mode control signal is a high potential signal, constructing a first signal transmission channel group including N signal transmission channels for inputting N image signals of N input ports of the driver of the liquid crystal display. And transmitting, by the first signal transmission channel group, an N-way image signal to a display screen of the liquid crystal display to present a first polarity pattern on the display screen, wherein the N is an integer greater than 1.
  • the first signal transmission channel including the N signal transmission channels can be built for the N image signals of the N input ports of the input driver according to the high potential signal.
  • the group, through the first signal transmission channel group, can transmit N road image signals to the display screen of the liquid crystal display, so that the first polarity pattern can be presented.
  • the first signal transmission channel group can be set up in a plurality of manners, one of the modes can be: linking the x input ports of the driver to the input ends of the x positive DACs, and outputting the x positive DACs The end is linked to the x output ports of the driver, wherein the x output ports are adjacent x output ports of the N output ports; linking the y input ports of the driver to the input ends of the y negative DACs The output of the y negative DACs is linked to the y output ports of the driver, wherein the y output ports are adjacent y output ports of the N output ports.
  • the first signal transmission channel group is constructed, and x adjacent positive signals and y adjacent negative signals can be output. That is, x adjacent output channels of the N number output positive image data, and y adjacent N number output ports output negative image data.
  • N can be set to be the sum of x and y
  • N can be set to be an integer multiple of the sum of x and y. If set to an integer multiple, that is, x + y is an output unit, and the polarity symbol of the output is circulated according to the output unit. For example, if x and y can be set to 4, then 8 output ports are used as one output unit, then N output ports can output "++++----" or "----++" ++" is the polarity symbol for the loop.
  • the first signal transmission channel group can also be implemented by other methods, such as configuring a DAC of the same polarity in the driver, configuring the inverter on some ports after passing through the DAC, and constructing the first signal transmission channel group in this configuration.
  • the N-way image data is passed through the first signal transmission channel group, and the first polarity pattern is outputted at the N-channel output port. Other methods are not described in detail in the embodiments of the present invention.
  • the first polarity pattern may include a first positive polarity pattern and a first negative polarity pattern, which may be converted in adjacent frames to avoid polarization of the liquid crystal display.
  • the first positive polarity pattern or the first negative polarity pattern may be output through the polarity control signal. That is, the potential of the polarity control signal is changed every frame, for example, in the Nth frame, the polarity control signal is high, then the first positive polarity pattern can be controlled to be output; at the N+1th frame, the polarity control signal is To be low, the first negative polarity pattern can be controlled to be output.
  • the first positive polarity pattern and the first negative polarity pattern may be implemented by the first signal transmission channel group. For example, when x, y are set to 4 and the number of x output ports on the output port Less than y output ports. If x is set to an output port numbered 1 to 4, and y is set to an output port numbered 5 to 8, the output port outputs a first positive polarity pattern, such as "++ ++----" is the polarity pattern of the unit polarity symbol; when the number of the x output ports is set to be larger than the number of the y output ports, the output port outputs the first negative polarity pattern, such as " ----++++” is the polarity pattern of the unit polarity symbol.
  • Step S103 when detecting that the mode control signal is a low potential signal, constructing a second signal transmission channel group including N signal transmission channels for inputting the N image signals of the N input ports of the driver of the liquid crystal display. And transmitting, by the second signal transmission channel group, an N-way image signal to a display screen of the liquid crystal display to present a second polarity pattern on the display screen.
  • the second signal transmission channel including the N signal transmission channels can be built for the N image signals of the N input ports of the input driver according to the low potential signal.
  • the group, through the second signal transmission channel group, can transmit N road image signals to the display screen of the liquid crystal display, so that the second polarity pattern can be presented.
  • the second signal transmission channel group can be set up in a plurality of ways, and one of the modes can be:
  • the second signal transmission channel group is constructed, and x phased positive signals and y spaced negative signals can be output.
  • the interval unit may be 1 or an integral multiple of 1.
  • N can be set to be the sum of x and y
  • N can be set to be an integer multiple of the sum of x and y. If set to an integer multiple, that is, x + y is an output unit, and the polarity symbol of the output is circulated according to the output unit. For example, if x and y can be set to 1, then two output ports are used as one output unit, and the N output ports can output polarity symbols that are cycled in units of "+-" or "-+".
  • the second signal transmission channel group can also be implemented in other ways, such as configuring the same pole in the driver.
  • the DAC is configured to configure the inverter on some ports after passing through the DAC. In this configuration, the second signal transmission channel group is set up, so that the N image data passes through the second signal transmission channel group and then outputs the second signal on the N output port. Polar pattern. Other methods are not described in detail in the embodiments of the present invention.
  • the second polarity pattern may include a second positive polarity pattern and a second negative polarity pattern, which may be converted in adjacent frames to avoid polarization of the liquid crystal display.
  • the second positive polarity pattern or the second negative polarity pattern may be output through the polarity control signal. That is, the potential of the polarity control signal is changed every frame, for example, in the Nth frame, the polarity control signal is high, then the second positive polarity pattern can be controlled to be output; at the N+1th frame, the polarity control signal is To be low, the second negative polarity pattern can be controlled to be output.
  • the second positive polarity pattern and the second negative polarity pattern may be implemented by the second signal transmission channel group. For example, when x and y are set to 1 and the number of x output ports on the output port is less than y output ports, if x is set to an odd-numbered output port, y is set to an even-numbered output.
  • the output port outputs a first positive polarity pattern, such as a polarity pattern with a polarity sign of "+-"; when the number of x output ports is set to be greater than the number of y output ports, then The output port outputs a second negative polarity pattern, such as a polarity pattern of polarity symbols in units of "-+".
  • different signal transmission channels can be established for the N image signals input to the N input ports of the driver of the liquid crystal display; through different signal transmission channels An N-way image signal is transmitted to the display screen of the liquid crystal display, and different polarity patterns can be presented on the display screen. Thereby, a plurality of polarity patterns are outputted on the display screen, which satisfies the requirement of the multi-polarity output mode.
  • FIG. 2 is a flow chart of another embodiment of a driving method of a liquid crystal display according to the present invention.
  • the method can include the following steps.
  • step S201 a mode control signal is detected.
  • the polarity output mode of the driver can be determined by detecting a mode control signal.
  • the detection mode control signal can be issued by the controller, wherein the controller can issue a mode control signal to control the polarity output mode of the driver.
  • different signal transmission channel groups can be constructed for the N image signals, thereby outputting different polarity patterns and realizing the output of the multi-polar mode. For details, refer to step S202 and step S203.
  • Step S202 when detecting that the mode control signal is a high potential signal, constructing a first signal transmission channel group including N signal transmission channels for inputting the N image signals of the N input ports of the driver of the liquid crystal display.
  • the first signal transmission channel including the N signal transmission channels can be built for the N image signals of the N input ports of the input driver according to the high potential signal. group.
  • the first signal transmission channel group can be set up in a plurality of manners, one of the modes can be: linking the x input ports of the driver to the input ends of the x positive DACs, and outputting the x positive DACs The end is linked to the x output ports of the driver, wherein the x output ports are adjacent x output ports of the N output ports; linking the y input ports of the driver to the input ends of the y negative DACs The output of the y negative DACs is linked to the y output ports of the driver, wherein the y output ports are adjacent y output ports of the N output ports.
  • the first signal transmission channel group is constructed, and x adjacent positive signals and y adjacent negative signals can be output. That is, x adjacent output channels of the N number output positive image data, and y adjacent N number output ports output negative image data.
  • N can be set to be the sum of x and y
  • N can be set to be an integer multiple of the sum of x and y. If set to an integer multiple, that is, x + y is an output unit, and the polarity symbol of the output is circulated according to the output unit. For example, if x and y can be set to 4, then 8 output ports are used as one output unit, then N output ports can output "++++----" or "----++" ++" is the polarity symbol for the loop.
  • the first signal transmission channel group can also be implemented by other methods, such as configuring a DAC of the same polarity in the driver, configuring the inverter on some ports after passing through the DAC, and constructing the first signal transmission channel group in this configuration.
  • the N-way image data is passed through the first signal transmission channel group, and the first polarity pattern is outputted at the N-channel output port. Other methods are not described in detail in the embodiments of the present invention.
  • a DAC array including N DACs may also be disposed in the driver, wherein x of the positive DACs are adjacent, y of the negative DACs are adjacent, and N is an integer multiple of a sum of x and y. .
  • Step S203 when detecting that the mode control signal is a low potential signal, constructing N signal transmission channels for N image signals of N input ports of the driver of the liquid crystal display.
  • the second signal transmission channel group of the channel is a low potential signal.
  • the second signal transmission channel including the N signal transmission channels can be built for the N image signals of the N input ports of the input driver according to the low potential signal. group.
  • the second signal transmission channel group can be set up in a plurality of ways, and one of the modes can be:
  • the second signal transmission channel group is constructed, and x phased positive signals and y spaced negative signals can be output.
  • the interval unit may be 1 or an integral multiple of 1.
  • N can be set to be the sum of x and y
  • N can be set to be an integer multiple of the sum of x and y. If set to an integer multiple, that is, x + y is an output unit, and the polarity symbol of the output is circulated according to the output unit. For example, if x and y can be set to 1, then two output ports are used as one output unit, and the N output ports can output polarity symbols that are cycled in units of "+-" or "-+".
  • the second signal transmission channel group can also be implemented by other methods, such as configuring a DAC of the same polarity in the driver, configuring an inverter on some ports after passing through the DAC, and constructing a second signal transmission channel group in this configuration.
  • the N-way image data is passed through the second signal transmission channel group, and the second polarity pattern is outputted at the N-channel output port.
  • Other methods are not described in detail in the embodiments of the present invention.
  • Step S204 detecting a polarity control signal.
  • a polarity control signal can be issued by the controller to control the polarity inversion output of the driver output port. That is, in the Nth frame, the output port can output the positive polarity pattern; in the N+1th frame, the current output polarity of the image data is inverted, and the output port outputs the negative polarity pattern. Thereby, the polarization of the liquid crystal display can be avoided.
  • the first polarity pattern may include a first positive polarity pattern and a first negative polarity pattern; and the second polarity pattern may include a second positive pattern The polar pattern and the second negative polarity pattern.
  • the driver first detects the mode control signal, selects the set signal transmission channel group according to the mode control signal, and then selects the polarity control signal to select the positive polarity pattern or the negative polarity pattern in the currently constructed signal transmission channel group.
  • Step S205 when detecting that the polarity control signal is a high potential signal, transmitting, by using the first signal transmission channel group, an N-way image signal to a display screen of the liquid crystal display to present the first image on the display screen. Positive polarity pattern.
  • Step S206 when detecting that the polarity control signal is a low potential signal, transmitting, by using the first signal transmission channel group, an N-way image signal to a display screen of the liquid crystal display to present the first image on the display screen. Negative polarity pattern.
