WO2019056352A1 - 一种低版本安卓平台实时调试lcm参数的调试系统及其方法 - Google Patents

一种低版本安卓平台实时调试lcm参数的调试系统及其方法 Download PDF

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WO2019056352A1
WO2019056352A1 PCT/CN2017/103136 CN2017103136W WO2019056352A1 WO 2019056352 A1 WO2019056352 A1 WO 2019056352A1 CN 2017103136 W CN2017103136 W CN 2017103136W WO 2019056352 A1 WO2019056352 A1 WO 2019056352A1
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debugging
unit
lcm
code
module
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PCT/CN2017/103136
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English (en)
French (fr)
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叶智军
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深圳传音通讯有限公司
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Priority to PCT/CN2017/103136 priority Critical patent/WO2019056352A1/zh
Publication of WO2019056352A1 publication Critical patent/WO2019056352A1/zh

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    • G—PHYSICS
    • G02—OPTICS
    • G02F—OPTICAL DEVICES OR ARRANGEMENTS FOR THE CONTROL OF LIGHT BY MODIFICATION OF THE OPTICAL PROPERTIES OF THE MEDIA OF THE ELEMENTS INVOLVED THEREIN; NON-LINEAR OPTICS; FREQUENCY-CHANGING OF LIGHT; OPTICAL LOGIC ELEMENTS; OPTICAL ANALOGUE/DIGITAL CONVERTERS
    • G02F1/00—Devices or arrangements for the control of the intensity, colour, phase, polarisation or direction of light arriving from an independent light source, e.g. switching, gating or modulating; Non-linear optics
    • G02F1/01—Devices or arrangements for the control of the intensity, colour, phase, polarisation or direction of light arriving from an independent light source, e.g. switching, gating or modulating; Non-linear optics for the control of the intensity, phase, polarisation or colour 
    • G02F1/13—Devices or arrangements for the control of the intensity, colour, phase, polarisation or direction of light arriving from an independent light source, e.g. switching, gating or modulating; Non-linear optics for the control of the intensity, phase, polarisation or colour  based on liquid crystals, e.g. single liquid crystal display cells

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  • the invention relates to a method for debugging LCM parameters, in particular to a debugging system and method for real-time debugging LCM parameters of a low-level Android platform.
  • MTK is the abbreviation of Taiwan MediaTek's multimedia chip provider, the full name is MediaTek.
  • the mainstream platforms on the market include TI, Motorola, Philips, MTK, ADI, Spreadtrum, Infineon, and Kaiming.
  • the TI platform has the highest market share, and the MTK platform is the easiest to develop.
  • the MTK mobile phone system is the most complete mobile phone product solution used by domestic mobile phone designers and manufacturers. Its cost-effective and secondary development features are favored by mobile phone manufacturers.
  • MTK uses the Nucleus real-time preemptive multitasking operating system with a KAL (Kernel Abstraction Layer) OS layer. It serves as the interface layer for MTK software and the Nucleus operating system, and provides various system services (such as timers, queues, memory management, and events) for tasks.
  • KAL Kernel Abstraction Layer
  • MTK's completion rate is relatively high, basically more than 60%, so mobile phone manufacturers get a mobile phone platform is basically a semi-finished product, as long as a little processing can be put on the shelves.
  • LCM Liquid Crystal Display Module
  • the driving of the liquid crystal display is for adjusting the phase, peak value, frequency, and the like of the potential signal applied to the electrodes of the liquid crystal display device, and establishing a driving electric field to realize the display effect of the liquid crystal display device.
  • LCM driver developers often encounter situations where they need to fine-tune the key parameters of the LCM to meet the performance specifications (Standard Performance Evaluation Corporation, system performance evaluation test, the main program used to test the benchmark of the processor chip), such as the porch value.
  • the clock value especially the debugging of the clock value is the most common. If the LCM has radio frequency interference, you need to debug the clock value.
  • MTK When debugging LCM in MTK, MTK implants a set of debugging interface called Panel Master in the high version of Android platform code. LCM driver debugging personnel can use this tool to achieve the purpose of real-time debugging LCM key parameters, which is exempted. Constantly modify the tedious process of code compilation.
  • the invention provides a debugging system and a method for real-time debugging LCM parameters of a low-level Android platform.
  • the debugging system and the method thereof can solve the cumbersome problem of the LCM driver debugging process of the low-level Android platform of the prior art, and can provide a pair of LCM parameters.
  • the debugging process is simple and convenient.
  • the present invention provides a debugging system for real-time debugging of LCM parameters of a low-level Android platform, the debugging system comprising: an interface module, which is connected with an interface and a storage module of the LCM, and is configured to receive parameter data of the LCM, And sending the parameter data to the storage module; the storage module is connected to the interface module, the control module and the verification module, and is configured to receive the parameter data sent by the interface module, compile the code for the parameter data, and download the code.
  • the control module is connected to the storage module, the interface of the LCM, and the verification module, and is used to call the real-time a code stored by the storage module, sent to the interface of the LCM to debug the LCM, and receiving feedback information of the verification module; and a verification module connected to the storage module, the control module, and the LCM, for receiving the
  • the code sent by the control module verifies and analyzes the debugging result of the LCM, and sends the analysis result to the storage module. In rewriting code, and sends an acknowledgment message to the control module of the control module continues to drive the calling code in the memory module until verified.
  • the storage module includes: a compiling unit, which is connected to the interface module and the download unit, and is configured to receive parameter data sent by the interface module, compile the code for the parameter data, and drive the The loading unit downloads the code;
  • the download unit is connected to the compiling unit and the storage unit, and is configured to download the code compiled by the compiling unit under the driving of the compiling unit, and send the code to the storage unit;
  • It is connected to the download unit, the read/write unit and the control module, and is configured to receive the code sent by the download unit, send the code to the read/write unit, and use the call of the control module;
  • read a writing unit which is connected to both the storage unit and the verification module, configured to receive the code sent by the storage unit, receive the analysis result sent by the verification module, perform code rewriting, and send the rewritten code to the
  • the storage unit described is updated with code.
