中景园电子0.96OLED显示屏_模块说明书

0.96inch OLEDUser Manual 1.Driver Chip SSD1306Interface 3-wire SPI、4-wire SPI、I2CResolution 128x64Display Size 0.96 inchDimension 29mm*33mmColors Yellow, BlueVisible Angle >160°Operating Temp. (℃) -20℃~70℃Storage Temp. (℃) -30℃~80℃2.We will illustrate the usage of the module with an example of 4-wire SPI mode (defaultworking mode) by connecting Waveshare Open103R development board (STM32V MCU onboard).2.1.Hardware configurationThis module provides 3 kinds of driver interfaces; they are 3-wire SPI, 4-wire SPI and I2C interface. In its factory settings, BS0/BS1 pins are set to 0/0 and 4-wire SPI is selected as default.Different working mode and pin function of the module can be set by hardware selection on BS0/BS1 pins. (Notice: In this operation, welding is required. Any changes under no guidance from Waveshare will be considered as a waiver of warranty).Table 1: Working mode setting122.2.Software configurationOpen the project file .\IDE\ OLED.uvproj in Keil, navigate to the following text, delete the ‘//’ (Double slash) before #define INTERFACE_4WIRE_SPI After compiling successfully, download the project to Open103R development board. Note: You should delete the ‘//’ (Double slash) corresponding to the mode selection2.3. Hardware connectionsConnect module to the SPI2 interface of Open103R development board, power up. OLED displays information as Figure 1 shows.Figure 1: OLED information display3. 4-wire SPI and I2C interfaces of SSD1306 OLEDThis module provides 3 kinds of driver interfaces. We introduce 4-wire SPI and I2C interfaceshere. You can read Chap. 8.1 from SSD1306-Revision_1.1.pdf for more details.The 4-wire serial interface consists of serial clock: SCLK, serial data: SDIN, D/C#, CS#. In 4-wire SPI mode,D0 acts as SCLK, D1 acts as SDIN. For the unused data pins, D2 should be left open. The pins from D3 to D7, E and R/W# (WR#)# can be connected to an external ground.Table 2: 4-wire SPI Control pins of 4-wire Serial interfaceNote(1) H stands for HIGH in signal(2) L stands for LOW in signalSDIN is shifted into an 8-bit shift register on every rising edge of SCLK in the order of D7, D6 0D/C# is sampled on every eighth clock and the data byte in the shift register is written to the Graphic Display Data RAM (GDDRAM) or command register in the same clock.Under serial mode, only write operations are allowed.Figure 2: Write procedure in 4-wire Serial interface modeThe I2C-bus interface gives access to write data and command into the device. Please referto Figure 2 for the write mode of I2C-bus in chronological order.a)Slave address bit (SA0)SSD1306 has to recognize the slave address before transmitting or receiving any information by the I2C-bus. The device will respond to the slave address following by the slave address bit (“SA0”bit) and the read/write select bit (“R/W#” bit) with the following byte format,b7 b6 b5 b4 b6 b2 b1 b00 1 1 1 1 0 SA0 R/W#“SA0” bit provides an extension bit for the slave address. Either “0111100” or3“0111101”, can be selected as the slave address of SSD1306. D/C# pin acts as SA0 for slave address selection. “R/W#” bit is used to determine the operation mode of the I2C-bus interface.R/W#=1, it is in read mode. R/W#=0, it is in write mode.b)I2C-bus data signal (SDA)SDA acts as a communication channel between the transmitter and the receiver. The data and the acknowledgement are sent through the SDA.It should be noticed that the ITO track resistance and the pulled-up resistance at “SDA” pinbecomes a voltage potential divider. As a result, the acknowledgement would not be possible to attain a valid logic 0 level in “SDA””SDAIN” and “SDAOUT” are tied together and serve as SDA. The “SDAIN” pin must be connected to act as SDA. The “SDAOUT” pin may be disconnected. When “SDAOUT” pin is disconnected, the acknowledgement signal will be ignored in the I2C-bus.c)I2C-bus clock signal (SCL)The transmission of information in the I2C-bus is following a clock signal, SCL. Each transmission of data bit is taken place during a single clock period of SCL.Table 3. I2C I2C-bus data format1)The slave address is following the start condition for recognition use. For the SSD1306, the slaveaddress is either “b0111100” or “b0111101” by changing the SA0 to LOW or HIGH (D/C pin acts as SA0).2)The write mode is established by setting the R/W# bit to logic “0”43)An acknowledgement signal will be generated after receiving one byte of data, including theslave address and the R/W# bit.4)After the transmission of the slave address, either the control byte or the data byte may be sentacross the SDA. A control byte mainly consists of Co and D/C# bits following by six “0” ‘s.a)If the Co bit is set as logic “0”, the transmission of the following information will containdata bytes only.b)The D/C# bit determines the next data byte is acted as a command or a data. If the D/C# bitis set to logic “0”, it defines the following data byte as a command. If the D/C# bit is set tologic “1”, it defines the following data byte as a data which will be stored at the GDDRAM.The GDDRAM column address pointer will be increased by one automatically after eachdata write.5)Acknowledge bit will be generated after receiving each control byte or data byte.5。

