3-wire serial lcd module supplier

This LCD module uses a 128x64 liquid crystal display that support Chinese character,  English characters and even graphics. It is suitable for interactive work with Arduino.

It features a backlit control, pallerlel or serial control, contrast adjust. It can be connect to our interface shield for arduino via IDC6 socket and Cable for Shiftout.

The LCD is shipped in Pallelel mode in default.  The R9 is used to set the interface mode. To switch to SPI mode, the R9 resistor need to be moved to R10

This LCD module uses a 128x64 liquid crystal display that support Chinese character , English characters and even graphics. It can exhibit 4 lines and 12 English characters/6 Chinese characters per line. It is suitable for interactive work with Arduino.

The following sample is working under 3-Wire mode. It demonstrates how to display integers on the LCD screen. You will need the Arduino Library which can be downloaded here.

※Controller IC Replacement NoticeDue to the global shortage of IC, the controller RA8876 used in this module has been difficult to purchase. In order not to affect the delivery, we will use the controller LT7683 as replacement which is fully compatible with the same stable performance. (Oct-28-2021)

ER-TFTM101-1 is 1024x600 dots 10.1 "color tft lcd display with RA8876 or LT7683 controller board,Optional capacitive touch panel with controller and resistive touch panel,superior display quality and easily controlled by MCU such as 8051(C51), PIC, AVR, ARDUINO,ARM and Raspberry PI .It can be used in any embedded systems,industrial device,security and hand-held equipment which requires display in high quality and colorful image.Portrait mode is also available.

It supports 8080 6800 8-bit,16-bit parallel,3-wire,4-wire,I2C serial spi interface.Built-in MicroSD card slot.It"s optional for touch panel controller,4-wire resistive touch panel screen. font chip, flash chip and microsd card. We offer two types connection,one is pin header and the another is ZIF connector with flat cable mounting on board by default and suggested.

LCD module is widely used in Healthcare Biomedical Instrumentation,and clinical diagnostics,Wind Sensors for Measurement,Control, Alarm, Internet Access,metering pumps and dosing systems,water treatment ,charging pile and car beauty equipment andIndustrial control equipment, instruments and meters, bank terminal,industry machinery equipment as well as electrical home appliances, consumer electronics including white goods, POS system, home applications, industrial instrument, automation, audio/visual display systems, and medical device ect.

Shenzhen Brilliant crystal Technologic Co.,ltd a professional Character and Graphic LCD manufacturer.graphic LCD displays (liquid crystal display) are available in dot matrix format of graphic resolution including 122x32, 128x64, 128x128, 256x64, 160x128, 160x160, 160x32, 160x80, 192x64,240x128 dots 240x64, 320x240 and etc. The sizes are including 3" LCD, 3.2" LCD, 4" LCD Display, and etc. Graphic LCD modules are including different options of polarizer in reflective, transmissive or transflective types. Our LED backlights are available in various colors including yellow/green, white, blue, red, amber and RGB.

The parallel interface typically controls the LCD via 8 data pins and 3 control lines. The control lines used are Enable (E), Register Select (RS), and Read/Write (R/W). RS tells the LCD module if the information being sent is an Instruction or Data. The Enable tells the LCD module that the data or instruction in the register is ready to be interpreted by the LCD Module. Some controllers may have more than one Enable Control Line. The Read/Write tells the module whether to write data or read data from the register.

Serial LCD controllers typically have one Serial Data Line that writes data and cannot read. Normally, a Register Select Line(Sometimes designated A0) is used to tell the controller whether the incoming data is display information or a controller command

SPI, or Serial Peripheral Interface bus, is a synchronous (data is synchronized to the clock) serial data link standard that operates in full duplex mode, which means that devices that can communicate with one another simultaneously. To do this, two data lines are required. With this standard, devices communicate in a master/slave mode, where the master device (host processor) initiates the data and the clock. The LCD module is the (or one of the) peripheral slave device(s) attached to the data bus. Multiple peripherals (display modules and other devices) are addressed on the same serial data bus. However, the LCD module will only listen to the data it sees when the Chip Select line is active (usually low). If the Chip Select line is inactive (usually High), the LCD module listens to the data on the bus, but ignores it. The SDO line is not active when this state occurs. The SPI bus is comprised of four logic signals, two control lines and two data lines and is commonly referred to as SPI (4 wire).

