
Mobile Manipulation · Humanoid
The AHR-1636 is a 1,636 mm wheeled humanoid robot for retail service, light manufacturing, logistics and research. Two 7-DoF arms rated 10 kg each, dexterous five-finger hands or two-finger grippers, a human-like stereo vision head and up to 40 degrees of freedom let it work at counters, shelves and workbenches built for people. A simulation-trained AI stack and an open ROS 2 SDK shorten the path from a new task to a working deployment.
Product views
Selected product images from the latest PanPanTech specification pack.



What it solves
Human proportions, two arms and a 1,636 mm height let it use existing counters, shelves and workbenches instead of a site rebuilt around fixed automation.
Hands or grippers, humanoid or industrial-style arms, differential or omnidirectional base and single or dual PC are configured to the job, so the same platform can greet, fetch, pick and assemble.
Training data is generated in simulation — lighting, friction, rigid and fluid dynamics — and transferred to the real robot. The manufacturer reports around 6,000 training samples a day this way, against 100–300 from teleoperation and manual labelling.
Whole-body joints run at 1 kHz over an EtherCAT network with 0.1 N force sensitivity, and both arms support compliant control for safe contact with objects and people.
A 6 cm-baseline stereo head with a large-model depth algorithm and microsecond multi-camera sync sees in changing light; wrist cameras are optional for close-range picking.
ROS 2-based, with joint-level force/position control for researchers and drag teaching, impedance mode and industrial motion commands for application builders.
Best-fit applications
Start with tasks people already do at a counter, shelf or bench.

How it works
The hardware is designed and checked in simulation first, so the robot that arrives on site already matches the training environment its skills were learned in.
34 degrees of freedom on the differential base or 40 with the omnidirectional base: two 7-DoF arms, a 2-DoF neck, 2-DoF waist and 2-DoF legs, with all cabling run inside hollow joints.
Humanoid stereo vision with a 90° × 60° field of view, plus laser and visual SLAM navigation repeatable to ±10 mm.
Synthetic data and auto-labelled scenes train the base model; a single human demonstration can be turned into a precise dual-arm trajectory without a teleoperation rig.
UI, API and voice on top; task planning with behaviour trees, state machines or LLM/VLM; manipulation, perception, navigation and VLA algorithms; an SDK over EtherCAT, Ethernet, USB, CAN and RS-485.
Deployment
Most projects start with one well-defined task and a short supervised pilot before more skills are added.
A video of the task, the objects and their weights, counter or shelf heights, aisle widths, network coverage and where the robot will charge.
Dexterous hand or gripper, differential or omnidirectional base, single or dual PC and optional wrist cameras are chosen for the task.
The task is modelled in simulation, training data is generated, and demonstrations or teleoperation fill the gaps before the robot touches real stock.
A supervised pilot on site, then OTA skill updates, automatic charging and additional tasks once the first one is stable.
Video
A staged demonstration in a store set: greeting, order confirmation, picking, handover and restocking. It shows the robot's capabilities under filmed conditions, not a productivity measurement.
AHR-1636
Specifications are based on the manufacturer's technical data sheet. Training-efficiency figures are manufacturer-stated. Products are continuously improved and specifications may change without notice. Final configuration is confirmed in the quotation.
AHR-1636 FAQ
Related
Share the objects, counter or shelf heights, cycle time, floor layout and project country. We will confirm whether the AHR-1636 fits and which hand and base configuration to quote.