基于Arduino控制的OLED显示模块的电子实践教学研究*王红敏1，王燕1，刘军强2，宁生科1（1.西安工业大学工业中心，陕西西安710021；2.西安工业大学机电工程学院，陕西西安710021）Arduino开源平台[1]的应用为我校电子类专业创新人才的培养提供了新的方向。

其具有价格低廉、编程简单、应用方便、强扩展能力，且不需要过于深厚的理论知识作为开发基础等诸多优点，使得项目开发过程中的原型制作更加快捷简单。

因此，在实践应用中，学生可以自主挖掘日常生活或工业生产中的潜在需求，完全不会受到理论知识的限制，通过Arduino开源平台快速制作原型来进行验证，并在此基础上进行方案的持续优化。

整个实践[2]形成一个新鲜有趣的创新思维的迭代过程，从而激发学生的学习兴趣，培养创新工程实践能力。

OLED被称为有机发光显示器（Organic lighting emitting device，OLED），其具有自发光、响应时间短、低功耗、高亮度、工作温度范围宽、抗震性好以及轻薄等特点，已经在中小尺寸显示领域得到快速的发展。

并且OLED与以CRT为代表的第一代显示器和以LCD为代表的第二代显示器相比，有着明显的技术优势，已逐渐取代传统LCD显示屏在电子实践教学环节的主流地位，并广泛应用于智能家电、通信、军工、工业仪器仪表及大学生科技竞赛等领域。

针对OLED显示屏的广泛应用及适用前沿技术的发展，我校对传统电子工艺实习课程进行转型优化，对课程内容、实验设置等方面进行了调整。

2018年开始应用0.96寸OLED显示模块等实验装置，并开设出利用Arduino开源平台控制OLED显示屏的综合性、设计性实践项目[3]，为学生提供了多样性选择，提高了综合性、设计性实验内容的比例，培养了学生的自主创新能力。

一、OLED显示模块的工作原理在基于Arduino的实验教学中开发的液晶显示主要采用支持众多图形显示的OLED显示模块[4]，0.96寸OLED 是目前最常见的图形液晶显示器，该模块分辨率为128像素伊64像素，也称为12864OLED。

0.96寸OLED显示屏使用手册前言随着科技的不断发展，OLED显示屏作为一种新型的显示技术已经逐渐成为各种电子产品的标配。

其色彩饱和度高、对比度优秀、响应速度快等特点，使得它在智能穿戴设备、便携设备、医疗设备等领域得到了广泛的应用。

本手册将介绍0.96寸OLED显示屏的使用方法及注意事项，帮助用户更好地了解和操作该显示屏。

一、产品概述0.96寸OLED显示屏是一种小尺寸的OLED显示屏，通常用于智能手环、智能手表、可穿戴设备、小型医疗设备等产品中。

它采用了OLED（有机发光二极管）技术，具有超薄、低功耗、高对比度等特点，能够在低电压下实现高亮度显示。

该显示屏具有128x64像素的分辨率，支持SPI和I2C两种通信方式，便于与各种微控制器或单片机进行连接。

二、使用准备在使用0.96寸OLED显示屏之前，首先需要准备以下设备和材料：1. 0.96寸OLED显示屏模块2. 微控制器或单片机（例如Arduino、Raspberry Pi等）3. 杜邦线或排针4. 电源供应器（如果需要外部供电）三、连接方法0.96寸OLED显示屏通常通过SPI或I2C接口与微控制器或单片机连接。