  • the interface module comprises: a plurality of different parameter data channels for transmitting corresponding parameter data.
  • the compilation unit comprises: a plurality of different parameter node subunits connected to the corresponding parameter data channel for receiving parameter data sent by the parameter data channel and compiling the code of the corresponding parameter.
  • the control module includes: a calling unit, which is connected to both the storage unit and the decoding unit, and is configured to call a code of a parameter to be tested stored in the storage unit, and send the code to the decoding unit; And connecting to the calling unit and the driving unit, configured to receive and decode the code sent by the calling unit, and send the decoded parameter to the driving unit; and the driving unit, which is connected to the interface of the LCM, The decoded parameters are sent to the interface of the LCM and the LCM is driven.
  • the verification module includes: a preset map storage unit connected to the comparison unit, configured to store the preset map, and the comparison unit calls the stored preset map; the comparison unit, which is stored with the LCM and the preset map The unit and the output unit are connected to receive the debugging result of the LCM, and compare and analyze with the preset image, and send the result of the comparative analysis to the output unit; and the output unit, which compares with the comparison unit, the calling unit, and the read unit
  • the writing units are all connected to receive the result of the debugging and analysis sent by the comparing unit, and determine whether it is passed, and in the failed state, send the result of the analysis to the reading and writing unit to rewrite the code, and Sending feedback information to the calling unit to drive the calling unit to continue calling the code.
  • a debugging method for real-time debugging LCM parameters of a low-level Android platform the debugging system used by the debugging method is a debugging system for real-time debugging LCM parameters of the low-level Android platform, which comprises:
  • Step S1 starting the debugging process, the storage module receives the parameter data of the LCM, and compiles the parameter data into a code;
  • Step S2 the storage module downloads the compiled code
  • Step S3 The control module calls the code of the parameter to be tested stored in the storage unit, and performs decoding to debug in real time;
  • Step S4 The verification module verifies whether the result of the debugging passes. In the failed state, the storage module rewrites the code, and the control module cyclically calls the rewritten code to continue decoding, debugging, and verifying, until the verification passes, and the debugging ends.
  • step S1 described includes:
  • Step S11 The interface of the LCM is connected to the interface module, and the parameter data of the LCM is received and sent to the storage module.
  • Step S12 The storage module sets a plurality of different parameter node subunits according to the number of parameters to be debugged, and the parameter node subunit compiles codes of different parameters.
  • step S3 The process of step S3 described includes:
  • Step S31 The control module invokes the code stored by the storage module to perform decoding.
  • Step S32 The control module sends the decoded parameter to the interface of the LCM to drive the LCM for real-time debugging.
  • step S4 described includes:
  • Step S41 The verification module receives the result of the debugging of the control module, and analyzes the result to verify whether the result meets the customer's standard;
  • Step S42 When the standard is not met, the verification fails, the verification module sends the result of the analysis to the storage module to rewrite the code, and sends the feedback information to drive the control module to continue to call the rewritten code.
  • Decode and debug
  • Step S43 When the verification module of the verification module verifies that the result of the debugging reaches the standard of the client, the verification passes and the debugging ends.
  • the debugging system and method for real-time debugging LCM parameters of the low-level Android platform solved the cumbersome problem of the LCM driver debugging process of the low-level Android platform of the prior art, and have the following advantages:
  • the debugging system and method for real-time debugging LCM parameters of the low-level Android platform of the invention can perform real-time debugging on the LCM parameters, and the debugging process is simple and convenient, and avoids the need for the prior art to undergo a cycle of modifying code ⁇ compiling ⁇ downloading verification.
  • the process can debug the LCM parameters in real time on the Android kk platform, and the coupling between the debugging interface and the debugging system is not large, and can be used for various debugging interfaces. debugging.
  • FIG. 1 is a flow chart of a method for debugging LCM parameters in the prior art.
  • FIG. 2 is a schematic structural diagram of a debugging system for real-time debugging LCM parameters of a low-level Android platform of the present invention.
  • FIG 3 is a schematic structural view of a memory module of the present invention.
  • FIG. 4 is a schematic structural diagram of an interface module and a coding unit according to the present invention.
  • FIG. 5 is a schematic structural view of a control module of the present invention.
  • FIG. 6 is a schematic structural diagram of a verification module of the present invention.
  • FIG. 7 is a flowchart of a method for debugging a real-time debugging LCM parameter of a low-level Android platform of the present invention.
  • FIG. 8 is a specific flowchart of step S1 in the debugging method of the present invention.
  • FIG. 9 is a specific flowchart of step S3 in the debugging method of the present invention.
  • FIG. 10 is a specific flowchart of step S4 in the debugging method of the present invention.
  • a low-version Android platform real-time debugging LCM parameter debugging system is a structural schematic diagram of a debugging system for real-time debugging LCM parameters of a low-level Android platform of the present invention, the debugging system includes: interface module 1 , the storage module 2, the control module 3 and the verification module 4. The control module 3 and the verification module 4 are also intercommunicated, and the verification module 4 is also connected to the storage module 2.
  • the interface module 1 and the LCM interface (the interface of the LCM to be debugged) 5 and the storage module 2 are both connected to receive the parameter data of the LCM and send the parameter data to the storage module 2.
  • the storage module 2 is connected to the interface module 1, the control module 3 and the verification module 4, and is configured to receive parameter data sent by the interface module 1, compile the code for the parameter data, download and rewrite the code according to the analysis result sent by the verification module 4, Used to control the call of module 3.
  • the control module 3 is connected to the interface 5 of the storage module 2, the LCM, and the verification module 4, and is used to call the code stored in the storage module 2 in real time, and send it to the interface 5 of the LCM to debug the LCM and receive the verification. Feedback information for module 4.
  • the verification module 4 is connected to the storage module 2, the control module 3 and the LCM, and is configured to receive the code sent by the control module 3, verify and analyze the debugging result of the LCM, and send the analysis result to the storage module 2 for code rewriting and sending.
  • the feedback message to the control module 3 continues to call the code in the storage module 2 by the drive control module 3 until the verification passes (the display screen of the LCM is in good condition to meet the customer's requirements).
