Find it.
Spot everyday litter
against the ground.
Outdoor cleanup. In development.
Litter belongs
in the bin.
We're building a robot
to put it there.
01 / The problemOne cleanup is never the last.
The same block.
Another bottle.
Another cleanup.
A wrapper at the curb. A cup beside the path. Someone has to come back for every piece.
We want keeping a place clean to take less of someone's day.
More hands help.
So could a robot.
02 / Meet BlazerSmall jobs. A place worth caring for.
Small litter.
Short reach.
A pair of small collectors and a soft feed roller guide litter onto a conveyor and into a belly bin. The mechanism stays close to the ground, where the work is.
The loop we're building
One piece at a time.
Then the next one.
Pick it.
Gather it gently.
Feed it into the bin.
Put it away.
Return to the dock.
Empty. Charge. Head back out.
Built around the whole jobRequirements for every Blazer.
Clean. Empty. Charge.
Come back tomorrow.
A robot should make cleanup easier from start to finish. These are the capabilities we're building toward.
Self charging
Return to a dock when power runs low. Recharge for the next route.
Self emptying
Transfer collected litter into a larger bin at the dock.
Autonomous cleanup
Work through an assigned area and return to the places that need care.
Safety from the start
Slow movement. Guarded mechanisms. Stop for people, animals and uncertainty.
03 / The first buildProof comes from picking things up.
First, earn
one clean block.
Start with one reliable pickup.
Build toward a route that stays clean.
01Now
Design the system
Build the collectors, conveyor, belly bin and dock around one complete cleanup loop.
02Next
Prove the pickup
Test the transfer from ground to bin with real litter, uneven surfaces and jams.
03Ahead
Keep coming back
Prove safe navigation, automatic charging and emptying on a repeat route.
Blazer is in development. The animation illustrates the intended motion. Reliable pickup, field performance and the autonomous dock cycle still need to be proven.