  • the first signal transmission channel group can be set when the mode control signal is high. After the first signal transmission channel group is set up, the polarity control signal can be detected. Since the polarity control signal often changes the potential level when transmitting a new frame image data, the potential level of the polarity control signal can be detected periodically. If the polarity control signal is detected as a high potential signal, then N road image signals may be output to present a first positive polarity pattern on the display screen, and conversely, a first negative polarity pattern may be presented. In the embodiment of the present invention, the polarity of the first positive polarity pattern and the first negative polarity pattern are reversed, and the first positive polarity pattern is not the polarity of the N image data. Is the positive electrode.
  • the first positive polarity pattern and the first negative polarity pattern may be implemented by the first signal transmission channel group. For example, when x and y are set to 4 and the number of x output ports on the output port is less than y output ports, if x is set to an output port numbered 1 to 4, y is set to number 5 When the output port is ⁇ 8, the output port outputs the first positive polarity pattern, such as the polarity pattern of the polarity symbol in "++++----"; when the number of x output ports is set to When the number is greater than y output ports, the output port outputs a first negative polarity pattern, such as a polarity pattern with a polarity symbol of "----++++".
  • Step S207 when detecting that the polarity control signal is a high potential signal, transmitting, by using the second signal transmission channel group, N image signals to the display screen of the liquid crystal display to present the second image on the display screen. Positive polarity pattern.
  • Step S208 transmitting, by using the second signal transmission channel group, an N-way image signal to the display screen of the liquid crystal display to present the second negative polarity pattern on the display screen.
  • a second signal transmission channel group when the mode control signal is low, a second signal transmission channel group can be constructed. After the second signal transmission channel group is set up, the polarity control signal can be detected. Since the polarity control signal often changes the potential level when transmitting a new frame image data, the potential level of the polarity control signal can be detected periodically. If the polarity control signal is detected as a high potential signal, then N road image signals may be output to present a second positive polarity pattern on the display screen, and conversely, a second negative polarity pattern may be presented. In the embodiment of the present invention, the polarity of the second positive polarity pattern and the second negative polarity pattern are reversed, and the second positive polarity pattern is not the polarity of the N way image data. Is the positive electrode.
  • the second positive polarity pattern and the second negative polarity pattern may be implemented by the second signal transmission channel group. For example, when x and y are set to 1 and the number of x output ports on the output port is less than y output ports, if x is set to an odd-numbered output port, y is set to an even-numbered output.
  • the output port outputs a first positive polarity pattern, such as a polarity pattern with a polarity sign of "+-"; when the number of x output ports is set to be greater than the number of y output ports, then The output port outputs a second negative polarity pattern, such as a polarity pattern of polarity symbols in units of "-+".
  • different signal transmission channels can be established for the N image signals input to the N input ports of the driver of the liquid crystal display; through different signal transmission channels An N-way image signal is transmitted to the display screen of the liquid crystal display, and different polarity patterns can be presented on the display screen. Thereby, a plurality of polarity patterns are outputted on the display screen, which satisfies the requirement of the multi-polarity output mode.
  • the device may include a mode detecting module 01, a first building module 02, a first transmission module 03, a second building module 04, and a second transmission module 05.
  • the mode detecting module 01 is configured to detect a mode control signal.
  • the mode control signal can be detected by the mode detection module 01 to determine the polarity output mode of the driver.
  • the detection mode control signal can be issued by the controller, wherein the controller can issue a mode control signal to control the polarity output mode of the driver.
  • different signal transmission channel groups can be constructed for the N image signals, thereby outputting different polarity patterns and realizing the output of the multi-polar mode. For details, refer to the following modules.
  • the first building module 02 is configured to: when the mode detecting module 01 detects that the mode control signal is a high-potential signal, construct N pieces of N-channel image signals for inputting N input ports of the driver of the liquid crystal display The first signal transmission channel group of the signal transmission channel.
  • a first transmission module 03 configured to transmit, by using the first signal transmission channel group, an N-way image signal to a display screen of the liquid crystal display to present a first polarity pattern on the display screen, where the N is greater than 1 The integer.
  • the first building module 02 when the mode detecting module 01 detects that the mode control signal is high, the first building module 02 can construct N lines of image signals for the N input ports of the input driver according to the high potential signal.
  • the first signal transmission channel group of the signal transmission channel Through the first signal transmission channel group, the first transmission module 03 can transmit the N channel image signals to the display screen of the liquid crystal display, so that the first polarity pattern can be presented.
  • the first signal transmission channel group can be set up in a plurality of manners, one of the modes can be: linking the x input ports of the driver to the input ends of the x positive DACs, and outputting the x positive DACs The end is linked to the x output ports of the driver, wherein the x output ports are adjacent x output ports of the N output ports; linking the y input ports of the driver to the input ends of the y negative DACs The output of the y negative DACs is linked to the y output ports of the driver, wherein the y output ports are adjacent y output ports of the N output ports.
  • the first building module 02 constructs the first signal transmission channel group according to the above manner, and the first transmission module 03 can output x adjacent positive signals and y adjacent negative signals. That is, x adjacent output channels of the N number output positive image data, and y adjacent N number output ports output negative image data.
  • N can be set to be the sum of x and y
  • N can be set to be an integer multiple of the sum of x and y. If set to an integer multiple, that is, x + y is an output unit, and the polarity symbol of the output is circulated according to the output unit. For example, if x and y can be set to 4, then 8 output ports are used as one output unit, then N output ports can output "++++----" or "----++" ++" is the polarity symbol for the loop.
  • the first signal transmission channel group can also be implemented by other methods, such as configuring a DAC of the same polarity in the driver, configuring the inverter on some ports after passing through the DAC, and constructing the first signal transmission channel group in this configuration.
  • the N-way image data is passed through the first signal transmission channel group, and the first polarity pattern is outputted at the N-channel output port. Other methods are not described in detail in the embodiments of the present invention.
  • a DAC array including N DACs may also be disposed in the driver, wherein x of the positive DACs are adjacent, y of the negative DACs are adjacent, and N is an integer multiple of a sum of x and y. .
  • a second building module 04 configured to: when the mode detecting module 01 detects that the mode control signal is a low potential signal, construct N pieces of N signals for inputting N input ports of the driver of the liquid crystal display The second signal transmission channel group of the signal transmission channel.
  • the second transmission module 05 is configured to transmit, by using the second signal transmission channel group, an N-way image signal to a display screen of the liquid crystal display to present a second polarity pattern on the display screen.
  • the second building module 04 can construct N lines of image signals for the N input ports of the input driver according to the low potential signal.
  • the second signal transmission channel group of the signal transmission channel passes through the second signal transmission channel group, and the second transmission module 05 can transmit the N channel image signals to the display screen of the liquid crystal display, so that the second polarity pattern can be presented.
  • the second signal transmission channel group can be set up in a plurality of ways, and one of the modes can be:
  • the second building module 04 constructs the second signal transmission channel group according to the above manner, and the second transmission module 05 can output x spaced positive signals and y spaced negative signals.
  • the interval unit may be 1 or an integral multiple of 1.
  • x numbered N output ports output positive image data
  • y numbered even N output ports output negative image data.
  • N can be set to be the sum of x and y
  • N can be set to be an integer multiple of the sum of x and y.
  • the polarity symbol of the output is circulated according to the output unit. For example, if x and y can be set to 1, then two output ports are used as one output unit, and the N output ports can output polarity symbols that are cycled in units of "+-" or "-+".
  • the second signal transmission channel group can also be implemented by other methods, such as configuring a DAC of the same polarity in the driver, configuring an inverter on some ports after passing through the DAC, and constructing a second signal transmission channel group in this configuration.
  • the N-way image data is passed through the second signal transmission channel group, and the second polarity pattern is outputted at the N-channel output port.
  • Other methods are not described in detail in the embodiments of the present invention.
  • the second polarity pattern may include a second positive polarity pattern and a second negative polarity pattern, which may be converted in adjacent frames to avoid polarization of the liquid crystal display.
  • the second positive polarity pattern or the second negative polarity pattern may be output through the polarity control signal. That is, the potential of the polarity control signal is changed every frame, for example, in the Nth frame, the polarity control signal is high, then the second positive polarity pattern can be controlled to be output; at the N+1th frame, the polarity control signal is To be low, the second negative polarity pattern can be controlled to be output.
  • the second positive polarity pattern and the second negative polarity pattern may be implemented by the second signal transmission channel group. For example, when x and y are set to 1 and the number of x output ports on the output port is less than y output ports, if x is set to an odd-numbered output port, y is set to an even-numbered output.
  • the output port outputs a first positive polarity pattern, such as a polarity pattern with a polarity sign of "+-"; when the number of x output ports is set to be greater than the number of y output ports, then The output port outputs a second negative polarity pattern, such as a polarity pattern of polarity symbols in units of "-+".
  • different signal transmission channels can be established for the N image signals input to the N input ports of the driver of the liquid crystal display; through different signal transmission channels An N-way image signal is transmitted to the display screen of the liquid crystal display, and different polarity patterns can be presented on the display screen. Thereby, a plurality of polarity patterns are outputted on the display screen, which satisfies the requirement of the multi-polarity output mode.
  • the device may include a mode detecting module 11, a first building module 12, a second building module 13, a polarity detecting module 14, a first transmitting module 15, and a second transmitting module 16.
  • the mode detecting module 11 is configured to detect a mode control signal.
  • the mode control signal can be detected by the mode detection module 11 to determine the polarity output mode of the driver.
  • the detection mode control signal can be issued by the controller, wherein the controller can issue a mode control signal to control the polarity output mode of the driver.
  • the potential is not Similarly, different signal transmission channel groups can be constructed for the N channel image signals, thereby outputting different polarity patterns to realize the output of the multi-polar mode. For details, refer to the description of the following modules.
  • the first building module 12 is configured to: when the mode detecting module 11 detects that the mode control signal is a high-potential signal, construct N pieces of N-channel image signals for inputting N input ports of the driver of the liquid crystal display The first signal transmission channel group of the signal transmission channel.
  • the first building module 12 may include a first adjacent linking unit 121 and a second adjacent linking unit 122.
  • the first adjacent link unit 121 is configured to link the x input ports of the driver to the input ends of the x positive DACs, and link the output ends of the x positive DACs to the x output ports of the driver, where
  • the driver includes N output ports, and the x output ports are adjacent ones of the N output ports;
  • a second adjacent linking unit 122 configured to link the y input ports of the driver to the input ends of the y negative DACs, and link the output ends of the y negative DACs to the y output ports of the driver, where The y output ports are adjacent y output ports of the N output ports.
  • the first signal transmission channel group is constructed, and x adjacent positive signals and y adjacent negative signals can be output. That is, x adjacent output channels of the N number output positive image data, and y adjacent N number output ports output negative image data.
  • N can be set to be the sum of x and y
  • N can be set to be an integer multiple of the sum of x and y. If set to an integer multiple, that is, x + y is an output unit, and the polarity symbol of the output is circulated according to the output unit. For example, if x and y can be set to 4, then 8 output ports are used as one output unit, then N output ports can output "++++----" or "----++" ++" is the polarity symbol for the loop.
