Adafruit
Monochrome 1.3 128x64 OLED graphic display
A crisp 1.3" monochrome OLED display with 128×64 white pixels, driven by the SSD1306 controller. Each pixel is individually addressable, and because OLEDs em...
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A crisp 1.3" monochrome OLED display with 128×64 white pixels, driven by the SSD1306 controller. Each pixel is individually addressable, and because OLEDs emit their own light, no backlight is needed — resulting in excellent contrast and readability in a compact form factor.
The breakout board includes a 3.3V regulator and full logic-level shifting, so it works with both 3.3V and 5V microcontrollers. The SSD1306 supports both I2C and SPI communication. An Arduino library is available for drawing text, bitmaps, pixels, rectangles, circles, and lines.
Key Features
- 1.3" OLED Display – 128×64 white pixels, high contrast
- SSD1306 Driver – I2C or SPI communication
- 3.3V and 5V Compatible – On-board regulator and level shifting
- No Backlight Required – Self-emitting pixels for sharp, clear output
- Low Power – ~40 mA average from 3.3V supply
- Built-In Charge Pump – Generates OLED drive voltage from 3.3–5V input
Specifications
- Display Size – 1.3" diagonal
- Resolution – 128 × 64 pixels
- Pixel Colour – White
- Driver IC – SSD1306
- Interface – I2C or SPI
- Supply Voltage – 3.3–5V (on-board regulator)
- Current Draw – ~40 mA typical
- RAM Required – 1 KB (for display buffer)
Ideal For
- Sensor readout displays
- Status screens for microcontroller projects
- Portable and battery-powered devices
- Arduino, Raspberry Pi, and ESP32 projects
Package Contents
- 1× Monochrome 1.3" 128×64 OLED Graphic Display
Resources
Jargon buster
Plain-language definitions for the technical terms used above.
- 3.3V regulator
- A 3.3V regulator is a power circuit that provides a steady 3.3 volts for parts that need that supply voltage. On a breakout board, it can let the sensor run safely even when the connected microcontroller or power source uses a higher voltage.
- breakout
- A breakout board carries a small or fine-pitched component and brings its connections out to standard, breadboard- and header-friendly pins. Describing a part as a breakout means it can be wired into a project without soldering directly to the component's tiny contacts.
- ESP32
- ESP32 is a family of low-cost microcontroller chips and modules from Espressif with built-in WiFi and Bluetooth. They support programmable firmware and over-the-air updates, and are commonly programmed with toolchains such as the Arduino core and ESP-IDF.
- I2C
- I2C is a two-wire communication bus used by many sensors and small modules. It matters because several I2C devices can share the same two wires, but each device needs a compatible address and your controller must support I2C.
- logic-level shifting
- Logic-level shifting converts digital signals between different voltage levels, such as 3.3V and 5V. It lets devices connect safely to microcontrollers and peripherals that use different logic voltages without damaging either side.
- microcontroller
- A microcontroller is a small computer on a single chip that runs a stored program and controls connected inputs and outputs such as buttons, sensors, displays and communication interfaces. In a device built around one, it is the part that executes the code and coordinates the device's behaviour.
- OLED
- OLED stands for organic light-emitting diode, a display type where each pixel produces its own light. It matters because OLED screens are thin, high-contrast and easy to read for small status displays, but they can be more sensitive to image burn-in than some other display types.
- RAM
- RAM (random-access memory) is fast, temporary memory a device uses for working data while it is running; in its common volatile form, its contents are lost when power is removed. Some devices offer a mode that applies settings to RAM only, which is handy for testing changes temporarily because they are not stored permanently and disappear at power-off.
- SPI
- A fast serial communication bus often used for displays, memory cards, and sensors. It matters because SPI devices need specific pins for clock and data, plus a separate chip-select line for each device.
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