以下是连接方法的具体步骤：1. 将0.96寸OLED显示屏模块的VCC引脚接到电源正极，将GND引脚接到电源负极，确保接线正确并稳固。

2. 根据所采用的通信方式，将SCL和SDA引脚（对于I2C通信方式）或DC和RES引脚（对于SPI通信方式）连接到微控制器或单片机相应的引脚上。

3. 如需外部供电，连接合适的电源供应器并接通电源。

四、调试与显示连接完成后，可以通过编写程序来控制0.96寸OLED显示屏的显示内容。

以下是一个简单的Arduino示例代码：```#include <Wire.h>#include <Adafruit_GFX.h>#include <Adafruit_SSD1306.h>#define OLED_RESET -1Adafruit_SSD1306 display(128, 64, &Wire, OLED_RESET);void setup() {display.begin(SSD1306_SWITCHCAPVCC, 0x3C);display.display();delay(2000);display.clearDisplay();}void loop() {display.setTextSize(1);display.setTextColor(SSD1306_WHITE);display.setCursor(0,0);display.println("Hello, World!");display.display();delay(1000);display.clearDisplay();}```通过以上示例代码，您可以实现在0.96寸OLED显示屏上显示“Hello, World!”的效果。

0.91inch OLED ModuleUser ManualOVERVIEWThis is a general OLED display Module, 0.91inch diagonal, 128x32 pixels, with embedded controller, communicating via I2C interface.FEATURESController: SSD1306Interface: I2CResolution: 128*32Display Size: 1.5inchDisplay Color: WhiteOperating Voltage: 2.2V/5VPINSPIN DescriptionVCC PowerGND GroundSDA Data inputSCL Clock inputWORKING PROTOCOLSSD1306 is a controller for 128*64 OLED. This OLED has only 128*32 pixels, so it uses part of SSD1306’s buffer.In theory, the OLED supports 8-bit 8080, 8-bits 6800, 3-wires SPI, 4-wires SPI and I2C, however, to save IO resources and because of the small size of OLED, we only pinout I2C interface.I2C COMMUNICATIONWhen working, MCU will first send a byte that the first 7bits are address of slave device and 1 bit write/read bit, and wait for response.After received response from slave device, MCU will send a control byte, this byte defined the data following is command or data.Slave response again, if sending command, MCU will send the command which is one byte. If sending data, MCU will sending dataFor more details about I2C, please refer to Datasheet Page20 Figure 8-7We provide STM32, Arduino and Raspberry Pi demo code for this module. The demo code will release basic functions that: draw point, draw line, draw rectangle, draw circle.STM32 DEMO CODE1.Hardware configurationDevelopment board: XNUCLEO-F103RB2.Project files:Project is compiled in MDK-ARM v5, generated by STM32CubeMX../Src:Adafruit_SSD1306.cpp: Bottom interface of OLED, provide functions that OLED initialize, basic display pixels and configure;Adafruit_GFX.cpp: Application function of OLED, provide display, drawingfunctions.glcdfont.h: LCD font, provide English fonts which size 6*8 and 8*16 RASPBERRY PI CODE1.Hardware connection2.Enable I2Csudo raspi-configchoose Interfacing Options->I2C ->Yes3.Libraries installationAbout how to install I2C libraries, you can refer to Waveshare Wiki:https:///wiki/Libraries_Installation_for_RPiingCopy demo code which you can download from Wiki to Raspberry Pi. The demo code we described are all copied to /home/pia)BCM2835(1) Install bcm2835 libraries(2) use ls command to list the files:bin：./o filesFonts: Include five fonts filesObj: project files are saved here, include main.c, OLED_Driver.c，OLED_Config.c, OLED_GUI.c and their header files.mian.c: main functionOLED_Config.c: Hardware configuration, define pins and communication type OLED_Driver.c: Hardware (OLED) driver.OLED_GUI.c: Application functions, included functions that