  • the first signal transmission channel group can also be implemented by other methods, such as configuring a DAC of the same polarity in the driver, configuring the inverter on some ports after passing through the DAC, and constructing the first signal transmission channel group in this configuration.
  • the N-way image data is passed through the first signal transmission channel group, and the first polarity pattern is outputted at the N-channel output port. Other methods are not described in detail in the embodiments of the present invention.
  • a DAC array including N DACs may also be disposed in the driver, wherein x of the positive DACs are adjacent, y of the negative DACs are adjacent, and N is an integer multiple of a sum of x and y. .
  • the second building module 13 is configured to: when the mode detecting module detects that the mode control signal is a low potential signal, construct N signals for the N image signals of the N input ports of the driver input to the liquid crystal display The second signal transmission channel group of the transmission channel.
  • the second building module 13 includes a first interval linking unit 131 and a second interval linking unit 132.
  • the first interval linking unit 131 is configured to link the x input ports to the input ends of the x positive DACs, and link the output ends of the x positive DACs to the x output ports of the driver, where
  • the x output ports are x output ports that are mutually spaced among the N output ports;
  • a second interval linking unit 132 configured to link the y input ports of the driver to the input ends of the y negative DACs, and link the output ends of the y negative DACs to the y output ports of the driver, where the y The output ports are y output ports that are mutually spaced among the N output ports.
  • the second signal transmission channel group is constructed, and x spaced positive signal and y spaced negative signal can be output.
  • the interval unit may be 1 or an integral multiple of 1.
  • N can be set to be the sum of x and y
  • N can be set to be an integer multiple of the sum of x and y. If set to an integer multiple, that is, x + y is an output unit, and the polarity symbol of the output is circulated according to the output unit. For example, if x and y can be set to 1, then two output ports are used as one output unit, and the N output ports can output polarity symbols that are cycled in units of "+-" or "-+".
  • the second signal transmission channel group can also be implemented by other methods, such as configuring a DAC of the same polarity in the driver, configuring an inverter on some ports after passing through the DAC, and constructing a second signal transmission channel group in this configuration.
  • the N-way image data is passed through the second signal transmission channel group, and the second polarity pattern is outputted at the N-channel output port.
  • Other methods are not described in detail in the embodiments of the present invention.
  • the polarity detecting module 14 is configured to detect a polarity control signal.
  • a polarity control signal can be issued by the controller described above, and the polarity detection module 14 detects the polarity control signal to control the polarity inversion output of the driver output port. That is, in the Nth frame, the output port can output the positive polarity pattern; in the N+1th frame, the current output polarity of the image data is inverted, and the output port outputs the negative polarity pattern. Thereby avoiding the liquid crystal display Polarization phenomenon.
  • the first polarity pattern may include a first positive polarity pattern and a first negative polarity pattern; and the second polarity pattern may include a second positive polarity pattern and a second negative polarity pattern.
  • the driver first detects the mode control signal, selects the set signal transmission channel group according to the mode control signal, and then selects the polarity control signal to select the positive polarity pattern or the negative polarity pattern in the currently constructed signal transmission channel group.
  • a first transmission module 15 configured to transmit, by using the first signal transmission channel group, an N-way image signal to a display screen of the liquid crystal display to present a first polarity pattern on the display screen, where the N is greater than 1 The integer.
  • the first transmission module 15 includes a first positive transmission unit 151 and a first negative transmission unit 152.
  • the first positive transmission unit 151 is configured to transmit, when the polarity detection module 14 detects that the polarity control signal is a high level, to the display screen of the liquid crystal display by using the first signal transmission channel group. An image signal to present the first positive polarity pattern on the display screen;
  • a first negative transmission unit 152 configured to transmit, by the first signal transmission channel group, an N-channel image signal to the display screen of the liquid crystal display when the polarity detection module 14 detects that the polarity control signal is low
  • the first negative polarity pattern is presented on the display screen.
  • the first signal transmission channel group can be set when the mode control signal is high. After the first signal transmission channel group is set up, the polarity control signal can be detected. Since the polarity control signal often changes the potential level when transmitting a new frame image data, the potential level of the polarity control signal can be detected periodically. If the polarity control signal is detected as a high potential signal, the first positive transmission unit 151 can output N image signals to present a first positive polarity pattern on the display screen. Conversely, the first negative transmission unit 152 can present The first negative polarity pattern. In the embodiment of the present invention, the polarity of the first positive polarity pattern and the first negative polarity pattern are reversed, and the first positive polarity pattern is not the polarity of the N image data. Is the positive electrode.
  • the first positive polarity pattern and the first negative polarity pattern may be implemented by the first signal transmission channel group. For example, when x and y are set to 4 and the number of x output ports on the output port is less than y output ports, if x is set to an output port numbered 1 to 4, y is set to number 5 When the output port is ⁇ 8, the first positive transfer unit 151 outputs a first positive polarity pattern, such as a polarity pattern with a polarity symbol of “++++----”; when x output ports The number is set to large When the number of the output ports is y, the first negative transfer unit 152 outputs a first negative polarity pattern such as a polarity pattern of the polarity symbol in "----++++".
  • the second transmission module 16 is configured to transmit, by using the second signal transmission channel group, an N-way image signal to a display screen of the liquid crystal display to present a second polarity pattern on the display screen.
  • the second transmission module 16 includes a second positive transmission unit 161 and a second negative transmission unit 162.
  • the second positive transmission unit 161 is configured to transmit, when the polarity detecting module 14 detects that the polarity control signal is a high level, to the display screen of the liquid crystal display by using the second signal transmission channel group. An image signal to present the second positive polarity pattern on the display screen;
  • a second negative transmission unit 162 configured to transmit, by the second signal transmission channel group, an N-channel image signal to the display screen of the liquid crystal display when the polarity detection module 14 detects that the polarity control signal is low
  • the second negative polarity pattern is presented on the display screen.
  • a second signal transmission channel group when the mode control signal is low, a second signal transmission channel group can be constructed. After the second signal transmission channel group is set up, the polarity control signal can be detected. Since the polarity control signal often changes the potential level when transmitting a new frame image data, the potential level of the polarity control signal can be detected periodically. If the polarity control signal is detected as a high potential signal, then N road image signals may be output to present a second positive polarity pattern on the display screen, and conversely, a second negative polarity pattern may be presented. In the embodiment of the present invention, the polarity of the second positive polarity pattern and the second negative polarity pattern are reversed, and the second positive polarity pattern is not the polarity of the N way image data. Is the positive electrode.
  • the second positive polarity pattern and the second negative polarity pattern may be implemented by the second signal transmission channel group. For example, when x and y are set to 1 and the number of x output ports on the output port is less than y output ports, if x is set to an odd-numbered output port, y is set to an even-numbered output.
  • the second positive transfer unit 161 outputs a first positive polarity pattern, such as a polarity pattern with a polarity sign of "+-"; when the number of x output ports is set to be larger than y output ports
  • the second negative transfer unit 162 outputs a second negative polarity pattern, such as a polarity pattern with a polarity sign of "-+".
  • the mode control signal by detecting the high potential or the low potential of the mode control signal, different signal transmissions can be established for the N image signals of the N input ports of the driver input to the liquid crystal display.
  • Channel transmits N image signals to the display screen of the liquid crystal display through different signal transmission channels, and can display different polarity patterns on the display screen.
  • a plurality of polarity patterns are outputted on the display screen, which satisfies the requirement of the multi-polarity output mode.
  • FIG. 5 it is a schematic structural view of still another embodiment of a driving device for a liquid crystal display according to the present invention.
  • the apparatus may comprise N input ports 1, N output ports 2, a memory 3, at least one processor 4, such as a CPU, and at least one communication bus 5.
  • the communication bus 5 is used to implement connection communication between the components.
  • the memory 3 may be a high-speed RAM memory or a non-volatile memory, such as at least one disk memory, optionally, the memory 3 It may also be at least one storage device located remotely from the aforementioned processor 4.
  • the N output ports 1 are configured to be connected to a display screen of the liquid crystal display, and transmit the N image signals to the display screen; the memory 3 stores a set of program codes, and the processor 4 calls the The program code stored in the memory 3 is used to perform the following operations:
  • the group transmits an N-way image signal to a display screen of the liquid crystal display to present a first polarity pattern on the display screen, the N being an integer greater than 1;
  • the group transmits an N-way image signal to a display screen of the liquid crystal display to present a second polarity pattern on the display screen.
  • the first polarity pattern includes a first positive polarity pattern and a first negative polarity pattern
  • the second polarity pattern includes a second positive polarity pattern and a second negative polarity pattern
  • the processor 4 calls the program code stored in the memory 3, and is also used to perform the following operations:
  • the processor 4 transmits an N-way image signal to the display screen of the liquid crystal display by using the first signal transmission channel group to present a first polarity pattern on the display screen, specifically:
  • the processor 4 transmits an N-way image signal to the display screen of the liquid crystal display by using the second signal transmission channel group to present a second polarity pattern on the display screen, specifically:
  • the processor 4 transmits an N-way image signal to the display screen of the liquid crystal display by using the first signal transmission channel group to present a first polarity pattern on the display screen, specifically:
  • the processor 4 transmits an N-way image signal to the display screen of the liquid crystal display by using the second signal transmission channel group to present a second polarity pattern on the display screen, specifically:
  • the apparatus further includes a first multiplexer, a second multiplexer, and a DAC array, wherein the processor 4 constructs a first signal including N signal transmission channels for the N image signals.
  • the transmission channel group includes:
  • the processor 4 constructs a second signal transmission channel group including N signal transmission channels for the N-channel image signals, including:
  • x of the positive DACs are adjacent in the DAC array, and y of the negative DACs are adjacent, and N is an integer multiple of the sum of x and y.
  • different signal transmission channels can be established for the N image signals input to the N input ports of the driver of the liquid crystal display; through different signal transmission channels An N-way image signal is transmitted to the display screen of the liquid crystal display, and different polarity patterns can be presented on the display screen. Thereby, a plurality of polarity patterns are outputted on the display screen, which satisfies the requirement of the multi-polarity output mode.
  • the device embodiments described above are merely illustrative, wherein the units described as separate components may or may not be physically separate, and the components displayed as units may or may not be physical units, ie may be located A place, or it can be distributed to multiple network units. Some or all of the modules may be selected according to actual needs to achieve the purpose of the solution of the embodiment. Those of ordinary skill in the art can understand and implement without deliberate labor.
  • the unit or subunit in the terminal or the device in the embodiment of the present invention may be combined, divided, and deleted according to actual needs.

