The project

An AI-powered robot that detects and picks up plastic and non-biodegradable objects near it, entirely on its own. Here is what it does and how each part contributes.

Top-down view of the rover showing the stainless chassis, cargo bed and blue-rimmed wheels

The whole vehicle: a welded stainless frame, a slotted cargo bed and the electronics sitting open behind the cab.

The rear of the rover with PARADOX cut into the tailgate

The tailgate, with the team name cut straight through the sheet.

The cycle

    

Five stages, running continuously. Nothing in this loop waits on a person.

01Perceive

Continuous scanning

The robot continuously scans its surroundings through an onboard camera. There is no remote operator and no waiting for instructions — observation runs the whole time it is powered on.

02Identify

Object detection

An AI detection model separates plastic and other non-biodegradable objects from everything else in view. Leaves, soil and background clutter are ignored so the robot only acts on what it is meant to collect.

03Approach

Self-directed navigation

Once a target is identified, the robot works out where it sits relative to itself and drives toward it, adjusting as the view changes on the way.

04Collect

Pick and store

The collection mechanism picks the object up and stores it on board, keeping the waste contained rather than pushing it somewhere else.

05Continue

Repeat the loop

With the object secured, the robot returns to scanning and moves on to the next one. The loop repeats for as long as it has power.

In action

    

A short clip from a test run — driving under its own power with collected bottles already in the bed.

It carries what it collects

The bottles in the bed are from the run itself. Waste stays on board instead of being pushed along the ground.

Four driven wheels

Knobby off-road tyres on all four corners, so it keeps traction on the uneven surfaces waste actually ends up on.

Nobody is steering

There is no controller in anyone's hands. What you are watching is the robot working through its own loop.

Under the shell

     

Six subsystems, each responsible for one job in the loop.

Vision

Onboard camera

Supplies the live view the detection model runs on.

Intelligence

AI detection model

Classifies what is waste and what should be left alone.

Mobility

Driven chassis

Carries the robot to each object it has identified.

Collection

Pickup mechanism

Lifts the object and moves it into onboard storage.

Storage

Onboard container

Holds collected waste until it can be emptied.

Power

Battery pack

Determines how long a single cleaning run can last.

The rover from the front with both headlights lit and the yellow sensor module between them

Vision

The sensor head sits between the headlamps, so the camera sees whatever the lights do.

The white wire collection scoop mounted on the front of the rover

Collection

The wire scoop rides ahead of the front axle and funnels an object onto the tray.

The rear of the rover with PARADOX cut into the tailgate

Storage

Everything picked up goes into the slotted bed behind the cab and stays there.

Gallery

   

Shot during the build and the first test runs — nothing staged, nothing rendered.

Top-down view of the rover showing the stainless chassis, cargo bed and blue-rimmed wheels

Chassis and drive

The rover from the front with both headlights lit and the yellow sensor module between them

Headlights and sensor head

The white wire collection scoop mounted on the front of the rover

Collection mechanism

The rear of the rover with PARADOX cut into the tailgate

The cut-out wordmark

What is next

     

Directions we are working toward, not finished features.

Sharper detection

Improve how reliably the model identifies waste in awkward lighting, partial cover and cluttered ground.

Longer runs

Extend battery life so a single charge covers meaningfully more ground before the robot needs attention.

Greater capacity

Increase how much the robot can carry before it has to be emptied.

More terrain

Widen the range of surfaces and environments the robot can operate on confidently.

Questions

   

Plastic and other non-biodegradable objects it finds nearby. Those are the materials that stay in the environment indefinitely, so they are the ones worth removing.