Occasionally, SDI (serial data in) may be called out as MOSI (Master Out Slave In) from Motorola"s original name for these lines and MISO (Master In Slave Out) for SDO. The chip select line may be alternatively labeled SS (Slave-Select), or STE (Slave Transmit Enable). SPI is sometimes referred to as National Semiconductor"s trademark Microwire, which is essentially a predecessor of SPI, which only supports half duplex.

With CS (Chip-Select) the corresponding peripheral device is selected by the LCD Controller. This pin is mostly active-low. In the unselected state the SDO lines are hi-impedance and therefore inactive. The clock line SCL is brought to the device whether it is selected or not. The clock serves as synchronization of the data communication.

The chip select signal CS is optional for a single device system, because you could tie the CS input at the LCD Module low, if the other lines are dedicated to SPI use. This is sometimes called a 3 Wire SPI Interface.

SPI Data transmissions usually involve two shift registers. Most display module applications normally use 8-bit words. However, different size words, such as 12 bit, are also used. By convention, the most significant bit is shifted out of one shift register while the least significant bit is shifted in. The word is then written into memory if the CS (chip-select) is low (active). If not, the data is ignored.

Since the SPI interface protocol is a de facto standard, many variations of the standard protocol are used. For instance, chip manufacturers may use some of the parallel data lines when configuring the IC driver chip for serial communication. chip manufacturers may use some of the parallel data lines when configuring the IC driver chip for serial communication.

I2C uses only two bi-directional lines, Serial Data Line (SDA) and Serial Clock (SCL), which are both typically pulled up with resistors. Typical voltages used are +5 V or +3.3 V. One of the strengths of the I2C interface is that a micro can control multiple devices with just the two I/O pins and software. Because of the I2C design, it is only half-duplex. The interface generally transmits 8-bit words, sending the most significant bit first.

A display interface that is common for TFT displays is the combination of the 3-wire Serial Peripheral Interface (SPI) and the 16/18/24-bit RGB parallel interface. The two interfaces are used in a sequence to communicate data to the display. This note will discuss how to set up a display using the 3-wire SPI+24-bit RGB parallel interface.

The 3-wire Serial Peripheral Interface (SPI) and the 16/18/24-bit RGB parallel interface are used in a sequence to communicate data to the display. The SPI interface is first used to initialize the display parameters through command registers. Once initialized, the display can receive data over the RGB parallel interface at a higher speed. This data can be sent in segments of 16, 18 or 24-bit lengths depending on what is specified by the SPI initialization commands.

There are 45 pins that are required to be connected to the graphics controller. This includes the 3-wire SPI interface pins and the 24-bit parallel RGB data pins. This display is operated at a low voltage of 3.3V which can be provided by the microcontroller. The display has an additional feature of IPS view, and a bright backlight operated at 19.2V. The backlight voltage will need to be provided externally to the display. Below are the pin functions and connections between the display and the controller.

The serial interface clock is run at a lower frequency of 2Mhz. This frequency was chosen to maintain signal integrity and can be changed to any value between 1-15Mhz for this controller. At higher frequencies, noise can become a factor and create errors when sending commands and data. Since the SPI interface is only used to send 8-bit commands to initialize the display, it does not require a high frequency clock. This makes it possible for a basic microcontroller to provide these signals without the use of the graphics controller.