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Abstract

一种液晶显示器的驱动方法及装置，该方法包括检测模式控制信号（S101）；当模式控制信号为高电位信号时，为输入所述液晶显示器的驱动器的N个输入端口（1）的N路图像信号搭建包含N条信号传输通道的第一信号传输通道组，利用所述第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第一极性图案（S102）；当模式控制信号为低电位信号时，为输入所述液晶显示器的驱动器的N个输入端口（1）的N路图像信号搭建包含N条信号传输通道的第二信号传输通道组，利用所述第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第二极性图案（S103）。可在显示屏上输出多种极性图案，满足了多极性输出方式的需求。

Description

一种液晶显示器的驱动方法及装置
本发明要求2015年7月29日递交的发明名称为“一种液晶显示器的驱动方法及装置”的申请号201510455854.3的在先申请优先权，上述在先申请的内容以引入的方式并入本文本中。
技术领域
本发明涉及电子电路技术领域，尤其涉及一种液晶显示器的驱动方法及装置。
背景技术
目前，薄膜晶体管液晶显示屏(简称：TFT-LCD)被广泛应用在用户终端上，如笔记本电脑、台式机、或手机、平板电脑等手持终端上。当前的TFT-LCD在驱动过程中会出现液晶极化现象，即在显示第二帧图像时，会存在第一帧图像的残影。为了避免该现象，数据源驱动器(英文：Data Driver)引入了正负极性切换的技术，即每一个子像素(英文：Sub-pixel)的相邻两帧分别用不同极性的电压进行驱动，导致液晶电容的极性不断切换，从而可避免液晶极化现象。目前，为实现此技术，驱动芯片中普遍配置一个通道对应一个数字模拟转换电路(英文：Digital to Analog Conversion，简称：DAC)，相邻两个通道配置的DAC极性相反，如通道1配置+DAC，通道2配置-DAC。在多路复用器(英文：Multiplexer)中可配置不同的数据链路模式，其中，可通过模式控制信号控制数据链路模式。通道中的数据可根据多路复用器配置的数据链路模式通过同相DAC或反相DAC，从而可实现多个通道输出极性交替的数据，即可输出极性为“+-+-+-……”。
然而，随着显像技术的不断更新，目前对极性输出方式有更多的需求，如多通道需要输出极性为“++++----++++----……”时，若通过更改当前数据源驱动器的电路配置，来实现上述极性输出，成本较高，并且由于当前驱动器的芯片尺寸精简的很小，很难增加新的模块实现上述极性输出。仅通过数据源驱动器目前的配置输出极性的方式单一，无法满足多极性输出方式的需求。
发明内容
本发明实施例提供了一种液晶显示器的驱动方法及装置。采用本发明实施例，可在显示屏上输出多种极性图案，满足了多极性输出方式的需求。
一方面，本发明的实施例提供了一种液晶显示器的驱动方法。该方法可包括以下步骤：
检测模式控制信号；
当检测到所述模式控制信号为高电位信号时，为输入所述液晶显示器的驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通道的第一信号传输通道组，利用所述第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第一极性图案，所述N为大于1的整数；
当检测到所述模式控制信号为低电位信号时，为输入所述液晶显示器的驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通道的第二信号传输通道组，利用所述第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第二极性图案。
作为可选的实施例，所述第一极性图案包括第一正极极性图案及第一负极极性图案，所述第二极性图案包括第二正极极性图案及第二负极极性图案；
所述方法还包括：
检测极性控制信号；
当检测到所述极性控制信号为高电位信号时，
所述利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第一极性图案，具体为：
利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第一正极极性图案；或
所述利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第二极性图案，具体为：
利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第二正极极性图案；
当检测到所述极性控制信号为低电位信号时，
所述利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像 信号以在所述显示屏上呈现第一极性图案，具体为：
利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第一负极极性图案；或
所述利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第二极性图案，具体为：
利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第二负极极性图案。
作为可选的实施例，所述驱动器包括N个输出端口，所述为N路图像信号搭建包含N条信号传输通道的第一信号传输通道组包括：
将驱动器的x个输入端口链接至x个正极DAC的输入端，将所述x个正极DAC的输出端链接至驱动器的x个输出端口，其中，所述x个输出端口为所述N个输出端口中的相邻x个输出端口；
将驱动器的y个输入端口链接至y个负极DAC的输入端，将所述y个负极DAC的输出端链接至驱动器的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相邻y个输出端口。
作为可选的实施例，所述为N路图像信号搭建包含N条信号传输通道的第二信号传输通道组包括：
将驱动器的x个输入端口链接至x个正极DAC的输入端，将所述x个正极DAC的输出端链接至驱动器的x个输出端口，其中，所述x个输出端口为所述N个输出端口中的相互间隔的x个输出端口；
将驱动器的y个输入端口链接至y个负极DAC的输入端，将所述y个负极DAC的输出端链接至驱动器的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相互间隔的y个输出端口。
作为可选的实施例，所述方法还包括：
设置包含N个DAC的DAC阵列，其中，x个所述正极DAC相邻，y个所述负极DAC相邻，N为x与y之和的整数倍。
另一方面，本发明的实施例提供了一种液晶显示器的驱动装置。该装置包括以下模块：
模式检测模块，用于检测模式控制信号；
第一搭建模块，用于当所述模式检测模块检测到所述模式控制信号为高电位信号时，为输入所述液晶显示器的驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通道的第一信号传输通道组；
第一传输模块，用于利用所述第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第一极性图案，所述N为大于1的整数；
第二搭建模块，用于当所述模式检测模块检测到所述模式控制信号为低电位信号时，为输入所述液晶显示器的驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通道的第二信号传输通道组；
第二传输模块，用于利用所述第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第二极性图案。
作为可选的实施例，所述第一极性图案包括第一正极极性图案及第一负极极性图案，所述第二极性图案包括第二正极极性图案及第二负极极性图案；所述装置还包括：
极性检测模块，用于检测极性控制信号；
其中，所述第一传输模块包括：
第一正极传输单元，用于当所述极性检测模块检测到所述极性控制信号为高电平时，利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第一正极极性图案；
第一负极传输单元，用于当所述极性检测模块检测到所述极性控制信号为低电平时，利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第一负极极性图案；
所述第二传输模块包括：
第二正极传输单元，用于当所述极性检测模块检测到所述极性控制信号为高电平时，利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第二正极极性图案；
第二负极传输单元，用于当所述极性检测模块检测到所述极性控制信号为低电平时，利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第二负极极性图案。
作为可选的实施例，所述第一搭建模块包括：
第一相邻链接单元，用于将驱动器的x个输入端口链接至x个正极DAC的输入端，将所述x个正极DAC的输出端链接至驱动器的x个输出端口，其中，所述驱动器包括N个输出端口，所述x个输出端口为所述N个输出端口中的相邻x个输出端口；
第二相邻链接单元，用于将驱动器的y个输入端口链接至y个负极DAC的输入端，将所述y个负极DAC的输出端链接至驱动器的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相邻y个输出端口。
作为可选的实施例，所述第二搭建模块包括：
第一间隔链接单元，用于将所述x个输入端口链接至所述x个正极DAC的输入端，将所述x个正极DAC的输出端链接至驱动器的x个输出端口，其中，所述x个输出端口为所述N个输出端口中的相互间隔的x个输出端口；
第二间隔链接单元，用于将驱动器的y个输入端口链接至y个负极DAC的输入端，将所述y个负极DAC的输出端链接至驱动器的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相互间隔的y个输出端口。
作为可选的实施例，所述装置还包括：
设置模块，用于设置包含N个DAC的DAC阵列，其中，x个所述正极DAC相邻，y个所述负极DAC相邻，N为x与y之和的整数倍。
又一方面，本发明的实施例还提供了一种液晶显示器的驱动装置。该装置包括存储器、处理器、N个输入端口及N个输出端口，其中：
所述N个输入端口用于输入N路图像信号；
所述N个输出端口用于与所述液晶显示器的显示屏连接，向所述显示屏传输所述N路图像信号；
所述存储器中存储一组程序代码；
所述处理器调用所述存储器中存储的程序代码，用于执行以下操作：
检测模式控制信号；
当检测到所述模式控制信号为高电位信号时，为输入所述N个输入端口的N路图像信号搭建包含N条信号传输通道的第一信号传输通道组，利用所述第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所 述显示屏上呈现第一极性图案，所述N为大于1的整数；
当检测到所述模式控制信号为低电位信号时，为输入所述N个输入端口的N路图像信号搭建包含N条信号传输通道的第二信号传输通道组，利用所述第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第二极性图案。
作为可选的实施例，所述第一极性图案包括第一正极极性图案及第一负极极性图案，所述第二极性图案包括第二正极极性图案及第二负极极性图案；
所述处理器调用所述存储器中存储的程序代码，还用于执行以下操作：
检测极性控制信号；
当检测到所述极性控制信号为高电位信号时，
所述处理器利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第一极性图案，具体为：
利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第一正极极性图案；或
所述处理器利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第二极性图案，具体为：
利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第二正极极性图案；
当检测到所述极性控制信号为低电位信号时，
所述处理器利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第一极性图案，具体为：
利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第一负极极性图案；或
所述处理器利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第二极性图案，具体为：
利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第二负极极性图案。
作为可选的实施例，所述装置还包括第一复用器、第二复用器及DAC阵列，其中，所述处理器为N路图像信号搭建包含N条信号传输通道的第一信 号传输通道组包括：