draw point, line, rectangle, display string, pictures and so on.Show_Pic.h: Pictures data which are used to display. You should convert your pictures to data. (description in net chapter)oled_0in91: executable files, generated by command makeTo run this code, you can execute the command: sudo ./oled_0in91b)WiringPi(1) Install WiringPi libraries(2) use ls command to list the files:The folders included are similar to BCM2835’s. The only differences are that: - WiringPi oprates by read/write the device files of Linux OS. and thebcm2835 is library function of Raspberry Pi’s CPU, it operates registersdirectly. Thus, if you have used bcm2835 libraries firstly, the usage of WiringPi code will be failed. In this case, you just need to reboot the system and try again.- Due to the first difference, they underlying configuration are different. In DEV_Config.c, use wiringpiPi and the corresponding wiringPiSPI to provideunderlay interfaces.To run the code, use the command: sudo ./oled_0in91c)Python(1) use ls command to list the files:(2) Here we used Adafruit librariesbefore run code, you need to install llibraries as below:sudo apt-get updatesudo apt-get install build-essential python-dev python-pipsudo pip install RPi.GPIOsudo apt-get install python-imaging python-smbus(3) Enter directory of python code, execute commands:sudo python Adafruit_Python_SSD1306/setup.py installsudo python stats.pyd)Auto-runTo make the code run automatically after booting, you can configure/etc/rc.local file:sudo vim /etc/rc.localAdd a statement in front of exit 0:sudo python /home/pi/0in91/python/stats.py &Note that if you put the code to different directory, you need to change thepath: /home/pi/ to the correct one. & is necessary at the end, otherwise, youmay cannot login to Raspberry Pi and need to re-burn image)ARDUINO CODE1.Hardware ConnectionDevelopment board: UNO PLUS2.Files Description:../oled:oled.ino: Project file of Arduino, double click to openProject directory:Adafruit_SSD1306.cpp: Bottom interfaces of OLED, includes OLED initialize, basic display and configuration functions.Adafruit_GFX.cpp：Application functions of OLEDAdafruit_SSD1306.h、Adafruit_GFX.h: Header filesglcdfont.h：LCD font, provide English fonts which size 6*8 and 8*163.RunningBefore running the code, you should copy the libraries files of this project to the libraries directory of IDE, which is under the installation directory of Arduino IDE.Note that you cannot put files directly to the libraries directory, you need to save them on a folder, for example 0in91_OLED_Module as below:Then, open olde.ino then download the codeUse software Image2Lcd to open picture (Monochrome picture) and configure: 输出数据类型（Data types）：C语言数据(*.c)扫描方式(Scanning way)：数据水平(data horizonal)，字节垂直(byte vertical) 输出灰度(gray scale)：单色(monochrome)最大宽度和高度(height and width)：128 32 （Resolution of OLED）And then check the option that color invert.。

0.96寸OLED显示屏一、OLED简介OLED，即有机发光二级管(Organic Light Emitting Diode)。

OLED由于同时具备自发光，不需背光源、对比度高、厚度薄、视角广、反应速度快、可用于扭曲性面板、使用温度范围广、构造及制作较简单等优异的特性，被认为是下一代的平面显示器新兴应用技术。

LCD都需要背光，而OLED不需要，因为它是自发光的。

这样同样的显示，OLED效果要来得好一些。

以目前的技术，OLED的尺寸还难以大型化，但是分辨率确可以做到很高。

在此我们使用的是中景园电子的0.96寸OLED显示屏，该屏有以下特点：1、0.96寸OLED有黄蓝、白、蓝三种颜色可以选择，其中黄蓝是屏上1/4部分为黄光，下3/4位蓝光，而且是固定区域显示固定颜色，颜色和显示区域均不能修改。