The 3-wire SPI interface is used to send 8-bit commands and data to initialize the display. Each of these commands can be found in the specification sheet for the display’s embedded controller IC ST7701S. These commands specify the selection of color format, resolution, timing parameters and power control. There are a few ways to send these commands to the display.

The RGB interface can now be used to transmit data to the display. The serial interface no longer needs to be used after initialization is complete. Now the 24 RGB data pins will send the 24-bits of RGB data per clock cycle. The data in this example is processed at 24bpp. This means that each pixel will have 24-bits of information for the color depth and that the display is capable of 24 million different color variations.

Buyers and others who are developing systems that incorporate FocusLCDs products (collectively, “Designers”) understand and agree that Designers remain responsible for using their independent analysis, evaluation and judgment in designing their applications and that Designers have full and exclusive responsibility to assure the safety of Designers" applications and compliance of their applications (and of all FocusLCDs products used in or for Designers’ applications) with all applicable regulations, laws and other applicable requirements.

Designer agrees that prior to using or distributing any applications that include FocusLCDs products, Designer will thoroughly test such applications and the functionality of such FocusLCDs products as used in such applications.

This LCD module uses a 128x64 liquid crystal display that support Chinese character,  English characters and even graphics. It is suitable for interactive work with Arduino.

It features a backlit control, pallerlel or serial control, contrast adjust. It can be connect to our interface shield for arduino via IDC6 socket and Cable for Shiftout.

The LCD is shipped in Pallelel mode in default.  The R9 is used to set the interface mode. To switch to SPI mode, the R9 resistor need to be moved to R10

wiki:This LCD module uses a 128x64 liquid crystal display that support Chinese character, English characters and even graphics. It is suitable for interactive work with Arduino.

The Parallax Serial LCDs (liquid crystal displays) can be easily connected to and controlled by a microcontroller using a simple serial protocol sent from a single I/O pin. The LCD displays provide basic text wrapping so that your text looks correct on the display. Full control over all of their advanced LCD features allows you to move the cursor anywhere on the display with a single instruction and turn the display on and off in any configuration. They support visible ASCII characters Dec 32-127). In addition, you may define up to eight of your own custom characters to display anywhere on the LCD. An onboard piezospeaker provides audible output, with full control over tone note, scale and duration using ASCII characters Dec 208–232.

The LCDs currently for sale are updated to Revision F. Basic functionality remains the same, but power requirements and the layout of the backpack have changed. Please see the documentation for information on your model.

This device can be connected to a PC serial port using a MAX232 line driver. The circuit isn’t supported by Parallax, but it’s possible to make this connection with a few extra parts.

The Serial Peripheral Interface (SPI) is a synchronous serial communication interface specification used for short-distance communication, primarily in embedded systems. The interface was developed by Motorola in the mid-1980s and has become a de facto standard. Typical applications include Secure Digital cards and liquid crystal displays.

Sometimes SPI is called a four-wire serial bus, contrasting with three-, two-, and one-wire serial buses. The SPI may be accurately described as a synchronous serial interface,Synchronous Serial Interface (SSI) protocol, which is also a four-wire synchronous serial communication protocol. The SSI protocol employs differential signaling and provides only a single simplex communication channel. For any given transaction SPI is one master and multi slave communication.

Another variation uses exactly two chip selects. One chip select controls a block of selection logic, the other is routed by the selection logic. The application is common enough that there are available serial-controlled multiplexers.

The key parameters of SPI are: the maximum supported frequency for the serial interface, command-to-command latency and the maximum length for SPI commands. It is possible to find SPI adapters on the market today that support up to 100 MHz serial interfaces, with virtually unlimited access length.

SPI protocol being a de facto standard, some SPI host adapters also have the ability of supporting other protocols beyond the traditional 4-wire SPI (for example, support of quad-SPI protocol or other custom serial protocol that derive from SPI

A Queued Serial Peripheral Interface (QSPI; see also Quad SPI) is a type of SPI controller that uses a data queue to transfer data across the SPI bus.wrap-around mode allowing continuous transfers to and from the queue with only intermittent attention from the CPU. Consequently, the peripherals appear to the CPU as memory-mapped parallel devices. This feature is useful in applications such as control of an A/D converter. Other programmable features in QSPI are chip selects and transfer length/delay.