  • FIG. 4 it is a schematic structural diagram of an interface module and a coding unit according to the present invention.
  • the interface module 1 includes: a plurality of different parameter data channels 11 each corresponding to a corresponding parameter data channel 11 for transmitting corresponding Parameter data.
  • the storage module 2 includes: a compiling unit 21, a downloading unit 22, a storage unit 23, and a reading and writing unit 24.
  • the compiling unit 21 is connected to both the interface module 1 and the download unit 22 for receiving parameter data sent by the interface module 1, compiling the code for the parameter data, and driving the download unit 22 to download the code.
  • the compiling unit 21 includes: a plurality of different parameter node sub-units 211 (the number of parameter nodes are set according to parameters to be debugged), and corresponding parameters.
  • the data channel 11 is connected, receives the parameter data sent by the parameter data channel 11, and compiles the code of the corresponding parameter.
  • the download unit 22 is connected to both the compiling unit 21 and the storage unit 23 for downloading the code compiled by the compiling unit 21 under the driving of the compiling unit 21, and transmitting it to the storage unit 23.
  • the storage unit 23 is connected to the download unit 22, the read/write unit 24 and the control module 3 for receiving the code sent by the download unit 22, sending the code to the read/write unit 24, and for controlling the call of the module 3.
  • the reading and writing unit 24 is connected to both the storage unit 23 and the verification module 4 for receiving the code sent by the storage unit 23, and receiving the analysis result sent by the verification module 4, performing the read and write operations, rewriting the code, and rewriting the code.
  • the latter code is sent to the storage unit 23 for code update.
  • the control module 3 includes: a calling unit 31, a decoding unit 32, and a driving unit 33.
  • the calling unit 31 is connected to both the storage unit 21 and the decoding unit 32 for calling the code of the parameter to be tested stored in the storage unit 21 and transmitting it to the decoding unit 32.
  • the decoding unit 32 is connected to both the calling unit 31 and the driving unit 33 for receiving and decoding calls.
  • the code transmitted by unit 31 sends the decoded parameters to drive unit 33.
  • the drive unit 33 is connected to the interface 5 of the LCM for transmitting the decoded parameters to the interface 5 of the LCM and driving the LCM.
  • the verification module 4 includes: a preset map storage unit 41, a comparison unit 42 and an output unit 43.
  • the preset map storage unit 41 is connected to the comparison unit 42 for storing a preset map (a standard of the LCM required by the client, including standards of resolution, contrast, and color depth of the LCM), and is used by the comparison unit 41 to call the stored pre-preparation. Set the picture.
  • a preset map a standard of the LCM required by the client, including standards of resolution, contrast, and color depth of the LCM
  • the comparison unit 42 is connected to the LCM, the preset map storage unit 41 and the output unit 43 for receiving the driving result of the LCM, and performing comparative analysis with the preset map, and sends the result of the comparative analysis to the output unit 43.
  • the output unit 43 is connected to the comparison unit 42, the calling unit 31, and the read/write unit 24, and is configured to receive the result sent by the comparison unit 42 and determine whether it is passed. In the failed state, the result of the comparison analysis is sent to the read/write. Unit 24 rewrites the code and sends a message to call unit 31 to drive call unit 31 to continue invoking the code until the end of the debug.
  • a debugging method for real-time debugging LCM parameters of a low-level Android platform is a debugging system for real-time debugging LCM parameters of the low-level Android platform, as shown in FIG. 7 , which is a real-time debugging of the low-level Android platform of the present invention.
  • Flow chart of the debugging method of the LCM parameter which includes:
  • Step S1 starting the debugging process, the storage module 2 receives the parameter data of the LCM, and compiles the parameter data into a code;
  • Step S2 the storage module 2 downloads the compiled code
  • Step S3 The control module 3 calls the code of the parameter to be tested stored in the storage unit 21, and performs decoding to debug in real time;
  • Step S4 The verification module 4 verifies whether the result of the debugging passes. In the failed state, the storage module 2 rewrites the code, and the control module 3 cyclically calls the rewritten code to continue decoding, debugging, and verifying until the verification passes, and the debugging ends. .
  • step S1 as shown in FIG. 8, it is a specific flowchart of step S1 in the debugging method of the present invention, and the specific steps thereof include:
  • Step S11 The interface 5 of the LCM to be debugged is connected to the interface module 1, and receives the parameter data of the LCM and sends it to the storage module 2;
  • Step S12 The storage module 2 sets a number of different parameter node sub-units 211 according to the number of parameters to be debugged, and the parameter node sub-unit 211 compiles codes of different parameters.
  • step S3 is a specific flowchart of step S3 in the debugging method of the present invention, and the specific steps include:
  • Step S31 The control module 3 calls the code of the storage module storage 2 to perform decoding
  • Step S32 The control module 3 sends the decoded parameters to the interface 5 of the LCM to drive the LCM for real-time debugging.
  • step S4 as shown in FIG. 10, it is a specific flowchart of step S4 in the debugging method of the present invention, and the specific steps include:
  • Step S41 The verification module 4 receives the result of the debugging of the control module 3, and analyzes the result to verify whether the result meets the customer's standard;
  • Step S42 When the standard is not met, the verification fails, the verification module 4 sends the analysis result to the storage module 2 to rewrite the code, and sends the feedback information to drive the control module 3 to continue to call the rewritten code to perform decoding and debugging;
  • Step S43 When the module to be verified 4 verifies that the result of the debugging reaches the standard of the client, the verification passes and the debugging ends.
  • the low-version Android platform real-time debugging LCM parameter debugging system and method thereof can perform real-time debugging on LCM parameters, and the debugging process is simple and convenient, and the prior art needs to undergo modification code ⁇ compile ⁇ download
  • the recurring process of verification can debug the LCM parameters in real time on the Android kk platform, and the coupling between the debugging interface and the debugging system is not large, and can be used for debugging various debugging interfaces.
  • a debugging system for real-time debugging LCM parameters of a low-level Android platform comprising: an interface module 1, a storage module 2, a control module 3 and a verification module 4.
