SparkFun
Arduino Industrial 101
The Arduino Industrial 101 is a compact WiFi evaluation board based on the Arduino 101 LGA module. Combining an ATmega32U4 microcontroller with an Atheros AR...
The Arduino Industrial 101 is a compact WiFi evaluation board based on the Arduino 101 LGA module. Combining an ATmega32U4 microcontroller with an Atheros AR9331 MIPS Linux processor, it provides a powerful platform for IoT projects without the need for multiple shields.
Similar to the Arduino Yun in a smaller form factor, the Industrial 101 runs LininoOS (a Linux distribution based on OpenWRT) and features built-in WiFi, Ethernet headers, USB host, and multiple GPIO pins. The onboard DC/DC converter simplifies power management.
Key Features
- Dual Processor Architecture – ATmega32U4 (16MHz, 5V) for Arduino tasks and Atheros AR9331 (400MHz, 3.3V) for Linux
- Built-in WiFi – IEEE 802.11b/g/n up to 150Mbps at 2.4GHz
- Ethernet Support – 802.3 10/100 Mbit/s (on pin headers)
- USB 2.0 Host – Available on pin headers for peripherals
- Linux Onboard – Runs LininoOS (OpenWRT-based) with 16MB flash and 64MB DDR2 RAM
- Compact Form Factor – Small footprint ideal for embedded and industrial applications
- Built-in DC/DC Converter – 5V input with 130mA power consumption
Specifications
- Linux Processor (AR9331) – MIPS architecture, 400MHz, 3.3V operating voltage, 16MB flash, 64MB DDR2 RAM
- Microcontroller (ATmega32U4) – AVR architecture, 16MHz, 5V operating voltage, 2.5KB SRAM, 1KB EEPROM
- Digital I/O Pins – 20 total (7 exported on headers)
- Analog I/O Pins – 12 total (4 exported on headers)
- PWM Outputs – 7 total (2 exported on headers)
- GPIO – 3 exported on headers (2 usable as PWM)
- DC Current per I/O Pin – 40mA
- Input Voltage – 5V
Ideal For
- IoT projects requiring WiFi and Linux capabilities
- Embedded systems and industrial automation
- Network-connected sensor nodes
- Prototyping connected devices in a compact form factor
Package Contents
- 1× Arduino Industrial 101
Resources
Jargon buster
Plain-language definitions for the technical terms used above.
- AVR
- AVR is a family of 8-bit microcontrollers used in many classic Arduino-style boards. If a USB host library mentions AVR support, it suggests the examples or compatibility may be aimed at those older microcontroller boards.
- EEPROM
- A type of non-volatile memory that keeps stored data even when power is turned off. In a sensor module, it can be used to store settings or calibration data so they do not need to be re-entered every time.
- GPIO
- General-purpose input/output pins are microcontroller pins you can set in software to read signals, switch devices on and off, or connect to peripherals. The number of GPIO pins matters because it limits how many buttons, LEDs, sensors, and other parts you can wire directly to the board.
- Headers
- Rows of metal pins used to plug a module into a breadboard or connect it with jumper wires. Pre-soldered headers make the module easier to use straight away without needing to solder the pins yourself.
- IoT
- Short for Internet of Things, meaning physical devices that connect to networks or the internet to send data or be controlled remotely. It matters if you want projects such as connected sensors, remote controls or classroom data-logging activities.
- microcontroller
- A microcontroller is a small computer on a chip that runs your program and controls connected inputs and outputs. For this product, it is the part that reads buttons and sensors, drives the display and speaker, and communicates over Bluetooth.
- PWM
- Pulse Width Modulation is a way for a digital pin to simulate variable output power by switching on and off very quickly. It matters for controlling things like LED brightness, motor speed, or servo-style signals from a microcontroller pin.
- RAM
- RAM is temporary memory used while a device is running, and its contents are lost when power is removed. A “Run in RAM” mode is useful for testing settings without permanently programming the module, but it may not support every feature.
- SRAM
- Fast temporary memory used by a processor while a program is running. More SRAM helps with projects that handle larger data buffers, networking, displays, or more complex code.
- USB host
- A USB host is the side of a USB connection that controls attached devices, like a computer talking to a keyboard or flash drive. This matters because most microcontroller boards are normally USB devices, so adding USB host support lets them use common USB peripherals.
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