SPI controllers from different vendors support different feature sets; such DMA queues are not uncommon, although they may be associated with separate DMA engines rather than the SPI controller itself, such as used by Multichannel Buffered Serial Port (MCBSP).

For instances where the full-duplex nature of SPI is not used, an extension uses both data pins in a half-duplex configuration to send two bits per clock cycle. Typically a command byte is sent requesting a response in dual mode, after which the MOSI line becomes SIO0 (serial I/O 0) and carries even bits, while the MISO line becomes SIO1 and carries odd bits. Data is still transmitted msbit-first, but SIO1 carries bits 7, 5, 3 and 1 of each byte, while SIO0 carries bits 6, 4, 2 and 0.

Further extending quad SPI, some devices support a "quad everything" mode where all communication takes place over 4 data lines, including commands.Intel QuickPath Interconnect) or "serial quad I/O" (SQI)

Intel has developed a successor to its Low Pin Count (LPC) bus that it calls the Enhanced Serial Peripheral Interface Bus, or eSPI for short. Intel aims to allow the reduction in the number of pins required on motherboards compared to systems using LPC, have more available throughput than LPC, reduce the working voltage to 1.8 volts to facilitate smaller chip manufacturing processes, allow eSPI peripherals to share SPI flash devices with the host (the LPC bus did not allow firmware hubs to be used by LPC peripherals), tunnel previous out-of-band pins through the eSPI bus, and allow system designers to trade off cost and performance.

Not to be confused with the SDIO(Serial Data I/O) line of the half-duplex implementation of the SPI bus, sometimes also called "3-wire SPI-bus". Here e.g. MOSI (via a resistor) and MISO (no resistor) of a master is connected to the SDIO line of a slave.

Enhanced Serial Peripheral Interface (eSPI) Interface Specification (for Client Platforms) (PDF) (Report). Revision 0.6. Intel. May 2012. Document Number 327432-001EN. Retrieved 2017-02-05.

An important aspect to consider when working with electronic devices is the type of data communication protocol they use. Serial communications are widely utilized in the electronics industry due to their relative simplicity and low hardware requirements compared to parallel interface communications.

RS232 (Recommended Standard 232) is a serial binary data communication standard introduced in 1960. The standard defines pins and signals connecting between a data terminal equipment (DTE) and a Data Communications Equipment (DCE).

The scope of the RS232 standard defines electrical, functional, and mechanical signal characteristics of point-to-point serial data communication between the Data Terminal Equipment (DTE) and the Data Communications Equipment (DCE).

RS232 TTL is a term used to refer to a type of serial communication protocol that uses RS232-type specifications but with logic signals compatible with TTL (transistor-transistor logic) circuits. The voltage levels of TTL serial communication always stay between 0V (logic 0) and Vcc (logic 1, which is typically 3.3V or 5V).

RS232 is no longer the primary standard across consumer products due to existing newer and more advanced technologies like USB. However, the RS232 standard is still used in industrial and commercial applications with simple serial data communication requirements, such as industrial controls, automation equipment, network communications, robotics, and medical equipment.

RS232 is a low-cost serial interface compatible with many new and legacy devices, is easy to implement, has simplified wiring, and has good immunity to EMI. Some of the RS232 disadvantages are low data communication speeds, negative and positive signal voltages can complicate power supply design, limited to single master and single slave, and its unbalanced transmission can be prone to noise.

RS232 is an excellent choice for applications requiring simple, low-speed serial communication. Although the original purpose of the standard was to connect a terminal with a modem, it has been used beyond the scope of its original purpose due to its simplicity and relatively low cost.

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