  • the control module 3 and the verification module 4 are also intercommunicated, the verification module 4 is also connected to the storage module 2, the interface module 1 is connected to the interface 5 of the LCM, and the verification module 4 is connected to the LCM.
  • the storage module 2 includes a compiling unit 21, a downloading unit 22, a storage unit 23, and a reading and writing unit 24.
  • the compiling unit 21 is connected to both the interface module 1 and the download unit 22;
  • the download unit 22 is connected to both the compiling unit 21 and the storage unit 23;
  • the storage unit 23 is connected to the download unit 22, the read/write unit 24, and the control module 3;
  • the writing unit 24 is connected to both the storage unit 23 and the verification module 4.
  • the interface module 1 contains a number of different parameter data channels 11.
  • the compilation unit 21 comprises: a number of different parameter node subunits 211 connected to the respective parameter data channels 11.
  • the control module 3 includes a calling unit 31, a decoding unit 32, and a driving unit 33.
  • the calling unit 31 is connected to both the storage unit 21 and the decoding unit 32;
  • the decoding unit 32 is connected to both the calling unit 31 and the driving unit 33;
  • the driving unit 33 is connected to the interface 5 of the LCM.
  • the verification module 4 includes a preset map storage unit 41, a comparison unit 42, and an output unit 43.
  • the preset map storage unit 41 is connected to the comparison unit 42; the comparison unit 42 is connected to the LCM, the preset map storage unit 41, and the output unit 43; the output unit 43 and the comparison unit 42, the calling unit 31, and the read/write unit 24 are both connection.
  • the debugging method of the debugging system for real-time debugging LCM parameters of the above-mentioned low-level Android platform, as shown in FIG. 11, is a debugging method of the debugging system of Embodiment 1, which includes:
  • Step 1 Connect the interface 5 of the LCM to be debugged to the interface module 1, start the debugging process, receive the parameter data of the LCM and send it to the storage module 2, and the compiling unit 21 in the storage module 2 compiles the parameter data into a code;
  • Step 2 The download unit 22 in the storage module 2 downloads the compiled code
  • Step 3 The calling unit 31 in the control module 3 calls the code of the parameter to be tested stored in the storage unit 21, decodes it by the decoding unit 32, and drives the LCM through the driving unit 33 to debug in real time;
  • Step 4 The comparison unit 42 in the verification module 4 receives the debugging result of the LCM, and calls the preset map in the preset map storage unit 41, and compares and analyzes with the debugging result to verify whether the result of the debugging passes, and the status is not passed.
  • the output unit in the verification module 4 sends the result of the analysis to the read/write unit 24 in the storage module 2.