利用所述第一复用器将所述N个输入端口中的x个输入端口链接至所述DAC阵列中的x个正极DAC的输入端，利用所述第二复用器将所述x个正极DAC的输出端链接至所述N个输出端口中的x个输出端口，其中，所述x个输出端口为所述N个输出端口中的相邻x个输出端口；
利用所述第一复用器将所述N个输入端口中的y个输入端口链接至所述DAC阵列中的y个负极DAC的输入端，将所述y个负极DAC的输出端链接至所述N个输出端口中的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相邻y个输出端口。
作为可选的实施例，所述处理器为N路图像信号搭建包含N条信号传输通道的第二信号传输通道组包括：
利用所述第一复用器将所述N个输入端口中的x个输入端口链接至所述DAC阵列中的x个正极DAC的输入端，将所述x个正极DAC的输出端链接至所述N个输出端口中的x个输出端口，其中，所述x个输出端口为所述N个输出端口中的相互间隔的x个输出端口；
利用所述第一复用器将所述N个输入端口中的y个输入端口链接至所述DAC阵列中的y个负极DAC的输入端，将所述y个负极DAC的输出端链接至所述N个输出端口中的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相互间隔的y个输出端口。
作为可选的实施例，所述DAC阵列中x个所述正极DAC相邻，y个所述负极DAC相邻，N为x与y之和的整数倍。
本发明实施例中，通过检测到的模式控制信号的高电位或低电位，可为输入液晶显示器的驱动器的N个输入端口的N路图像信号搭建不同的信号传输通道；通过不同的信号传输通道向液晶显示器的显示屏传输N路图像信号，能够在显示屏上呈现不同的极性图案。从而实现了在显示屏上输出多种极性图案，满足了多极性输出方式的需求。
附图说明
为了更清楚地说明本发明实施例或现有技术中的技术方案，下面将对实施 例或现有技术描述中所需要使用的附图作简单地介绍，显而易见地，下面描述中的附图仅仅是本发明的一些实施例，对于本领域普通技术人员来讲，在不付出创造性劳动的前提下，还可以根据这些附图获得其他的附图。
图1是本发明中的一种液晶显示器的驱动方法的一实施例的流程图；
图2是本发明中的一种液晶显示器的驱动方法的另一实施例的流程图；
图3是本发明中的一种液晶显示器的驱动装置的一实施例的结构示意图；
图4是本发明中的一种液晶显示器的驱动装置的另一实施例的结构示意图；
图5是本发明中的一种液晶显示器的驱动装置的又一实施例的结构示意图。
具体实施方式
下面将结合本发明实施例中的附图，对本发明实施例中的技术方案进行清楚、完整地描述，显然，所描述的实施例仅仅是本发明一部分实施例，而不是全部的实施例。基于本发明中的实施例，本领域普通技术人员在没有做出创造性劳动前提下所获得的所有其他实施例，都属于本发明保护的范围。
下面参考附图对本发明的实施例进行描述。参见图1，为本发明中的一种液晶显示器的驱动方法的一实施例的流程图。该方法可包括以下步骤。
步骤S101，检测模式控制信号。
在一个实施例中，可通过检测模式控制信号，来确定驱动器的极性输出模式。该检测模式控制信号可由控制器发出，其中该控制器可发出模式控制信号以控制驱动器的极性输出模式。根据模式控制信号的电位不同，可为N路图像信号搭建不同的信号传输通道组，从而会输出不同的极性图案，实现多极性模式的输出。具体方式可参照步骤S102及步骤S103。
步骤S102，当检测到所述模式控制信号为高电位信号时，为输入所述液晶显示器的驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通道的第一信号传输通道组，利用所述第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第一极性图案，所述N为大于1的整数。
在一个实施例中，当检测到模式控制信号为高电位时，则可根据高电位信号，为输入驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通道的第一信号传输通道组，通过第一信号传输通道组，可将N路图像信号传输至液晶显示器的显示屏，从而可呈现第一极性图案。
具体的，第一信号传输通道组可通过多种方式搭建，方式的其中之一可为：将驱动器的x个输入端口链接至x个正极DAC的输入端，将所述x个正极DAC的输出端链接至驱动器的x个输出端口，其中，所述x个输出端口为所述N个输出端口中的相邻x个输出端口；将驱动器的y个输入端口链接至y个负极DAC的输入端，将所述y个负极DAC的输出端链接至驱动器的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相邻y个输出端口。
根据上述方式搭建第一信号传输通道组，则可输出x个相邻的正极信号及y个相邻的负极信号。即x个相邻编号的N路输出端口输出正极的图像数据，y个相邻编号的N路输出端口输出负极的图像数据。其中，可设置N为x与y的总和，也可设置N为x与y的总和的整数倍。若设置为整数倍时，即以x+y为一个输出单位，输出的极性符号按照该输出单位进行循环。举个例子，x、y可被设置为4，则以8个输出端口为一个输出单位，则N路输出端口能够输出以“++++----”或“----++++”为单位进行循环的极性符号。
第一信号传输通道组也可通过其他方式实现，如在驱动器中均配置相同极性的DAC，在通过DAC后在某些端口配置反相器，在此配置下搭建第一信号传输通道组，使N路图像数据通过第一信号传输通道组后在N路输出端口输出第一极性图案。其他方法在本发明实施例中不做详细描述。
可选的，第一极性图案可包括第一正极极性图案及第一负极极性图案，其可在相邻帧内进行转换，从而避免液晶显示屏的极化现象。具体的，可通过上述极性控制信号控制输出第一正极极性图案或第一负极极性图案。即在每一帧变化极性控制信号的电位，如在第N帧，极性控制信号为高电位，则可控制输出第一正极极性图案；在第N+1帧时，极性控制信号为低电位，则可控制输出第一负极极性图案。
上述第一正极极性图案及第一负极极性图案均可通过第一信号传输通道组实现。举个例子，当x、y被设置为4时且在输出端口x个输出端口的编号 小于y个输出端口，如x被设置为编号为1～4的输出端口，y被设置为编号为5～8的输出端口时，则输出端口输出第一正极极性图案，如以“++++----”为单位极性符号的极性图案；当x个输出端口的编号被设置为大于y个输出端口的编号时，则输出端口输出第一负极极性图案，如以“----++++”为单位极性符号的极性图案。
步骤S103，当检测到所述模式控制信号为低电位信号时，为输入所述液晶显示器的驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通道的第二信号传输通道组，利用所述第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第二极性图案。
在一个实施例中，当检测到模式控制信号为低电位时，则可根据低电位信号，为输入驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通道的第二信号传输通道组，通过第二信号传输通道组，可将N路图像信号传输至液晶显示器的显示屏，从而可呈现第二极性图案。
具体的，第二信号传输通道组可通过多种方式搭建，方式的其中之一可为：
将驱动器的x个输入端口链接至x个正极DAC的输入端，将所述x个正极DAC的输出端链接至驱动器的x个输出端口，其中，所述x个输出端口为所述N个输出端口中的相互间隔的x个输出端口；将驱动器的y个输入端口链接至y个负极DAC的输入端，将所述y个负极DAC的输出端链接至驱动器的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相互间隔的y个输出端口。
根据上述方式搭建第二信号传输通道组，则可输出x个相间隔的正极信号及y个相间隔的负极信号。该间隔单位可为1，也可为1的整数倍。如x个编号为奇数的N路输出端口输出正极的图像数据，y个编号为偶数的N路输出端口输出负极的图像数据。其中，可设置N为x与y的总和，也可设置N为x与y的总和的整数倍。若设置为整数倍时，即以x+y为一个输出单位，输出的极性符号按照该输出单位进行循环。举个例子，x、y可被设置为1，则以2个输出端口为一个输出单位，则N路输出端口能够输出以“+-”或“-+”为单位进行循环的极性符号。
第二信号传输通道组也可通过其他方式实现，如在驱动器中均配置相同极 性的DAC，在通过DAC后在某些端口配置反相器，在此配置下搭建第二信号传输通道组，使N路图像数据通过第二信号传输通道组后在N路输出端口输出第二极性图案。其他方法在本发明实施例中不做详细描述。
可选的，第二极性图案可包括第二正极极性图案及第二负极极性图案，其可在相邻帧内进行转换，从而避免液晶显示屏的极化现象。具体的，可通过上述极性控制信号控制输出第二正极极性图案或第二负极极性图案。即在每一帧变化极性控制信号的电位，如在第N帧，极性控制信号为高电位，则可控制输出第二正极极性图案；在第N+1帧时，极性控制信号为低电位，则可控制输出第二负极极性图案。
上述第二正极极性图案及第二负极极性图案均可通过第二信号传输通道组实现。举个例子，当x、y被设置为1时且在输出端口x个输出端口的编号小于y个输出端口，如x被设置为编号为奇数的输出端口，y被设置为编号为偶数的输出端口时，则输出端口输出第一正极极性图案，如以“+-”为单位极性符号的极性图案；当x个输出端口的编号被设置为大于y个输出端口的编号时，则输出端口输出第二负极极性图案，如以“-+”为单位极性符号的极性图案。
本发明实施例中，通过检测到的模式控制信号的高电位或低电位，可为输入液晶显示器的驱动器的N个输入端口的N路图像信号搭建不同的信号传输通道；通过不同的信号传输通道向液晶显示器的显示屏传输N路图像信号，能够在显示屏上呈现不同的极性图案。从而实现了在显示屏上输出多种极性图案，满足了多极性输出方式的需求。
参见图2，为本发明中的一种液晶显示器的驱动方法的另一实施例的流程图。该方法可包括以下步骤。
步骤S201，检测模式控制信号。
在一个实施例中，可通过检测模式控制信号，来确定驱动器的极性输出模式。该检测模式控制信号可由控制器发出，其中该控制器可发出模式控制信号以控制驱动器的极性输出模式。根据模式控制信号的电位不同，可为N路图像信号搭建不同的信号传输通道组，从而会输出不同的极性图案，实现多极性模式的输出。具体方式可参照步骤S202及步骤S203。
步骤S202，当检测到所述模式控制信号为高电位信号时，为输入所述液晶显示器的驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通道的第一信号传输通道组。
在一个实施例中，当检测到模式控制信号为高电位时，则可根据高电位信号，为输入驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通道的第一信号传输通道组。
具体的，第一信号传输通道组可通过多种方式搭建，方式的其中之一可为：将驱动器的x个输入端口链接至x个正极DAC的输入端，将所述x个正极DAC的输出端链接至驱动器的x个输出端口，其中，所述x个输出端口为所述N个输出端口中的相邻x个输出端口；将驱动器的y个输入端口链接至y个负极DAC的输入端，将所述y个负极DAC的输出端链接至驱动器的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相邻y个输出端口。
根据上述方式搭建第一信号传输通道组，则可输出x个相邻的正极信号及y个相邻的负极信号。即x个相邻编号的N路输出端口输出正极的图像数据，y个相邻编号的N路输出端口输出负极的图像数据。其中，可设置N为x与y的总和，也可设置N为x与y的总和的整数倍。若设置为整数倍时，即以x+y为一个输出单位，输出的极性符号按照该输出单位进行循环。举个例子，x、y可被设置为4，则以8个输出端口为一个输出单位，则N路输出端口能够输出以“++++----”或“----++++”为单位进行循环的极性符号。
第一信号传输通道组也可通过其他方式实现，如在驱动器中均配置相同极性的DAC，在通过DAC后在某些端口配置反相器，在此配置下搭建第一信号传输通道组，使N路图像数据通过第一信号传输通道组后在N路输出端口输出第一极性图案。其他方法在本发明实施例中不做详细描述。
本发明实施例中，也可在驱动器中设置包含N个DAC的DAC阵列，其中，x个所述正极DAC相邻，y个所述负极DAC相邻，N为x与y之和的整数倍。通过上述设置的DAC阵列，可在不改变当前驱动器配置的DAC的数量下，能够更容易搭建第一信号传输通道组。
步骤S203，当检测到所述模式控制信号为低电位信号时，为输入所述液晶显示器的驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通 道的第二信号传输通道组。
在一个实施例中，当检测到模式控制信号为低电位时，则可根据低电位信号，为输入驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通道的第二信号传输通道组。
具体的，第二信号传输通道组可通过多种方式搭建，方式的其中之一可为：
将驱动器的x个输入端口链接至x个正极DAC的输入端，将所述x个正极DAC的输出端链接至驱动器的x个输出端口，其中，所述x个输出端口为所述N个输出端口中的相互间隔的x个输出端口；将驱动器的y个输入端口链接至y个负极DAC的输入端，将所述y个负极DAC的输出端链接至驱动器的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相互间隔的y个输出端口。