白光则为纯白，也就是黑底白字。

蓝光则为纯蓝，也就是黑底蓝字。

2、分辨率为128*64，每个像素都是一个LED。

3、多种接口方式，OLED裸屏的接口方式有5种：6800、8080两种并行接口方式、3线或4线的串行SPI接口方式、I2C接口方式(只需要用到2根线就可以控制OLED了！)，这5种接口方式是通过屏上的BS0~BS2来配置的。

4、中景园电子的屏开发了两种接口的DEMO板，接口分别为七针的SPI/I2C兼容模块，四针的I2C模块，两种模块都很方便使用，我们可以根据实际需求来选择不同的模块。

二、模块特点：1、0.96寸OLED裸屏外观裸屏为30Pin，从屏正面看左下角为1脚，右下角为30脚。

在设计的时候一定要注意不要弄反了。

具体的接口方式请大家查看0.96寸OLED官方数据手册，里面有详细介绍。

2、0.96寸OLED模块(1)SPI/I2C接口模块(7脚)(2)I2C接口模块(4脚)3、0.96寸OLED的驱动IC芯片(SSD1306)本屏所用的驱动IC芯片为SSD1306，其具有内部升压功能，所以在设计的时候就不需要再专门设计升压电路了。

0.96inch LCD ModuleUser ManualOVERVIEWThis is a general LCD display Module, IPS screen, 0.96inch diagonal, 160x80 HD resolution, with embedded controller, communicating via SPI interface.Examples are provided for testing. Examples are compatible with Raspberry Pi (bcm2835, wiringPi and python), STM32 and ArduinoSPECIFICATIONOperating Voltage : 3.3VInterface : SPIType : TFTControl Driver : ST7735SResolution : 160 (V) RGB x 80 (H) mmViewing Area : 21.7 (V) x 10.8 (H) mmPixel size : 0.1356（V）x 0.135（H）mmDimension : 32.5 x 26.00 (mm)PINOUTOverview (1)Specification (1)Pinout (2)Hardware (5)Controller (5)Communication protocol (5)Demo codes (7)Download (7)Raspberry Pi (7)Copy to Raspberry Pi (7)Libraries install (8)Hardware connection (10)Running examples (10)Expected result (11)STM32 (12)Hardware connection (12)Expected result (12)Arduino (13)Hardware connection (13)Expected result (13)FAQ (14)CONTROLLERST7735S is a controller for 162 x RGB x132 LCD. Note that the resolution of this LCD module is 160(H)RGBx80(V) indeed.ST7735S supports RGB444, RGB565 and RGB666 three formats. This LCD module we use RGB565.Because that the first pixel of the LCD is different with the origin point of controller, therefore, we should offset the position when initialize the module: Horizontal: begin from the second pixel; Vertical: begin from the 27th pixel. Make sure that the display position of LCD is same as RAM.For most of the LCD controller, there are several interfaces for choosing, this module we use SPI interface which is fast and simple.COMMUNICATION PROTOCOLNote: It is not like the tradition SPI protocol, it only uses MOSI to send data from master to slave for LCD display. For details please refer to Datasheet Page 105. RESX: Reset, should be pull-down when power on, set to 1 other time.CSX: Slave chip select. The chip is enabled only CS is set LowD/CX: Data/Command selection; DC=0, write command; DC=1, write dataSDA: Data transmitted. (RGB data)SCL: SPI clockThe SPI communication protocol of the data transmission uses control bits: clock phase (CPHA) and clock polarity (CPOL):CPOL defines the level while synchronization clock is idle. If CPOL=0, then it is LOW. CPHA defines at wh ish clock’s tick the data transmission starts. CPHL=0 – at the first one, otherwise at the second oneThis combination of two bits provides 4 modes of SPI data transmission. The commonly used is SPI0 mode, i.e. GPHL=0 and CPOL=0.According to the figure above, data transmitting begins at the first falling edge, 8bit data are transmitted at one clock cycle. It is SPI0. MSB.DOWNLOADVisit Waveshare wiki and search for 0.96inch LCD Module. Download the demo code:Extract and get the folders as below:Arduino: For Arduino UNORaspberry Pi: Includes three examples, BCM2835, WiringPi and PythonSTM32: For XNUCLEO-F103RB, which integrate STM32F103RBT6RASPBERRY PICOPY TO RASPBERRY PI1.Insert SD card which has Raspbian installed to your PC2.Copy RaspberryPi extracted to root directory (BOOT) of SD card3.Power on your Raspberry Pi and open Terminal, you can find that the examples islisted in boot directory4.Copy the RaspberryPi folder to /home/pi and change its execute permission.LIBRARIES INSTALLTo use the demo codes, you need to first install librariesInstall BCM2835:xx is the version of library. For example, if the library you download is bcm2835-1.52, the command should be : sudo tar zxvf bcm2835-1.52.tar.gzInstall wiringPi：Install Python libraries:HARDWARE CONNECTIONRUNNING EXAMPLESEnter the folder: cd RaspberryPi/bcm2835 example:Press Ctrl and C to stop running wiringpi example:Press Ctrl and C to stop running python example:Press Ctrl and C to stop running EXPECTED RESULT1.Clear screen2.Display number and strings3.Draw figures4.Display 40 x 40 image5.Display 160x80 imageSTM32The development board used is XNUCLEO-F103RB, based on HAL library HARDWARE CONNECTIONEXPECTED RESULT1.Clear screen2.Display number and strings3.Draw figures4.Display 40x40 image5.Display 160x80 imageARDUINOThis example is compatible with Arduino UNO HARDWARE CONNECTIONEXPECTED RESULT1.Clear screen2.Display number and strings3.Display figures4.Display 40x40 imageFAQ1.How to control backlight?- You can use the function LCD_SetBacklight() to control the backlight2.Why the LCD is black when working with Raspberry Pia) Check if SPI interface was enabledb) Check if the BL pin work normally, if the pin has no output, please try todisconnect the BL control pin3.What does it happen if using Raspberry Pi improperly?If you run python or bcm2835 examples after wiringPi, the LCD may cannot work normally, please try to restart Raspberry Pi can try again.4.How to rotate display?-You can use the function Paint_SetRotate(Rotate) to rotate display. Rotate should be 0, 90, 180 or 270.-Python can call rotate(Rotate) function for any angle.5.Python Image library- For some of the OS, you should execute command to install python-imaging library: sudo apt-get install python-imaging。