  • the read/write unit 24 rewrites the code according to the result of the analysis, and feeds back the information to drive the control module 3 to cyclically call the rewrite.
  • the code continues to decode, debug, and verify until the verification passes, ending the debugging.
  • the low-version Android platform real-time debugging LCM parameter debugging system and method thereof can perform real-time debugging on LCM parameters, and the debugging process is simple and convenient, and the prior art needs to undergo modification code ⁇ compile ⁇ download
  • the recurring process of verification can debug the LCM parameters in real time on the Android kk platform, and the coupling between the debugging interface and the debugging system is not large, and can be used for debugging various debugging interfaces.

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Abstract

一种低版本安卓平台实时调试LCM参数的调试系统及其方法，该调试系统包含：接口模块（1），其与LCM的接口（5）和存储模块（2）均连接，用于接收LCM的参数数据发送给存储模块（2）；存储模块（2），其与接口模块（1）、控制模块（3）和验证模块（4）均连接，用于接收该参数数据并编译代码，下载并改写代码，以用于控制模块（3）的调用；控制模块（3），其与存储模块（2）、LCM的接口（5）和验证模块（4）均连接，用于调用代码以调试LCM，并接收验证模块（4）的反馈信息；以及验证模块（4），其与存储模块（2）、控制模块（3）和LCM均连接，用于对LCM的调试结果进行验证并分析，使存储模块（2）进行代码改写及控制模块（3）继续调用代码，至验证通过。该调试系统及其方法能够提供一个对LCM参数进行实时调试的系统，调试过程简单、方便。

Description

一种低版本安卓平台实时调试LCM参数的调试系统及其方法 技术领域
本发明涉及一种调试LCM参数的方法，具体涉及一种低版本安卓平台实时调试LCM参数的调试系统及其方法。
背景技术
MTK是台湾联发科技多媒体芯片提供商的简称，全称叫MediaTek。目前，市场上主流的平台有TI、摩托罗拉、飞利浦、MTK、ADI、展讯、英飞凌、凯明等，TI平台占有率最高，而MTK平台开发最容易。
MTK手机系统是目前国内手机设计、制造商使用的最多的一个完整的手机产品解决方案，其高性价比和可二次开发的特性倍受手机制造商的青睐。
MTK采用Nucleus实时抢先式多任务操作系统在其上有一个KAL(Kernel Abstraction Layer)OS层。它作为MTK软件和Nucleus操作系统的接口层，主要为任务提供各种系统服务(如定时器、队列、内存管理和事件等)。MTK的完工率较高，基本上在60％以上，这样手机厂商拿到手机平台基本上就是一个半成品，只要稍稍的加工就可上架出货了。
LCM(Liquid Crystal Display Module，液晶显示模组)是将液晶显示器、连接件、集成电路、控制驱动电路和PCB线路板、背光源、结构件装配在一起的组件。液晶显示的驱动是用来调整施加在液晶显示器件电极上的电位信号的相位、峰值、频率等，建立驱动电场，以实现液晶显示器件的显示效果。
LCM驱动开发人员日常工作中经常会碰到需要微调LCM关键参数以满足相关性能spec(Standard Performance Evaluation Corporation，系统性能评估测试，用于测试处理器芯片的基准的主要程序)的情况，譬如porch值及clock值，尤其是clock值的调试最常见，如果LCM存在射频干扰，就需要调试clock值。
在MTK中调试LCM时，MTK在高版本的安卓平台代码中植入了一套称为Panel Master的调试接口，LCM驱动调试人员可借助该工具达到实时调试LCM关键参数的目的，这就免除了不停修改代码不停编译的繁琐过程。
但是，在低版本的安卓平台，比如安卓kk平台，里面就没有一套可供调试的接口，而且安卓各版本之间代码差异性较大，以及与MTK平台代码的差异性也较大，高度耦合的调试接口移植非常困难。
所以，当LCM驱动开发者在这样的平台开发时，如图1所示，为现有技术调试LCM关键参数的方法流程图，碰到需要调试LCM关键参数的情况，就会经历不停修改代码→编译→下载验证的循环往复过程。
发明的公开
本发明提供一种低版本安卓平台实时调试LCM参数的调试系统及其方法，该调试系统及其方法能够解决现有技术的低版本安卓平台LCM驱动调试过程繁琐的问题，能够提供一个对LCM参数进行实时调试的系统，调试过程简单、方便。
为了达到上述目的，本发明提供了一种低版本安卓平台实时调试LCM参数的调试系统，该调试系统包含：接口模块，其与LCM的接口和存储模块均连接，用于接收LCM的参数数据，并发送该参数数据给所述的存储模块；存储模块，其与接口模块、控制模块和验证模块均连接，用于接收所述的接口模块发送的参数数据，对该参数数据编译代码，下载代码，并根据所述的验证模块发送的分析结果改写代码，以用于所述的控制模块的调用；控制模块，其与存储模块、LCM的接口和验证模块均连接，用于实时调用所述的存储模块存储的代码，发送给所述的LCM的接口以调试LCM，并接收所述的验证模块的反馈信息；以及验证模块，其与存储模块、控制模块和LCM均连接，用于接收所述的控制模块发送的代码，对LCM的调试结果进行验证并分析，发送分析结果至所述的存储模块以进行代码改写，并发送反馈消息至所述的控制模块以驱动所述的控制模块继续调用所述的存储模块中的代码，直至验证通过。
所述的存储模块包含：编译单元，其与接口模块和下载单元均连接，用于接收所述的接口模块发送的参数数据，对该参数数据编译代码，并驱动下 载单元对该代码下载；下载单元，其与编译单元和存储单元均连接，用于在所述的编译单元驱动下对所述的编译单元编译的代码下载，并发送至存储单元；存储单元，其与下载单元、读写单元和控制模块均连接，用于接收所述的下载单元发送的代码，将该代码发送至所述的读写单元，并用于所述的控制模块的调用；以及读写单元，其与存储单元和验证模块均连接，用于接收所述的存储单元发送的代码，并接收所述的验证模块发送的分析结果，进行代码改写，并将改写后的代码发送至所述的存储单元进行代码更新。
所述的接口模块包含：若干不同的参数数据通道，其用于发送相应的参数数据。
