VisionBox

CurrentSky · Edge AI

The autonomous AI platform for computer vision & edge ML

Runs entirely on-device — no cloud, no network, even when disconnected from power.

The story

Built in 48 hours

A weekend sprint that shipped

Some builds take months. VisionBox took a weekend — and it’s one of the most ambitious things we’ve ever shipped at CurrentSky.

The clock started at a hackathon: forty-eight hours to take an idea — a small box that could see, think and act entirely on its own — and turn it into real, working hardware. No shortcuts, no pre-built kit to lean on. Just an empty bench, a pile of components, and a deadline.

By the time it ran out, VisionBox was whole. We had 3D-printed its enclosure, given it a Raspberry Pi brain, a camera, a front display, glowing LED strips and its own battery — and taught it to run neural networks on-device, all driven over the local network. Every problem that surfaced got answered on the spot, in hardware, against the clock.

VisionBox was far too finished to leave on a shelf — not a weekend demo, but a device that genuinely works, end to end. So this is where it lives now.

VisionBox build in progress at the hackathon

Development in progress.

VisionBox enclosure 3D printing in PLA

The enclosure, 3D-printed in-house in PLA.

What it is

Vision that runs anywhere

VisionBox is a versatile, autonomous platform for real-world machine learning. Born from a project for biometric payment via facial recognition and smiles, it evolved into a multi-functional device that analyzes data across countless scenarios.

With a built-in camera and neural-network processing, it runs entirely on edge computing — all data processed locally, no internet or external servers, working even when disconnected from power or network.

On-Device ML Deployment ✦ Security Monitoring ✦ Object Recognition ✦ Vehicle Monitoring ✦ Facial Recognition

On-Device ML Deployment ✦ Security Monitoring ✦ Object Recognition ✦ Vehicle Monitoring ✦ Facial Recognition

On-Device ML Deployment ✦ Security Monitoring ✦ Object Recognition ✦ Vehicle Monitoring ✦ Facial Recognition

The hardware

What’s inside the box

A Raspberry Pi 4 brain drives a camera, a display, addressable LED strips and its own battery — all controlled over the local network, running simple neural networks fully on-device.

Inside VisionBox — Raspberry Pi 4, SPI display, WS2812 LED strips, fan and battery

Inside the box — Raspberry Pi 4, with the rest of the components.

🧠 Raspberry Pi 4

The brain — runs the vision models, the interface and the local-network control server.

📷 Camera

An on-board camera feeds the neural networks — facial recognition, detection and more.

👆 Hidden touch button

A capacitive button concealed in the case controls the whole device with a single tap.

💡 WS2812 LED bars

Addressable RGB strips glow through the front panel for status and feedback.

🖥️ Front display

A small SPI screen shows live status and information on the face of the box.

🔋 Internal battery

An on-board pack keeps it running untethered — even disconnected from power.

🌐 Local-network control

Operated entirely over the LAN — no cloud, no internet dependency.

🌀 Active cooling

A 5 V fan keeps the Pi cool under sustained inference loads.

Engineering

One data wire, two voltages

The WS2812 LED strips expect a 5 V data signal, but the Raspberry Pi’s GPIO speaks 3.3 V logic — and there was no logic level shifter (a 74AHCT125) on the bench to bridge them. With the clock running, we solved it another way: an Arduino sits between the two, taking commands from the Pi and driving the strips at its native 5 V. A pragmatic, hackathon-grade fix — and rock-solid in practice.

Raspberry Pi 43.3 V GPIO logic
Arduino bridgeshifts up to 5 V
WS2812 strips5 V data · addressable RGB

Under the hood

Core features

Autonomous Edge AI

Runs neural networks fully on-device — no cloud in the loop.

Local Data Processing

Everything is computed locally; nothing leaves the box.

Multi-Purpose Camera

One high-resolution sensor, many jobs.

On-Device Training

Deploy, train, and test models right on the hardware.

Modular Hardware

Add sensors and expand capability as needs grow.

Secure Data Handling

Offline processing keeps data private by design.

Low-Power Consumption

Efficient edge compute — runs even off the grid.

Usage

One device, many jobs

01

Biometric payments

Pay with a smile: captures a face, analyzes features locally, and confirms the transaction with no cloud — fast, contactless, private.

02

Retail analytics

Counts people, tracks movement and engagement to optimize store layouts and marketing decisions.

03

Security monitoring

Watches live feeds for intrusions and unusual behavior with on-device ML — no external servers, full privacy.

04

Smart spaces

Tracks occupancy and room usage to automate lighting, HVAC, and cut energy consumption.

05

Traffic & parking

Counts cars, recognizes plates, and tracks movement in real time for traffic and parking management.

06

Crowd & event analysis

Detects people and density to improve crowd safety and planning at events — no cloud dependency.

07

AI research & education

Deploy, train, and test ML models on-device with TensorFlow or PyTorch — a hands-on, offline AI lab.

The device

The finished device

Two days from an empty bench to a working device: a 3D-printed enclosure, a Raspberry Pi brain, an on-board camera, LED status bars and its own battery — running TensorFlow and PyTorch models fully on-device, no cloud dependency.

Edge Computing ✦ TensorFlow & PyTorch ✦ Offline & Private ✦ Modular Hardware ✦ Real-Time Analytics

Edge Computing ✦ TensorFlow & PyTorch ✦ Offline & Private ✦ Modular Hardware ✦ Real-Time Analytics

Edge Computing ✦ TensorFlow & PyTorch ✦ Offline & Private ✦ Modular Hardware ✦ Real-Time Analytics

Build vision at the edge

Want to deploy VisionBox or build on the platform? Let’s talk.