根据上述方式搭建第二信号传输通道组，则可输出x个相间隔的正极信号及y个相间隔的负极信号。该间隔单位可为1，也可为1的整数倍。如x个编号为奇数的N路输出端口输出正极的图像数据，y个编号为偶数的N路输出端口输出负极的图像数据。其中，可设置N为x与y的总和，也可设置N为x与y的总和的整数倍。若设置为整数倍时，即以x+y为一个输出单位，输出的极性符号按照该输出单位进行循环。举个例子，x、y可被设置为1，则以2个输出端口为一个输出单位，则N路输出端口能够输出以“+-”或“-+”为单位进行循环的极性符号。
第二信号传输通道组也可通过其他方式实现，如在驱动器中均配置相同极性的DAC，在通过DAC后在某些端口配置反相器，在此配置下搭建第二信号传输通道组，使N路图像数据通过第二信号传输通道组后在N路输出端口输出第二极性图案。其他方法在本发明实施例中不做详细描述。
步骤S204，检测极性控制信号。
在一个实施例中，可通过上述控制器发出极性控制信号以控制驱动器输出端口的极性反转输出。即在第N帧时，可使输出端口输出正极极性图案；在第N+1帧时，对图像数据的当前的输出极性进行反转，时输出端口输出负极极性图案。从而可避免液晶显示屏的极化现象。本发明实施例中，第一极性图案可包括第一正极极性图案与第一负极极性图案；第二极性图案可包括第二正 极极性图案与第二负极极性图案。驱动器首先检测模式控制信号，根据模式控制信号选择搭建信号传输通道组，接着可在检测极性控制信号，选择在当前搭建的信号传输通道组中输出正极极性图案或负极极性图案。
步骤S205，当检测到所述极性控制信号为高电位信号时，利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第一正极极性图案。
步骤S206，当检测到所述极性控制信号为低电位信号时，利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第一负极极性图案。
在一个实施例中，当模式控制信号为高电平时，可搭建第一信号传输通道组。在搭建好第一信号传输通道组后，可检测极性控制信号，由于极性控制信号常在传输新的一帧图像数据时变化电位高低，则可定时检测该极性控制信号的电位高低，若检测到极性控制信号为高电位信号时，则可输出N路图像信号以在显示屏上呈现第一正极极性图案，相反，则可呈现第一负极极性图案。需要注意的时，本发明实施例中所述第一正极极性图案与第一负极极性图案所携带的极性为反转关系，第一正极极性图案并非N路图像数据的极性均为正极。
上述第一正极极性图案及第一负极极性图案均可通过第一信号传输通道组实现。举个例子，当x、y被设置为4时且在输出端口x个输出端口的编号小于y个输出端口，如x被设置为编号为1～4的输出端口，y被设置为编号为5～8的输出端口时，则输出端口输出第一正极极性图案，如以“++++----”为单位极性符号的极性图案；当x个输出端口的编号被设置为大于y个输出端口的编号时，则输出端口输出第一负极极性图案，如以“----++++”为单位极性符号的极性图案。
步骤S207，当检测到所述极性控制信号为高电位信号时，利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第二正极极性图案。
步骤S208，利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第二负极极性图案。
在一个实施例中，当模式控制信号为低电平时，可搭建第二信号传输通道组。在搭建好第二信号传输通道组后，可检测极性控制信号，由于极性控制信号常在传输新的一帧图像数据时变化电位高低，则可定时检测该极性控制信号的电位高低，若检测到极性控制信号为高电位信号时，则可输出N路图像信号以在显示屏上呈现第二正极极性图案，相反，则可呈现第二负极极性图案。需要注意的时，本发明实施例中所述第二正极极性图案与第二负极极性图案所携带的极性为反转关系，第二正极极性图案并非N路图像数据的极性均为正极。
上述第二正极极性图案及第二负极极性图案均可通过第二信号传输通道组实现。举个例子，当x、y被设置为1时且在输出端口x个输出端口的编号小于y个输出端口，如x被设置为编号为奇数的输出端口，y被设置为编号为偶数的输出端口时，则输出端口输出第一正极极性图案，如以“+-”为单位极性符号的极性图案；当x个输出端口的编号被设置为大于y个输出端口的编号时，则输出端口输出第二负极极性图案，如以“-+”为单位极性符号的极性图案。
本发明实施例中，通过检测到的模式控制信号的高电位或低电位，可为输入液晶显示器的驱动器的N个输入端口的N路图像信号搭建不同的信号传输通道；通过不同的信号传输通道向液晶显示器的显示屏传输N路图像信号，能够在显示屏上呈现不同的极性图案。从而实现了在显示屏上输出多种极性图案，满足了多极性输出方式的需求。
参见图3，为本发明中的一种液晶显示器的驱动装置的一实施例的结构示意图。该装置可包括模式检测模块01、第一搭建模块02、第一传输模块03、第二搭建模块04、第二传输模块05。
其中，模式检测模块01，用于检测模式控制信号。
在一个实施例中，可通过模式检测模块01检测模式控制信号，来确定驱动器的极性输出模式。该检测模式控制信号可由控制器发出，其中该控制器可发出模式控制信号以控制驱动器的极性输出模式。根据模式控制信号的电位不同，可为N路图像信号搭建不同的信号传输通道组，从而会输出不同的极性图案，实现多极性模式的输出。具体方式可参照以下模块。
第一搭建模块02，用于当所述模式检测模块01检测到所述模式控制信号为高电位信号时，为输入所述液晶显示器的驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通道的第一信号传输通道组。
第一传输模块03，用于利用所述第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第一极性图案，所述N为大于1的整数。
在一个实施例中，当模式检测模块01检测到模式控制信号为高电位时，则可根据高电位信号，第一搭建模块02为输入驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通道的第一信号传输通道组。通过第一信号传输通道组，第一传输模块03可将N路图像信号传输至液晶显示器的显示屏，从而可呈现第一极性图案。
具体的，第一信号传输通道组可通过多种方式搭建，方式的其中之一可为：将驱动器的x个输入端口链接至x个正极DAC的输入端，将所述x个正极DAC的输出端链接至驱动器的x个输出端口，其中，所述x个输出端口为所述N个输出端口中的相邻x个输出端口；将驱动器的y个输入端口链接至y个负极DAC的输入端，将所述y个负极DAC的输出端链接至驱动器的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相邻y个输出端口。
第一搭建模块02根据上述方式搭建第一信号传输通道组，则第一传输模块03可输出x个相邻的正极信号及y个相邻的负极信号。即x个相邻编号的N路输出端口输出正极的图像数据，y个相邻编号的N路输出端口输出负极的图像数据。其中，可设置N为x与y的总和，也可设置N为x与y的总和的整数倍。若设置为整数倍时，即以x+y为一个输出单位，输出的极性符号按照该输出单位进行循环。举个例子，x、y可被设置为4，则以8个输出端口为一个输出单位，则N路输出端口能够输出以“++++----”或“----++++”为单位进行循环的极性符号。
第一信号传输通道组也可通过其他方式实现，如在驱动器中均配置相同极性的DAC，在通过DAC后在某些端口配置反相器，在此配置下搭建第一信号传输通道组，使N路图像数据通过第一信号传输通道组后在N路输出端口输出第一极性图案。其他方法在本发明实施例中不做详细描述。
本发明实施例中，也可在驱动器中设置包含N个DAC的DAC阵列，其中，x个所述正极DAC相邻，y个所述负极DAC相邻，N为x与y之和的整数倍。通过上述设置的DAC阵列，可在不改变当前驱动器配置的DAC的数量下，能够更容易搭建第一信号传输通道组。
第二搭建模块04，用于当所述模式检测模块01检测到所述模式控制信号为低电位信号时，为输入所述液晶显示器的驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通道的第二信号传输通道组。
第二传输模块05，用于利用所述第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第二极性图案。
在一个实施例中，当模式检测模块01检测到模式控制信号为低电位时，则可根据低电位信号，第二搭建模块04为输入驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通道的第二信号传输通道组，通过第二信号传输通道组，第二传输模块05可将N路图像信号传输至液晶显示器的显示屏，从而可呈现第二极性图案。
具体的，第二信号传输通道组可通过多种方式搭建，方式的其中之一可为：
将驱动器的x个输入端口链接至x个正极DAC的输入端，将所述x个正极DAC的输出端链接至驱动器的x个输出端口，其中，所述x个输出端口为所述N个输出端口中的相互间隔的x个输出端口；将驱动器的y个输入端口链接至y个负极DAC的输入端，将所述y个负极DAC的输出端链接至驱动器的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相互间隔的y个输出端口。
第二搭建模块04根据上述方式搭建第二信号传输通道组，则第二传输模块05可输出x个相间隔的正极信号及y个相间隔的负极信号。该间隔单位可为1，也可为1的整数倍。如x个编号为奇数的N路输出端口输出正极的图像数据，y个编号为偶数的N路输出端口输出负极的图像数据。其中，可设置N为x与y的总和，也可设置N为x与y的总和的整数倍。若设置为整数倍时，即以x+y为一个输出单位，输出的极性符号按照该输出单位进行循环。举个例子，x、y可被设置为1，则以2个输出端口为一个输出单位，则N路输出端口能够输出以“+-”或“-+”为单位进行循环的极性符号。
第二信号传输通道组也可通过其他方式实现，如在驱动器中均配置相同极性的DAC，在通过DAC后在某些端口配置反相器，在此配置下搭建第二信号传输通道组，使N路图像数据通过第二信号传输通道组后在N路输出端口输出第二极性图案。其他方法在本发明实施例中不做详细描述。
可选的，第二极性图案可包括第二正极极性图案及第二负极极性图案，其可在相邻帧内进行转换，从而避免液晶显示屏的极化现象。具体的，可通过上述极性控制信号控制输出第二正极极性图案或第二负极极性图案。即在每一帧变化极性控制信号的电位，如在第N帧，极性控制信号为高电位，则可控制输出第二正极极性图案；在第N+1帧时，极性控制信号为低电位，则可控制输出第二负极极性图案。
上述第二正极极性图案及第二负极极性图案均可通过第二信号传输通道组实现。举个例子，当x、y被设置为1时且在输出端口x个输出端口的编号小于y个输出端口，如x被设置为编号为奇数的输出端口，y被设置为编号为偶数的输出端口时，则输出端口输出第一正极极性图案，如以“+-”为单位极性符号的极性图案；当x个输出端口的编号被设置为大于y个输出端口的编号时，则输出端口输出第二负极极性图案，如以“-+”为单位极性符号的极性图案。
本发明实施例中，通过检测到的模式控制信号的高电位或低电位，可为输入液晶显示器的驱动器的N个输入端口的N路图像信号搭建不同的信号传输通道；通过不同的信号传输通道向液晶显示器的显示屏传输N路图像信号，能够在显示屏上呈现不同的极性图案。从而实现了在显示屏上输出多种极性图案，满足了多极性输出方式的需求。
参见图4，为为本发明中的一种液晶显示器的驱动装置的一实施例的结构示意图。该装置可包括模式检测模块11、第一搭建模块12、第二搭建模块13、极性检测模块14、第一传输模块15及第二传输模块16。
其中，模式检测模块11，用于检测模式控制信号。
在一个实施例中，可通过模式检测模块11检测模式控制信号，来确定驱动器的极性输出模式。该检测模式控制信号可由控制器发出，其中该控制器可发出模式控制信号以控制驱动器的极性输出模式。根据模式控制信号的电位不 同，可为N路图像信号搭建不同的信号传输通道组，从而会输出不同的极性图案，实现多极性模式的输出。具体方式可参照下述模块的描述。
第一搭建模块12，用于当所述模式检测模块11检测到所述模式控制信号为高电位信号时，为输入所述液晶显示器的驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通道的第一信号传输通道组。
本发明实施例中，第一搭建模块12可包括第一相邻链接单元121、第二相邻链接单元122。
其中，第一相邻链接单元121，用于将驱动器的x个输入端口链接至x个正极DAC的输入端，将所述x个正极DAC的输出端链接至驱动器的x个输出端口，其中，所述驱动器包括N个输出端口，所述x个输出端口为所述N个输出端口中的相邻x个输出端口；
第二相邻链接单元122，用于将驱动器的y个输入端口链接至y个负极DAC的输入端，将所述y个负极DAC的输出端链接至驱动器的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相邻y个输出端口。