所述的编译单元包含：若干不同的参数节点子单元，其与相应的参数数据通道连接，用于接收参数数据通道发送的参数数据，并编译相应的参数的代码。
所述的控制模块包含：调用单元，其与存储单元和解码单元均连接，用于调用存储于所述的存储单元中的待测试的参数的代码，并发送给所述的解码单元；解码单元，其与调用单元和驱动单元均连接，用于接收并解码所述的调用单元发送的代码，并将解码的参数发送至所述的驱动单元；以及驱动单元，其与LCM的接口连接，用于将解码的参数发送给所述的LCM的接口，并驱动LCM。
所述的验证模块包含：预设图存储单元，其与对比单元连接，用于存储预设图，以及所述的对比单元调用存储的预设图；对比单元，其与LCM、预设图存储单元和输出单元均连接，用于接收LCM的调试结果，并与预设图进行对比分析，将对比分析的结果发送至所述的输出单元；以及输出单元，其与对比单元、调用单元和读写单元均连接，用于接收所述的对比单元发送的调试和分析的结果，并判断是否通过，在未通过的状态下，将分析的结果发送至所述的读写单元以改写代码，并发送反馈信息至所述的调用单元以驱动所述的调用单元继续调用代码。
一种低版本安卓平台实时调试LCM参数的调试方法，该调试方法采用的调试系统为所述的低版本安卓平台实时调试LCM参数的调试系统，其包含：
步骤S1：开始调试过程，存储模块接收LCM的参数数据，将参数数据编译为代码；
步骤S2：存储模块下载编译的代码；
步骤S3：控制模块调用存储于存储单元中的待测试的参数的代码，进行解码以实时调试；
步骤S4：验证模块验证调试的结果是否通过，在未通过的状态下，存储模块对代码进行改写，控制模块循环调用改写后的代码继续解码、调试并验证，直至验证通过，结束调试。
所述的步骤S1的过程包含：
步骤S11：将LCM的接口与接口模块连接，接收LCM的参数数据并发送至所述的存储模块；
步骤S12：存储模块根据待调试的参数的个数设置若干不同的参数节点子单元，参数节点子单元编译不同参数的代码。
所述的步骤S3的过程包含：
步骤S31：所述的控制模块调用所述的存储模块存储的代码，进行解码；
步骤S32：所述的控制模块将解码的参数发送给所述的LCM的接口以驱动LCM，进行实时调试。
所述的步骤S4的过程包含：
步骤S41：所述的验证模块接收所述的控制模块的调试的结果，并分析结果，验证该结果是否达到客户的标准；
步骤S42：未达到标准时，验证不通过，所述的验证模块将分析的结果发送至所述的存储模块对代码进行改写，并发送反馈信息驱动所述的控制模块继续调用改写后的代码，进行解码并调试；
步骤S43：待所述的验证模块验证调试的结果达到客户的标准时，验证通过，结束调试。
本发明提供的低版本安卓平台实时调试LCM参数的调试系统及其方法，解决了现有技术的低版本安卓平台LCM驱动调试过程繁琐的问题，具有以下优点：
本发明的低版本安卓平台实时调试LCM参数的调试系统及其方法，能够对LCM参数进行实时调试，调试过程简单、方便，避免了现有技术需要经历修改代码→编译→下载验证的循环往复的过程，可在安卓kk平台实时调试LCM参数，而且调试接口与调试系统的耦合性不大，可用于各种调试接口的 调试。
附图的简要说明
图1为现有技术调试LCM参数的方法流程图。
图2为本发明的低版本安卓平台实时调试LCM参数的调试系统的结构示意图。
图3为本发明的存储模块的结构示意图。
图4为本发明的接口模块和编译单元的结构示意图。
图5为本发明的控制模块的结构示意图。
图6为本发明的验证模块的结构示意图。
图7为本发明的低版本安卓平台实时调试LCM参数的调试方法流程图。
图8为本发明的调试方法中步骤S1的具体流程图。
图9为本发明的调试方法中步骤S3的具体流程图。
图10为本发明的调试方法中步骤S4的具体流程图。
图11为实施例1的调试系统的调试方法。
实现本发明的最佳方式
以下结合附图和实施例对本发明的技术方案做进一步的说明。
一种低版本安卓平台实时调试LCM参数的调试系统，如图2所示，为本发明的低版本安卓平台实时调试LCM参数的调试系统的结构示意图，该调试系统包含依次连接的：接口模块1、存储模块2、控制模块3和验证模块4。其中，控制模块3和验证模块4也互通，验证模块4与存储模块2也连接。
接口模块1与LCM的接口(待调试的LCM的接口)5和存储模块2均连接，用于接收LCM的参数数据并发送该参数数据给存储模块2。
存储模块2与接口模块1、控制模块3和验证模块4均连接，用于接收接口模块1发送的参数数据，对该参数数据编译代码，下载并根据验证模块4发送的分析结果改写代码，以用于控制模块3的调用。
控制模块3与存储模块2、LCM的接口5和验证模块4均连接，用于实时调用存储模块2存储的代码，发送给LCM的接口5以调试LCM，并接收验证 模块4的反馈信息。
验证模块4与存储模块2、控制模块3和LCM均连接，用于接收控制模块3发送的代码，对LCM的调试结果进行验证并分析，发送分析结果至存储模块2以进行代码改写，并发送反馈消息至控制模块3以驱动控制模块3继续调用存储模块2中的代码，直至验证通过(LCM的显示画面良好符合客户要求)。
优选地，如图4所示，为本发明的接口模块和编译单元的结构示意图，接口模块1含有：若干不同的参数数据通道11，每一个参数对应相应的参数数据通道11，用于发送相应的参数数据。
优选地，如图3所示，为本发明的存储模块的结构示意图，存储模块2包含：编译单元21、下载单元22、存储单元23和读写单元24。
编译单元21与接口模块1和下载单元22均连接，用于接收接口模块1发送的参数数据，对该参数数据编译代码，并驱动下载单元22对该代码下载。
如图4所示，为本发明的接口模块和编译单元的结构示意图，编译单元21包含：若干不同的参数节点子单元211(根据需要调试的参数设置参数节点的数目)，其与相应的参数数据通道11连接，接收参数数据通道11发送的参数数据，并编译相应的参数的代码。
下载单元22与编译单元21和存储单元23均连接，用于在编译单元21驱动下对编译单元21编译的代码下载，并发送至存储单元23。
存储单元23与下载单元22、读写单元24和控制模块3均连接，用于接收下载单元22发送的代码，将该代码发送至读写单元24，并用于控制模块3的调用。
读写单元24与存储单元23和验证模块4均连接，用于接收存储单元23发送的代码，并接收验证模块4发送的分析结果，执行读和写的操作，对代码进行改写，并将改写后的代码发送至存储单元23进行代码更新。
优选地，如图5所示，为本发明的控制模块的结构示意图，控制模块3包含：调用单元31、解码单元32和驱动单元33。
调用单元31与存储单元21和解码单元32均连接，用于调用存储于存储单元21中的待测试的参数的代码，并发送给解码单元32。
解码单元32与调用单元31和驱动单元33均连接，用于接收并解码调用 单元31发送的代码，并将解码的参数发送至驱动单元33。
驱动单元33与LCM的接口5连接，用于将解码的参数发送给LCM的接口5，并驱动LCM。
优选地，如图6所示，为本发明的验证模块的结构示意图，验证模块4包含：预设图存储单元41、对比单元42和输出单元43。
预设图存储单元41与对比单元42连接，用于存储预设图(客户要求的LCM的标准，包括LCM的分辨率、对比度和色深等的标准)，并用于对比单元41调用存储的预设图。
对比单元42与LCM、预设图存储单元41和输出单元43均连接，用于接收LCM的驱动结果，并与预设图进行对比分析，将对比分析的结果发送至输出单元43。