Instruction ManualOverviewAn IPS, full colour TFT module, offering 80 degree viewing angles allround, with a 500nit backlight. It is a transmissive type display operating in the normally black mode.This TFT LCD has a 0.96-inch diagonally measured active display area with 80 x 160 dot (80 horizontal by 160 vertical pixel) resolution. Each pixel is divided into Red, Green, Blue dots which are arranged in vertical stripes.Technical Specificationsz Size: 0.96 inchz Dot Matrix: 80 x RGB x 160(TFT) dotsz Module dimension: 13.5(W) x 27.95(H) x 3.00(D) mmz Active area: 10.8 x 21.696 mmz Dot pitch: 0.135 x 0.1356 mmz LCD type: TFT, Normally black, Transmissivez Viewing Angle: 80/80/80/80z Aspect Ratio: 1:2z IC: ST7735Sz Backlight Type: LED,Normally Whitez With /Without TP: Without TPz Surface: Glare*Colour tone slight changed by temperature and driving voltage.InterfacePin DefinitionTechnical DrawingAbsolute Maximum Ratings1. Temp. ≤60˚C, 90% RH MAX. Temp.>60˚C, Absolute humidity shall be less than 90% RH at 60˚C.Electrical CharacteristicsOperating conditions:Note 1 : There are 1 Groups LEDNote 2 : Ta = 25 ˚CNote 3 : Brightness to be decreased to 50% of the initial valueNote 4 : The single LED lamp caseData Colour Coding3-Wire SPI Mode: RGB 5-6-5-bit Input, 65K-Colours, 3AH=“05h”Look-up table for 65k colour mapping (16 bits to 18 bits) Note 1: Pixel data with the 16-bit colour depth informationNote 2: The most significant bits are: Rx4, Gx5 and Bx4Note 3: The least significant bits are: Rx0, Gx0 and Bx04-Wire SPI Mode: RGB 5-6-5-bit Input, 65K-Colours, 3AH=“05h”Look-up table for 65k colour mapping (16 bits to 18 bits) Note 1. Pixel data with the 16-bit colour depth informationNote 2. The most significant bits are: Rx4, Gx5 and Bx4Note 3. The least significant bits are: Rx0, Gx0 and Bx0Display Options availableTFT display as a stand-alone itemDisplay on pcb with mountingOptical CharacteristicsTa=25±2˚CNote 1: Definition of viewing angle rangeNote 2: Test equipment setup:After stabilizing and leaving the panel alone at a driven temperature for 10 minutes, the measurement should be executed. Measurement should be executed in a stable, windless, and dark room. Optical specifications are measured by Topcon BM-7orBM-5 luminance meter 1.0° field of view at a distance of 50cm and normal direction.Note 3: Definition of Response time:The response time is defined as the LCD optical switching time interval between “White” state and “Black” state. Rise time, Tr, is the time between photo detector output intensity changed from 90%to 10%.Black(TFT ON)White(TFT OFF)White(TFT OFF)100%90%10%0%DisplayNote 4: Definition of contrast ratio:The contrast ratio is defined as the following expression.Luminance measured when LCD on the “White” state Contrast ratio (CR) = Luminance measured when LCD on the “Black” stateNote 5: White Vi = Vi50 ± 1.5V Black Vi = Vi50 ± 2.0V“±” means that the analog input signal swings in phase with VCOM signal.“±” means that the analog input signal swings out of phase with VCOM signal.The 100% transmission is defined as the transmission of LCD panel when all the input terminals of module are electrically opened.Note 6: Definition of colour chromaticity (CIE 1931)Colour coordinates measured at the center point of LCDNote 7: Measured at the center area of the panel when all the input terminals of LCD panel are electrically opened.ReliabilityContent of Reliability Test (Wide temperature, -20˚C~70˚C)Environmental TestNote1: No dew condensation to be observed.Note2: The function test shall be conducted after 4 hours storage at the normal Temperature and humidity after remove from the test chamber.Note3: The packing have to including into the vibration testing.。