根据上述单元搭建第一信号传输通道组，则可输出x个相邻的正极信号及y个相邻的负极信号。即x个相邻编号的N路输出端口输出正极的图像数据，y个相邻编号的N路输出端口输出负极的图像数据。其中，可设置N为x与y的总和，也可设置N为x与y的总和的整数倍。若设置为整数倍时，即以x+y为一个输出单位，输出的极性符号按照该输出单位进行循环。举个例子，x、y可被设置为4，则以8个输出端口为一个输出单位，则N路输出端口能够输出以“++++----”或“----++++”为单位进行循环的极性符号。
第一信号传输通道组也可通过其他方式实现，如在驱动器中均配置相同极性的DAC，在通过DAC后在某些端口配置反相器，在此配置下搭建第一信号传输通道组，使N路图像数据通过第一信号传输通道组后在N路输出端口输出第一极性图案。其他方法在本发明实施例中不做详细描述。
本发明实施例中，也可在驱动器中设置包含N个DAC的DAC阵列，其中，x个所述正极DAC相邻，y个所述负极DAC相邻，N为x与y之和的整数倍。通过上述设置的DAC阵列，可在不改变当前驱动器配置的DAC的数量下，能够更容易搭建第一信号传输通道组。
第二搭建模块13，用于当所述模式检测模块检测到所述模式控制信号为低电位信号时，为输入所述液晶显示器的驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通道的第二信号传输通道组。
本发明实施例中，第二搭建模块13包括第一间隔链接单元131及第二间隔链接单元132。
其中，第一间隔链接单元131，用于将所述x个输入端口链接至所述x个正极DAC的输入端，将所述x个正极DAC的输出端链接至驱动器的x个输出端口，其中，所述x个输出端口为所述N个输出端口中的相互间隔的x个输出端口；
第二间隔链接单元132，用于将驱动器的y个输入端口链接至y个负极DAC的输入端，将所述y个负极DAC的输出端链接至驱动器的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相互间隔的y个输出端口。
根据上述单元搭建第二信号传输通道组，则可输出x个相间隔的正极信号及y个相间隔的负极信号。该间隔单位可为1，也可为1的整数倍。如x个编号为奇数的N路输出端口输出正极的图像数据，y个编号为偶数的N路输出端口输出负极的图像数据。其中，可设置N为x与y的总和，也可设置N为x与y的总和的整数倍。若设置为整数倍时，即以x+y为一个输出单位，输出的极性符号按照该输出单位进行循环。举个例子，x、y可被设置为1，则以2个输出端口为一个输出单位，则N路输出端口能够输出以“+-”或“-+”为单位进行循环的极性符号。
第二信号传输通道组也可通过其他方式实现，如在驱动器中均配置相同极性的DAC，在通过DAC后在某些端口配置反相器，在此配置下搭建第二信号传输通道组，使N路图像数据通过第二信号传输通道组后在N路输出端口输出第二极性图案。其他方法在本发明实施例中不做详细描述。
极性检测模块14，用于检测极性控制信号。
在一个实施例中，可通过上述控制器发出极性控制信号，极性检测模块14检测该极性控制信号以控制驱动器输出端口的极性反转输出。即在第N帧时，可使输出端口输出正极极性图案；在第N+1帧时，对图像数据的当前的输出极性进行反转，时输出端口输出负极极性图案。从而可避免液晶显示屏的 极化现象。本发明实施例中，第一极性图案可包括第一正极极性图案与第一负极极性图案；第二极性图案可包括第二正极极性图案与第二负极极性图案。驱动器首先检测模式控制信号，根据模式控制信号选择搭建信号传输通道组，接着可在检测极性控制信号，选择在当前搭建的信号传输通道组中输出正极极性图案或负极极性图案。
第一传输模块15，用于利用所述第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第一极性图案，所述N为大于1的整数。
本发明实施例中，第一传输模块15包括第一正极传输单元151及第一负极传输单元152。
其中，第一正极传输单元151，用于当所述极性检测模块14检测到所述极性控制信号为高电平时，利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第一正极极性图案；
第一负极传输单元152，用于当所述极性检测模块14检测到所述极性控制信号为低电平时，利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第一负极极性图案。
在一个实施例中，当模式控制信号为高电平时，可搭建第一信号传输通道组。在搭建好第一信号传输通道组后，可检测极性控制信号，由于极性控制信号常在传输新的一帧图像数据时变化电位高低，则可定时检测该极性控制信号的电位高低，若检测到极性控制信号为高电位信号时，则第一正极传输单元151可输出N路图像信号以在显示屏上呈现第一正极极性图案，相反，则第一负极传输单元152可呈现第一负极极性图案。需要注意的时，本发明实施例中所述第一正极极性图案与第一负极极性图案所携带的极性为反转关系，第一正极极性图案并非N路图像数据的极性均为正极。
上述第一正极极性图案及第一负极极性图案均可通过第一信号传输通道组实现。举个例子，当x、y被设置为4时且在输出端口x个输出端口的编号小于y个输出端口，如x被设置为编号为1～4的输出端口，y被设置为编号为5～8的输出端口时，则第一正极传输单元151输出第一正极极性图案，如以“++++----”为单位极性符号的极性图案；当x个输出端口的编号被设置为大 于y个输出端口的编号时，则第一负极传输单元152输出第一负极极性图案，如以“----++++”为单位极性符号的极性图案。
第二传输模块16，用于利用所述第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第二极性图案。
本发明实施例中，第二传输模块16包括第二正极传输单元161及第二负极传输单元162。
其中，第二正极传输单元161，用于当所述极性检测模块14检测到所述极性控制信号为高电平时，利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第二正极极性图案；
第二负极传输单元162，用于当所述极性检测模块14检测到所述极性控制信号为低电平时，利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第二负极极性图案。
在一个实施例中，当模式控制信号为低电平时，可搭建第二信号传输通道组。在搭建好第二信号传输通道组后，可检测极性控制信号，由于极性控制信号常在传输新的一帧图像数据时变化电位高低，则可定时检测该极性控制信号的电位高低，若检测到极性控制信号为高电位信号时，则可输出N路图像信号以在显示屏上呈现第二正极极性图案，相反，则可呈现第二负极极性图案。需要注意的时，本发明实施例中所述第二正极极性图案与第二负极极性图案所携带的极性为反转关系，第二正极极性图案并非N路图像数据的极性均为正极。
上述第二正极极性图案及第二负极极性图案均可通过第二信号传输通道组实现。举个例子，当x、y被设置为1时且在输出端口x个输出端口的编号小于y个输出端口，如x被设置为编号为奇数的输出端口，y被设置为编号为偶数的输出端口时，则第二正极传输单元161输出第一正极极性图案，如以“+-”为单位极性符号的极性图案；当x个输出端口的编号被设置为大于y个输出端口的编号时，则第二负极传输单元162输出第二负极极性图案，如以“-+”为单位极性符号的极性图案。
本发明实施例中，通过检测到的模式控制信号的高电位或低电位，可为输入液晶显示器的驱动器的N个输入端口的N路图像信号搭建不同的信号传输 通道；通过不同的信号传输通道向液晶显示器的显示屏传输N路图像信号，能够在显示屏上呈现不同的极性图案。从而实现了在显示屏上输出多种极性图案，满足了多极性输出方式的需求。
参见图5，是本发明中的一种液晶显示器的驱动装置的又一实施例的结构示意图。该装置可包括N个输入端口1、N个输出端口2、存储器3、至少一个处理器4，如CPU，以及至少一个通信总线5。其中，通信总线5用于实现这些组件之间的连接通信，存储器3可以是高速RAM存储器，也可以是非不稳定的存储器(non-volatile memory)，如至少一个磁盘存储器，可选的，存储器3还可以是至少一个位于远离前述处理器4的存储装置。所述N个输出端口1用于与所述液晶显示器的显示屏连接，向所述显示屏传输所述N路图像信号；所述存储器3中存储一组程序代码，所述处理器4调用所述存储器3中存储的程序代码，用于执行以下操作：
检测模式控制信号；
当检测到所述模式控制信号为高电位信号时，为输入所述N个输入端口的N路图像信号搭建包含N条信号传输通道的第一信号传输通道组，利用所述第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第一极性图案，所述N为大于1的整数；
当检测到所述模式控制信号为低电位信号时，为输入所述N个输入端口的N路图像信号搭建包含N条信号传输通道的第二信号传输通道组，利用所述第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第二极性图案。
作为可选的实施例，所述第一极性图案包括第一正极极性图案及第一负极极性图案，所述第二极性图案包括第二正极极性图案及第二负极极性图案；
所述处理器4调用所述存储器3中存储的程序代码，还用于执行以下操作：
检测极性控制信号；
当检测到所述极性控制信号为高电位信号时，
所述处理器4利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第一极性图案，具体为：
利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号 以在所述显示屏上呈现所述第一正极极性图案；或
所述处理器4利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第二极性图案，具体为：
利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第二正极极性图案；
当检测到所述极性控制信号为低电位信号时，
所述处理器4利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第一极性图案，具体为：
利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第一负极极性图案；或
所述处理器4利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第二极性图案，具体为：
利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第二负极极性图案。
作为可选的实施例，所述装置还包括第一复用器、第二复用器及DAC阵列，其中，所述处理器4为N路图像信号搭建包含N条信号传输通道的第一信号传输通道组包括：
利用所述第一复用器将所述N个输入端口中的x个输入端口链接至所述DAC阵列中的x个正极DAC的输入端，利用所述第二复用器将所述x个正极DAC的输出端链接至所述N个输出端口中的x个输出端口，其中，所述x个输出端口为所述N个输出端口中的相邻x个输出端口；
利用所述第一复用器将所述N个输入端口中的y个输入端口链接至所述DAC阵列中的y个负极DAC的输入端，将所述y个负极DAC的输出端链接至所述N个输出端口中的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相邻y个输出端口。
作为可选的实施例，所述处理器4为N路图像信号搭建包含N条信号传输通道的第二信号传输通道组包括：
利用所述第一复用器将所述N个输入端口中的x个输入端口链接至所述DAC阵列中的x个正极DAC的输入端，将所述x个正极DAC的输出端链接 至所述N个输出端口中的x个输出端口，其中，所述x个输出端口为所述N个输出端口中的相互间隔的x个输出端口；
利用所述第一复用器将所述N个输入端口中的y个输入端口链接至所述DAC阵列中的y个负极DAC的输入端，将所述y个负极DAC的输出端链接至所述N个输出端口中的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相互间隔的y个输出端口。
作为可选的实施例，所述DAC阵列中x个所述正极DAC相邻，y个所述负极DAC相邻，N为x与y之和的整数倍。
本发明实施例中，通过检测到的模式控制信号的高电位或低电位，可为输入液晶显示器的驱动器的N个输入端口的N路图像信号搭建不同的信号传输通道；通过不同的信号传输通道向液晶显示器的显示屏传输N路图像信号，能够在显示屏上呈现不同的极性图案。从而实现了在显示屏上输出多种极性图案，满足了多极性输出方式的需求。
以上所描述的装置实施例仅仅是示意性的，其中所述作为分离部件说明的单元可以是或者也可以不是物理上分开的，作为单元显示的部件可以是或者也可以不是物理单元，即可以位于一个地方，或者也可以分布到多个网络单元上。可以根据实际的需要选择其中的部分或者全部模块来实现本实施例方案的目的。本领域普通技术人员在不付出创造性的劳动的情况下，即可以理解并实施。
本发明实施例方法中的步骤可以根据实际需要进行顺序调整、合并和删减。
本发明实施例终端或设备中的单元或子单元可以根据实际需要进行合并、划分和删减。