输出单元43与对比单元42、调用单元31和读写单元24均连接，用于接收对比单元42发送的结果，并判断是否通过，在未通过的状态下，将对比分析的结果发送至读写单元24以改写代码，并发送信息至调用单元31以驱动调用单元31继续调用代码，直至通过，调试结束。
一种低版本安卓平台实时调试LCM参数的调试方法，该方法采用的调试系统为上述低版本安卓平台实时调试LCM参数的调试系统，如图7所示，为本发明的低版本安卓平台实时调试LCM参数的调试方法流程图，其包含：
步骤S1：开始调试过程，存储模块2接收LCM的参数数据，将参数数据编译为代码；
步骤S2：存储模块2下载编译的代码；
步骤S3：控制模块3调用存储于存储单元21中的待测试的参数的代码，进行解码以实时调试；
步骤S4：验证模块4验证调试的结果是否通过，在未通过的状态下，存储模块2对代码进行改写，控制模块3循环调用改写后的代码继续解码、调试并验证，直至验证通过，结束调试。
在步骤S1中，如图8所示，为本发明的调试方法中步骤S1的具体流程图，其具体步骤包含：
步骤S11：将待调试的LCM的接口5与接口模块1连接，接收LCM的参数数据并发送至存储模块2；
步骤S12：存储模块2根据待调试的参数的个数设置若干不同的参数节点子单元211，参数节点子单元211编译不同参数的代码。
在步骤S3中，如图9所示，为本发明的调试方法中步骤S3的具体流程图，具体步骤包含：
步骤S31：控制模块3调用存储模块存储2的代码，进行解码；
步骤S32：控制模块3将解码的参数发送给LCM的接口5以驱动LCM，进行实时调试。
在步骤S4中，如图10所示，为本发明的调试方法中步骤S4的具体流程图，具体步骤包含：
步骤S41：验证模块4接收控制模块3的调试的结果，并分析结果，验证该结果是否达到客户的标准；
步骤S42：未达到标准时，验证不通过，验证模块4将分析结果发送至存储模块2对代码进行改写，并发送反馈信息驱动控制模块3继续调用改写后的代码，进行解码并调试；
步骤S43：待验证模块4验证调试的结果达到客户的标准时，验证通过，结束调试。
综上所述，本发明的低版本安卓平台实时调试LCM参数的调试系统及其方法，能够对LCM参数进行实时调试，调试过程简单、方便，避免了现有技术需要经历修改代码→编译→下载验证的循环往复的过程，可在安卓kk平台实时调试LCM参数，而且调试接口与调试系统的耦合性不大，可用于各种调试接口的调试。
实施例1
一种低版本安卓平台实时调试LCM参数的调试系统，该调试系统包含依次连接的：接口模块1、存储模块2、控制模块3和验证模块4。其中，控制模块3和验证模块4也互通，验证模块4与存储模块2也连接，接口模块1与LCM的接口5连接，验证模块4与LCM连接。
存储模块2包含：编译单元21、下载单元22、存储单元23和读写单元24。其中，编译单元21与接口模块1和下载单元22均连接；下载单元22与编译单元21和存储单元23均连接；存储单元23与下载单元22、读写单元24和控制模块3均连接；读写单元24与存储单元23和验证模块4均连接。
接口模块1含有：若干不同的参数数据通道11。编译单元21包含：若干不同的参数节点子单元211，与相应的参数数据通道11连接。
控制模块3包含：调用单元31、解码单元32和驱动单元33。其中，调用单元31与存储单元21和解码单元32均连接；解码单元32与调用单元31和驱动单元33均连接；驱动单元33与LCM的接口5连接。
验证模块4包含：预设图存储单元41、对比单元42和输出单元43。其中，预设图存储单元41与对比单元42连接；对比单元42与LCM、预设图存储单元41和输出单元43均连接；输出单元43与对比单元42、调用单元31和读写单元24均连接。
上述低版本安卓平台实时调试LCM参数的调试系统的调试方法，如图11所示，为实施例1的调试系统的调试方法，其包含：
步骤1：将待调试的LCM的接口5与接口模块1连接，开始调试过程，接收LCM的参数数据并发送至存储模块2，存储模块2中的编译单元21将参数数据编译为代码；
步骤2：存储模块2中的下载单元22下载编译的代码；
步骤3：控制模块3中的调用单元31调用存储于存储单元21中的待测试的参数的代码，通过解码单元32进行解码，并通过驱动单元33驱动LCM以实时调试；
步骤4：验证模块4中的对比单元42接收LCM的调试结果，并调用预设图存储单元41中的预设图，与调试结果进行对比分析，验证调试的结果是否通过，在未通过的状态下，验证模块4中的输出单元将分析的结果发送至存储模块2中的读写单元24，读写单元24根据分析的结果对代码进行改写，并反馈信息以驱动控制模块3循环调用改写后的代码继续解码、调试并验证，直至验证通过，结束调试。
综上所述，本发明的低版本安卓平台实时调试LCM参数的调试系统及其方法，能够对LCM参数进行实时调试，调试过程简单、方便，避免了现有技术需要经历修改代码→编译→下载验证的循环往复的过程，可在安卓kk平台实时调试LCM参数，而且调试接口与调试系统的耦合性不大，可用于各种调试接口的调试。
尽管本发明的内容已经通过上述优选实施例作了详细介绍，但应当认识 到上述的描述不应被认为是对本发明的限制。在本领域技术人员阅读了上述内容后，对于本发明的多种修改和替代都将是显而易见的。因此，本发明的保护范围应由所附的权利要求来限定。

Claims (10)

  1. 一种低版本安卓平台实时调试LCM参数的调试系统，其特征在于，该调试系统包含：
    接口模块(1)，其与LCM的接口(5)和存储模块(2)均连接，用于接收LCM的参数数据，并发送该参数数据给所述的存储模块(2)；
    存储模块(2)，其与接口模块(1)、控制模块(3)和验证模块(4)均连接，用于接收所述的接口模块(1)发送的参数数据，对该参数数据编译代码，下载代码，并根据所述的验证模块(4)发送的分析结果改写代码，以用于所述的控制模块(3)的调用；
    控制模块(3)，其与存储模块(2)、LCM的接口(5)和验证模块(4)均连接，用于实时调用所述的存储模块(2)存储的代码，发送给所述的LCM的接口(5)以调试LCM，并接收所述的验证模块(4)的反馈信息；以及
    验证模块(4)，其与存储模块(2)、控制模块(3)和LCM均连接，用于接收所述的控制模块(3)发送的代码，对LCM的调试结果进行验证并分析，发送分析结果至所述的存储模块(2)以进行代码改写，并发送反馈消息至所述的控制模块(3)以驱动所述的控制模块(3)继续调用所述的存储模块(2)中的代码，直至验证通过。
  2. 根据权利要求1所述的低版本安卓平台实时调试LCM参数的调试系统其特征在于，所述的存储模块(2)包含：
    编译单元(21)，其与接口模块(1)和下载单元(22)均连接，用于接收所述的接口模块(1)发送的参数数据，对该参数数据编译代码，并驱动下载单元(22)对该代码下载；
    下载单元(22)，其与编译单元(21)和存储单元(23)均连接，用于在所述的编译单元(21)驱动下对所述的编译单元(21)编译的代码下载，并发送至存储单元(23)；
    存储单元(23)，其与下载单元(22)、读写单元(24)和控制模块(3)均连接，用于接收所述的下载单元(22)发送的代码，将该代码发送至所 述的读写单元(24)，并用于所述的控制模块(3)的调用；以及
