An edge-AI computer pairing a 40 TOPS Qualcomm Dragonwing IQ8 with an STM32H5 microcontroller for on-device AI and real-time control.
In stock, ships same business day if ordered before 2PM
Delivered by Tue, 17th of Nov
An edge-AI single-board computer that can see, understand, and physically respond to the world around it. Perception, decision-making and actuation all happen on the board, with no cloud dependency and no data leaving the device.
Two processors with different purposes share the work over a high-speed RPC bridge. A Qualcomm Dragonwing IQ8 (IQ-8275) with an 8-core ARM CPU, an Adreno GPU, Spectra 692 ISP, and a Hexagon NPU rated at up to 40 dense TOPS, all on one SoC, runs your neural networks, vision pipelines and language models. Alongside it, an STM32H5F5 Cortex-M33 runs the Arduino core on Zephyr for sub-millisecond, deterministic control of motors, robots and industrial I/O. On-device intelligence and real-time actuation usually take two separate systems; here they share one 160 × 100 mm board.
Everything is developed in Arduino App Lab, where Arduino sketches, Python scripts, Linux applications and AI models sit side by side. Use the board as a standalone computer with a monitor, keyboard and mouse on an Ubuntu or Debian desktop, or connect from your existing laptop over USB-C or Ethernet.
It works with hardware you may already own: Arduino UNO shields on the UNO headers, Raspberry Pi HATs on the standard 40-pin GPIO header, and Qwiic, PiicoDev, STEMMA QT and Modulino I2C modules through the solder-free Qwiic connector. Plan for around 25 W of power draw: through USB-C PD, a barrel jack or the screw terminals.
We recommend a 12 V Power Supply, along with a compatible IEC adapter, or, once set up, a 65+ W USB-C supply and a high-quality USB-C cable.
Runs language, vision-language and speech models fully offline, with a curated library that includes Qwen LLM and VLM, Whisper transcription and Melo TTS
Recognises gestures, tracks objects and detects poses on-device using ready-to-run MediaPipe, YOLO-X and PoseNet models
Gets complex systems prototyped quickly with App Lab Bricks: reusable blocks for IoT endpoints, audio and image recognition, database queries and more
Keeps actuator control deterministic, with native ROS 2 support and GPIO, PWM and CAN-FD handled by the dedicated real-time microcontroller
Connects to industrial and vehicle networks through five CAN-FD channels, one with an onboard transceiver on a screw terminal
Moves data quickly over 2.5 Gb Ethernet, Wi-Fi 6 and Bluetooth 5.3, with onboard antennas
Handles several cameras and displays at once via MIPI-CSI, USB cameras, HDMI or MIPI-DSI, and DisplayPort Alt Mode over USB-C
Expands storage beyond the 64 GB eMMC with an M.2 2230 slot for an NVMe Gen 4 SSD
Supports custom carrier designs, with high-speed JMEDIA, JOMEGA and JMISC headers for cameras, displays, audio and extra USB and CAN
Property | Value |
|---|---|
AI processor (MPU) | Qualcomm Dragonwing IQ8 (IQ-8275): 8-core ARM CPU, Adreno GPU @ 877 MHz, Hexagon NPU up to 40 dense TOPS, Spectra 692 ISP |
Operating system | App Lab running on Ubuntu or Debian |
Microcontroller (MCU) | STM32H5F5 ARM Cortex-M33 @ 250 MHz, 4 MB flash, 1.5 MB RAM; Arduino core on Zephyr |
Memory | 16 GB LPDDR5 |
Storage | 64 GB eMMC; add your own with the M.2 connector for NVMe Gen 4 SSD (2230) |
Wireless | Wi-Fi 6 (2.4/5/6 GHz), Bluetooth 5.3, onboard antennas |
Wired networking | 1 × 2.5 Gb Ethernet (RJ45) |
Cameras | USB camera support; 3 × MIPI-CSI (muxed with 2 more on JMEDIA header) |
Display | HDMI (muxed with MIPI-DSI), USB-C DisplayPort Alt Mode, MIPI-DSI on JMEDIA |
Audio | 2 × mic in, headphone, ear and line out on JMISC header |
USB | 1 × USB-C (host/device/power role switching, video), 2 × USB 3.0 Type-A, 2 × USB 3.0 on JOMEGA header |
CAN | 1 × CAN-FD with PHY (screw terminal), 3 × CAN-FD on JOMEGA, 1 × CAN-FD on the UNO shield headers |
Expansion | Arduino UNO shield headers, 40-pin Raspberry Pi HAT-compatible GPIO header, Qwiic connector, JMEDIA, JOMEGA and JMISC headers |
Power input | USB-C 9-20 V, 3 A 5.5 × 2.1 mm jack 12-24 V, 5 A max Screw terminal 7-24 V, 10 A max |
Power consumption | Approximately 25 W+ during typical use, a 60 W+ supply is recommended |
Dimensions | 160 × 100 × 25.8 mm |
VENTUNO Q Tutorials (Arduino Docs)
Official 3D-Printable Enclosure Case (Printables): prints in PLA, PETG or ABS and assembles with 10 × M3 × 6 mm flathead screws
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40 Aruma Place
Cardiff
NSW, 2285
Australia
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