通过以上的实施方式的描述，本领域的技术人员可以清楚地了解到各实施方式可借助软件加必需的通用硬件平台的方式来实现，当然也可以通过硬件。基于这样的理解，上述技术方案本质上或者说对现有技术做出贡献的部分可以以软件产品的形式体现出来，该计算机软件产品可以存储在计算机可读存储介质中，如ROM/RAM、磁碟、光盘等，包括若干指令用以使得一台计算机设备(可以是个人计算机，服务器，或者网络设备等)执行各个实施例或者实施例的某些部分所述的方法。
以上所述的实施方式，并不构成对该技术方案保护范围的限定。任何在上述实施方式的精神和原则之内所作的修改、等同替换和改进等，均应包含在该技术方案的保护范围之内。

Claims (15)

  1. 一种液晶显示器的驱动方法，其特征在于，包括：
    检测模式控制信号；
    当检测到所述模式控制信号为高电位信号时，为输入所述液晶显示器的驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通道的第一信号传输通道组，利用所述第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第一极性图案，所述N为大于1的整数；
    当检测到所述模式控制信号为低电位信号时，为输入所述液晶显示器的驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通道的第二信号传输通道组，利用所述第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第二极性图案。
  2. 根据权利要求1所述方法，其特征在于，
    所述第一极性图案包括第一正极极性图案及第一负极极性图案，所述第二极性图案包括第二正极极性图案及第二负极极性图案；
    所述方法还包括：
    检测极性控制信号；
    当检测到所述极性控制信号为高电位信号时，
    所述利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第一极性图案，具体为：
    利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第一正极极性图案；或
    所述利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第二极性图案，具体为：
    利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第二正极极性图案；
    当检测到所述极性控制信号为低电位信号时，
    所述利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像 信号以在所述显示屏上呈现第一极性图案，具体为：
    利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第一负极极性图案；或
    所述利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第二极性图案，具体为：
    利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第二负极极性图案。
  3. 根据权利要求1或2所述方法，其特征在于，
    所述驱动器包括N个输出端口，所述为N路图像信号搭建包含N条信号传输通道的第一信号传输通道组包括：
    将驱动器的x个输入端口链接至x个正极DAC的输入端，将所述x个正极DAC的输出端链接至驱动器的x个输出端口，其中，所述x个输出端口为所述N个输出端口中的相邻x个输出端口；
    将驱动器的y个输入端口链接至y个负极DAC的输入端，将所述y个负极DAC的输出端链接至驱动器的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相邻y个输出端口。
  4. 根据权利要求3所述方法，其特征在于，
    所述为N路图像信号搭建包含N条信号传输通道的第二信号传输通道组包括：
    将驱动器的x个输入端口链接至x个正极DAC的输入端，将所述x个正极DAC的输出端链接至驱动器的x个输出端口，其中，所述x个输出端口为所述N个输出端口中的相互间隔的x个输出端口；
    将驱动器的y个输入端口链接至y个负极DAC的输入端，将所述y个负极DAC的输出端链接至驱动器的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相互间隔的y个输出端口。
  5. 根据权利要求4所述方法，其特征在于，所述方法还包括：
    设置包含N个DAC的DAC阵列，其中，x个所述正极DAC相邻，y个所述负极DAC相邻，N为x与y之和的整数倍。
  6. 一种液晶显示器的驱动装置，其特征在于，包括：
    模式检测模块，用于检测模式控制信号；
    第一搭建模块，用于当所述模式检测模块检测到所述模式控制信号为高电位信号时，为输入所述液晶显示器的驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通道的第一信号传输通道组；
    第一传输模块，用于利用所述第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第一极性图案，所述N为大于1的整数；
    第二搭建模块，用于当所述模式检测模块检测到所述模式控制信号为低电位信号时，为输入所述液晶显示器的驱动器的N个输入端口的N路图像信号搭建包含N条信号传输通道的第二信号传输通道组；
    第二传输模块，用于利用所述第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第二极性图案。
  7. 根据权利要求6所述装置，其特征在于，
    所述第一极性图案包括第一正极极性图案及第一负极极性图案，所述第二极性图案包括第二正极极性图案及第二负极极性图案；所述装置还包括：
    极性检测模块，用于检测极性控制信号；
    其中，所述第一传输模块包括：
    第一正极传输单元，用于当所述极性检测模块检测到所述极性控制信号为高电平时，利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第一正极极性图案；
    第一负极传输单元，用于当所述极性检测模块检测到所述极性控制信号为低电平时，利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第一负极极性图案；
    所述第二传输模块包括：
    第二正极传输单元，用于当所述极性检测模块检测到所述极性控制信号为高电平时，利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第二正极极性图案；
    第二负极传输单元，用于当所述极性检测模块检测到所述极性控制信号为低电平时，利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第二负极极性图案。
  8. 根据权利要求6或7所述装置，其特征在于，所述第一搭建模块包括：
    第一相邻链接单元，用于将驱动器的x个输入端口链接至x个正极DAC的输入端，将所述x个正极DAC的输出端链接至驱动器的x个输出端口，其中，所述驱动器包括N个输出端口，所述x个输出端口为所述N个输出端口中的相邻x个输出端口；
    第二相邻链接单元，用于将驱动器的y个输入端口链接至y个负极DAC的输入端，将所述y个负极DAC的输出端链接至驱动器的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相邻y个输出端口。
  9. 根据权利要求8所述装置，其特征在于，所述第二搭建模块包括：
    第一间隔链接单元，用于将所述x个输入端口链接至所述x个正极DAC的输入端，将所述x个正极DAC的输出端链接至驱动器的x个输出端口，其中，所述x个输出端口为所述N个输出端口中的相互间隔的x个输出端口；
    第二间隔链接单元，用于将驱动器的y个输入端口链接至y个负极DAC的输入端，将所述y个负极DAC的输出端链接至驱动器的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相互间隔的y个输出端口。
  10. 根据权利要求9所述装置，其特征在于，所述装置还包括：
    设置模块，用于设置包含N个DAC的DAC阵列，其中，x个所述正极DAC相邻，y个所述负极DAC相邻，N为x与y之和的整数倍。
  11. 一种液晶显示器的驱动装置，其特征在于，包括存储器、处理器、N 个输入端口及N个输出端口，其中：
    所述N个输入端口用于输入N路图像信号；
    所述N个输出端口用于与所述液晶显示器的显示屏连接，向所述显示屏传输所述N路图像信号；
    所述存储器中存储一组程序代码；
    所述处理器调用所述存储器中存储的程序代码，用于执行以下操作：
    检测模式控制信号；
    当检测到所述模式控制信号为高电位信号时，为输入所述N个输入端口的N路图像信号搭建包含N条信号传输通道的第一信号传输通道组，利用所述第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第一极性图案，所述N为大于1的整数；
    当检测到所述模式控制信号为低电位信号时，为输入所述N个输入端口的N路图像信号搭建包含N条信号传输通道的第二信号传输通道组，利用所述第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第二极性图案。
  12. 根据权利要求11所述装置，其特征在于，所述第一极性图案包括第一正极极性图案及第一负极极性图案，所述第二极性图案包括第二正极极性图案及第二负极极性图案；
    所述处理器调用所述存储器中存储的程序代码，还用于执行以下操作：
    检测极性控制信号；
    当检测到所述极性控制信号为高电位信号时，
    所述处理器利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第一极性图案，具体为：
    利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第一正极极性图案；或
    所述处理器利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第二极性图案，具体为：
    利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号 以在所述显示屏上呈现所述第二正极极性图案；
    当检测到所述极性控制信号为低电位信号时，
    所述处理器利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第一极性图案，具体为：
    利用第一信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第一负极极性图案；或
    所述处理器利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现第二极性图案，具体为：
    利用第二信号传输通道组向所述液晶显示器的显示屏传输N路图像信号以在所述显示屏上呈现所述第二负极极性图案。
  13. 如权利要求11或12所述装置，其特征在于，所述装置还包括第一复用器、第二复用器及DAC阵列，其中，所述处理器为N路图像信号搭建包含N条信号传输通道的第一信号传输通道组包括：
    利用所述第一复用器将所述N个输入端口中的x个输入端口链接至所述DAC阵列中的x个正极DAC的输入端，利用所述第二复用器将所述x个正极DAC的输出端链接至所述N个输出端口中的x个输出端口，其中，所述x个输出端口为所述N个输出端口中的相邻x个输出端口；
    利用所述第一复用器将所述N个输入端口中的y个输入端口链接至所述DAC阵列中的y个负极DAC的输入端，将所述y个负极DAC的输出端链接至所述N个输出端口中的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相邻y个输出端口。
  14. 根据权利要求13所述装置，其特征在于，所述处理器为N路图像信号搭建包含N条信号传输通道的第二信号传输通道组包括：
    利用所述第一复用器将所述N个输入端口中的x个输入端口链接至所述DAC阵列中的x个正极DAC的输入端，将所述x个正极DAC的输出端链接至所述N个输出端口中的x个输出端口，其中，所述x个输出端口为所述N个输出端口中的相互间隔的x个输出端口；
    利用所述第一复用器将所述N个输入端口中的y个输入端口链接至所述DAC阵列中的y个负极DAC的输入端，将所述y个负极DAC的输出端链接至所述N个输出端口中的y个输出端口，其中，所述y个输出端口为所述N个输出端口中的相互间隔的y个输出端口。
  15. 根据权利要求14所述方法，其特征在于，所述DAC阵列中x个所述正极DAC相邻，y个所述负极DAC相邻，N为x与y之和的整数倍。
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