BriteLab

Logistics automation

Fab-grade roboticsfor factories anddistribution centers.

BriteLab applies semiconductor robotics engineering to AGVs, AMRs, and automated forklifts for industrial material movement.

01Why automate material flow

Consistent material flow across every shift.

Autonomous material handling keeps pallets, parts, and work-in-process moving across shifts. Operators gain consistent flow, defined handoffs, and more predictable throughput across the existing floor.

02What we build

Three classes of autonomous transport.

Conveyor-style automated guided vehicle
AGVs

Automated guided vehicles.

Fixed-route transport for predictable, high-volume material flow.

Warehouse autonomous mobile robot with QR navigation
AMRs

Autonomous mobile robots.

Vehicles that navigate dynamically around people and obstacles, rerouting on the fly.

Automated forklift carrying a load box on its forks
Automated forklifts

Driverless lift trucks.

Driverless lift trucks for pallet handling in factories and distribution centers.

03The fleet

Built for the load, the route, and the dock.

A range of vehicles engineered around how material actually moves through a plant.

Conveyor automated guided vehicle
Conveyor AGV
Pallet transport automated guided vehicle
Pallet transport AGV
Heavy-duty transport automated guided vehicle
Heavy-duty transport AGV
Warehouse QR-guided autonomous mobile robot
Warehouse QR AMR
Tray transport automated guided vehicle
Tray transport AGV
Internal docking cart automated guided vehicle
Internal docking cart AGV

04The material flow

One fleet, from the receiving dock to order fulfillment.

Pallet movers, box movers, and automated forklifts share a single routing layer. Pallets come in at receiving, move to storage, feed the de-palletizer, and sorted boxes run to the production cell.

Isometric view of an automated warehouse: receiving dock, storage racks, de-palletizer, sort, and production cell, with autonomous vehicles running between them
  1. 01Move pallets from receiving to storage racks
  2. 02Load and retrieve pallets from storage racks
  3. 03Move pallets from storage racks to de‑palletizer
  4. 04Move boxes from sort to the production cell

05Peakaso · AI digital twin

Design, validate, run.

Peakaso simulating a 200mm fab: the bay layout with transport running, then the overhead track in three dimensions
3:53

Peakaso is BriteLab's digital twin platform, enabling customers to design, validate, and operate automated material handling systems on a single model. Fab configurations are simulated before capital is deployed, ensuring the solution is optimized upfront. Once operational, the model evolves into a live digital twin that supports ongoing monitoring, forecasting, and continuous improvement.

A fleet is sized, routed, and costed against a floor plan long before a vehicle is ordered, and a drawing cannot say whether the aisles, the dock, and the shift pattern support it.

  • 01Design. The fleet, the routes, and the floor plan configured in one model.
  • 02Validate. Throughput and cost simulated before a vehicle is ordered, and the equipment list comes out of the validated model.
  • 03Run. The model stays on as the live twin: monitoring, forecasting, and continuous improvement.

06Ziqqur audit trail

Every move the system makes is on the record.

Overhead transport vehicles and stockers moving carriers through a 200mm fab, simulated

Ziqqur delivers continuous operational traceability across the entire automation system. Working beneath Peakaso, it records every command, routing decision, and material transfer in real time, preserving a complete history of system behavior.

As a result, fabs can investigate any point in time and determine precisely what occurred and why. When a carrier waits, a route changes, or a hoist is held, the evidence is preserved in the audit trail, replacing guesswork and post-shift reconstruction with verifiable facts.

Technician in a cleanroom gown and gloves working at a glass-enclosed process tool

07Why BriteLab

Cleanroom discipline, applied to the warehouse floor.

Semiconductor cleanrooms demand precise motion, contamination control, and long duty cycles. BriteLab applies that engineering discipline to warehouse and factory transport, where uptime and repeatable material flow drive output.

  • 01Precise motion control
  • 02Long duty cycles
  • 03Repeatable material flow