    读写单元(24)，其与存储单元(23)和验证模块(4)均连接，用于接收所述的存储单元(23)发送的代码，并接收所述的验证模块(4)发送的分析结果，进行代码改写，并将改写后的代码发送至所述的存储单元(23)进行代码更新。
  3. 根据权利要求2所述的低版本安卓平台实时调试LCM参数的调试系统其特征在于，所述的接口模块(1)包含：若干不同的参数数据通道(11)，其用于发送相应的参数数据。
  4. 根据权利要求3所述的低版本安卓平台实时调试LCM参数的调试系统其特征在于，所述的编译单元(21)包含：若干不同的参数节点子单元(211)，其与相应的参数数据通道(11)连接，用于接收参数数据通道(11)发送的参数数据，并编译相应的参数的代码。
  5. 根据权利要求3所述的低版本安卓平台实时调试LCM参数的调试系统其特征在于，所述的控制模块(3)包含：
    调用单元(31)，其与存储单元(21)和解码单元(32)均连接，用于调用存储于所述的存储单元(21)中的待测试的参数的代码，并发送给所述的解码单元(32)；
    解码单元(32)，其与调用单元(31)和驱动单元(33)均连接，用于接收并解码所述的调用单元(31)发送的代码，并将解码的参数发送至所述的驱动单元(33)；以及
    驱动单元(33)，其与LCM的接口(5)连接，用于将解码的参数发送给所述的LCM的接口(5)，并驱动LCM。
  6. 根据权利要求5所述的低版本安卓平台实时调试LCM参数的调试系统其特征在于，所述的验证模块(4)包含：
    预设图存储单元(41)，其与对比单元(42)连接，用于存储预设图，以及所述的对比单元(41)调用存储的预设图；
    对比单元(42)，其与LCM、预设图存储单元(41)和输出单元(43)均连接，用于接收LCM的调试结果，并与预设图进行对比分析，将对比分析的结果发送至所述的输出单元(43)；以及
    输出单元(43)，其与对比单元(42)、调用单元(31)和读写单元(24) 均连接，用于接收所述的对比单元(42)发送的调试和分析的结果，并判断是否通过，在未通过的状态下，将分析的结果发送至所述的读写单元(24)以改写代码，并发送反馈信息至所述的调用单元(31)以驱动所述的调用单元(31)继续调用代码。
  7. 一种低版本安卓平台实时调试LCM参数的调试方法，其特征在于，该调试方法采用的调试系统为权利要求1-6中任意一项所述的低版本安卓平台实时调试LCM参数的调试系统，其包含：
    步骤S1：开始调试过程，存储模块(2)接收LCM的参数数据，将参数数据编译为代码；
    步骤S2：存储模块(2)下载编译的代码；
    步骤S3：控制模块(3)调用存储于存储单元(21)中的待测试的参数的代码，进行解码以实时调试；
    步骤S4：验证模块(4)验证调试的结果是否通过，在未通过的状态下，存储模块(2)对代码进行改写，控制模块(3)循环调用改写后的代码继续解码、调试并验证，直至验证通过，结束调试。
  8. 根据权利要求7所述的低版本安卓平台实时调试LCM参数的调试方法，其特征在于，所述的步骤S1的过程包含：
    步骤S11：将LCM的接口(5)与接口模块(1)连接，接收LCM的参数数据并发送至所述的存储模块(2)；
    步骤S12：存储模块(2)根据待调试的参数的个数设置若干不同的参数节点子单元(211)，参数节点子单元(211)编译不同参数的代码。
  9. 根据权利要求8所述的低版本安卓平台实时调试LCM参数的调试方法，其特征在于，所述的步骤S3的过程包含：
    步骤S31：所述的控制模块(3)调用所述的存储模块存储(2)的代码，进行解码；
    步骤S32：所述的控制模块(3)将解码的参数发送给所述的LCM的接口(5)以驱动LCM，进行实时调试。
  10. 根据权利要求7-9中任意一项所述的低版本安卓平台实时调试LCM参数的调试方法，其特征在于，所述的步骤S4的过程包含：
    步骤S41：所述的验证模块(4)接收所述的控制模块(3)的调试的 结果，并分析结果，验证该结果是否达到客户的标准；
    步骤S42：未达到标准时，验证不通过，所述的验证模块(4)将分析的结果发送至所述的存储模块(2)对代码进行改写，并发送反馈信息驱动所述的控制模块(3)继续调用改写后的代码，进行解码并调试；
    步骤S43：待所述的验证模块(4)验证调试的结果达到客户的标准时，验证通过，结束调试。
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Citations (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN101078817A (zh) * 2006-05-22 2007-11-28 比亚迪股份有限公司 一种液晶显示模块测试系统
US20080177991A1 (en) * 2007-01-19 2008-07-24 Novatek Microelectronics Corp. Method and device for improving debug time of a display apparatus
CN101299844A (zh) * 2008-02-20 2008-11-05 嘉兴闻泰通讯科技有限公司 一种内嵌手机平台的液晶屏快速调试方法
CN101577756A (zh) * 2009-03-05 2009-11-11 上海闻泰电子科技有限公司 一种通过pc机调试手机平台中图像显示单元的方法
CN205280833U (zh) * 2015-11-23 2016-06-01 蚌埠高华电子股份有限公司 一种用于lcm开发的测试平台
CN205992405U (zh) * 2016-06-23 2017-03-01 深圳市科莱电子股份有限公司 一种通用lcm测试平台

Patent Citations (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN101078817A (zh) * 2006-05-22 2007-11-28 比亚迪股份有限公司 一种液晶显示模块测试系统
US20080177991A1 (en) * 2007-01-19 2008-07-24 Novatek Microelectronics Corp. Method and device for improving debug time of a display apparatus
CN101299844A (zh) * 2008-02-20 2008-11-05 嘉兴闻泰通讯科技有限公司 一种内嵌手机平台的液晶屏快速调试方法
CN101577756A (zh) * 2009-03-05 2009-11-11 上海闻泰电子科技有限公司 一种通过pc机调试手机平台中图像显示单元的方法
CN205280833U (zh) * 2015-11-23 2016-06-01 蚌埠高华电子股份有限公司 一种用于lcm开发的测试平台
CN205992405U (zh) * 2016-06-23 2017-03-01 深圳市科莱电子股份有限公司 一种通用lcm测试平台

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