中景园电子0.96OLED显示屏_模块说明书
一、OLED技术特点
（1）OLED 器件的核心层厚度很薄，厚度可以小于1mm，为液晶的1/3。

（2）OLED 器件为全固态机构，无真空，液体物质，抗震性好，可以适应巨大的加速度，振动等恶劣环境。

（3）主动发光的特性使OLED 几乎没有视角限制，视角一般可达到170 度，具有较宽的视角，从侧面也不会失真。

（4）OLED 显示屏的响应时间超过TFT—LCD 液晶屏。

TFT—LCD 的响应时间大约是几十毫秒，现在做得最好的TFT—LCD 响应时间也只有12 毫秒。

而OLED 显示屏的响应时间大约是几微秒到几十微秒。

（5）OLED 低温特性好，在零下40 摄氏度都能正常显示，目前航天服上也使用OLED 作为显示屏。

而TFT—LCD 的响应速度随温度发生变化，低温下，其响应速度变慢，因此，液晶在低温下显示效果不好。

（6）OLED 采用有机发光原理，所需材料很少，制作上比采用液体发光的液晶工序少，液晶显示屏少 3 道工序，成本大幅降低。

（7）OLED 采用的二极管会自行发光，因此不需要背面光源，发光转化效率高，能耗比液晶低，OLED 能够在不同材质的基板上制造，厂家甚至可以将电路印刷在弹性材料上——做成能弯曲的柔软显示器。

（8）低电压直流驱动，5V 以下，用电池就能点亮。

高亮度，可达300 明流以上。