We build the soft actuation, the real-time force control, and the AI that runs on them. Robin is what happens when all three are designed together: a two-armed mobile robot that works safely beside people, without a cage.
Every layer of Robin is built in-house: the actuators, the real-time force control, and the physical AI. Because we own the whole stack, each layer is designed around the others. Customers get one integrated system, one team behind it, and one update path.
Compliant force-controlled actuators of our own design, mechanically soft by construction rather than by software. Four US patents granted.
Full-time closed-loop force control. Robin commands force directly rather than commanding a position and absorbing whatever force results. This is what the AI gets to build on.
A force-aware model trained in-house, plus the fleet software that maps, navigates, records demonstrations, trains policies and runs them. One system, one update path.
New skills and fixes reach the robot you already have as a software update. And because our actuators measure force at every joint, our model learns from touch as well as vision.
In our own comparative testing Robin generates roughly a tenth of the impact force of a conventional rigid arm under equivalent contact conditions. That comes from the actuator design itself, which is why Robin can work without fencing.
Illustrative diagram of the ratio, not test data. Both bars rise with contact speed; Robin’s stays roughly a tenth as high, and below the limit a person can safely absorb. Certified figures follow formal testing.
General-purpose robot foundation models and our model solve different problems. Ours is built for one job: reliable, contact-rich industrial manipulation. That focus is how it reaches production-grade reliability with far less data and compute.
Force sensing at every joint feeds the model directly, alongside vision. Insertion, hand-offs and gentle placing work because Robin reacts to what it feels.
An operator teaches a new task in VR. Training and deployment run from one browser panel. New tasks go live in days.
The learned policy handles contact. Behavior trees handle sequencing, retries and recovery, so the robot stays predictable and recovers from faults on its own.
The full stack runs on the machine. Deploy cloud-connected, on-premise, or fully air-gapped.
| Generalist foundation models | Our model | |
|---|---|---|
| Purpose | One model for every robot and task | Purpose-built for industrial manipulation |
| Optimized for | Breadth of capability | Production-grade task reliability |
| Contact handling | Vision-first, position-centric | Force-native, feels and reacts to contact |
| Data required | Internet-scale datasets | Days of operator demonstrations |
| Compute | Data-center class | Real time, on the robot |
| IP position | Openly published | Proprietary, developed in-house |
The model, the training pipeline and the actuation it controls are developed under one roof. Capabilities reach customers as software updates on the robot they already have.
Factory-default configuration. Two 7-DOF arms on an omni-directional base, with a motorized lifting column that matches human workstation heights.
The capabilities are primitive skills that compose into workflows, so one robot covers many processes on the same site.
Our main application. Robin works at live pick stations alongside human workers.
Sequencing, kitting and line-side work where parts are heavy, varied, and sit in fixtures that demand contact awareness.
Chemical handling: picking a bottle, opening a sealed cap, pouring powder to a target weight by the gram. Precision placement where excessive grip force damages the part.
Squeezing palms together to lift large boxes by friction, with no purpose-built gripper. Hugging items between both arms up to 20 kg. Pushing and pulling loads on and off an onboard lift cart.
Robin is provided under a subscription service agreement rather than a one-time sale. No capital purchase, no integration contract, no depreciating asset if the task changes.
One robot, one station, your parts. Clear success criteria up front.
We install and commission. Your operators are trained.
Add robots or move them to new tasks as your needs change.
Faults are reported to our service team automatically, so a support ticket opens without anyone filing it.
Founded 2016 in Austin, Texas, out of research at UT Austin. We design and build the hardware, control software and AI ourselves.
Three on our compliant actuator and its internal assemblies, plus a granted design patent. Counterparts allowed in Europe, Japan, Korea and Canada; a gripper patent is allowed and awaiting issue.
Phase II contract from AFWERX, the U.S. Air Force innovation arm, with UT Austin as research partner, applying the same soft actuation and force control to physical rehabilitation.
An earlier National Science Foundation SBIR award backing the core actuation work.
Actuators, control software, the AI model and the fleet platform are all our own work, developed under one roof.
Designed, built and supported in Austin, Texas. Robin is assembled at our own facility in Round Rock, just outside Austin, by the same team that designs it. Service and engineering support come from the same building.
Hardware, controls and AI sit in the same building in Round Rock. Everyone here touches something that ships to a customer.
Own the software that runs a fleet: mapping, navigation, task orchestration, demonstration recording and the browser panel operators work in. You will set the architecture and write the core of it, working next to the people who build the actuators and the control stack.
Senior, hands-on. C++ and Python, ROS 2, distributed systems.
Apply on LinkedInReal-time force control on our own hardware. You will own the control loop from actuator firmware to whole-body coordination, and the safety behavior that lets a robot work beside a person without fencing.
Senior, hands-on. Real-time C++, impedance and force control, robot dynamics.
Apply on LinkedInOwn the data loop behind our manipulation model: how demonstrations are captured and curated, how policies are trained, and how we decide whether a policy is good enough to run on a customer floor.
Python, PyTorch, imitation learning. Evaluation discipline matters more than model novelty here.
Apply on LinkedInTake a robot to a customer station and make it work there. Scope the task, commission the cell, teach the policies, train the operators, and bring back what development got wrong. Roughly monthly domestic travel, twice yearly international.
Senior individual contributor, growing into field team lead. Comfortable being the only Roboligent person on site.
Apply on LinkedInBuild the quality function for our pilot production run: supplier quality as the anchor, incoming inspection, work instructions, and the yield data that tells us whether a design is ready to ship.
Hardware quality in low-volume, high-complexity assembly. First quality hire, so you are setting the process, not inheriting it.
Apply on LinkedInEach role is also posted on LinkedIn. Don’t see yours? Tell us what you’d build here: info@roboligent.com
Pilots, spec sheets, partnerships or general questions. Send us a message and we’ll reply within two business days.