We give machines the sense of touch

About Bota Systems

Bota Systems is a Swiss robotics technology company building force and torque sensing solutions that help robots interact with the physical world safely and naturally.

Rooted in leading robotics research, we combine scientific rigor with practical engineering to support industry, research, and Physical AI applications worldwide.

While the last decade was about teaching robots to see, the next decade is about teaching them to feel. Bota Systems provides the high-performance “sense of touch” required for the next generation of Physical AI.

Origin Story

Born from Robotics Research. Built for the Real World.

Bota Systems is a spin-off of the Robotic Systems Lab at ETH Zürich, founded by Klajd Lika, Ilias Patsiaouras, and Marco Hutter.

The company emerged from years of academic research into force-torque sensing for legged, mobile, and collaborative robots — and the need to bring this technology out of the lab and into real-world robotic systems.

This foundation gives us a rare combination of deep research expertise and practical engineering focus.

Company Milestones

2013

First Multi-Axis Force Torque Sensor

Prototype multi-axis force torque sensor developed for legged robots and research platforms.

HAKI Sensor

Development of the HAKI sensor, the predecessor of Rokubi.

2015

2015

Platform Expansion

Expansion of sensing solutions: Joint torque sensor series, 1-axis force sensors, Tactile sensing technologies

2016

ETH Robotics Systems Lab Collaboration

Collaboration with ETH Robotics Systems Lab to equip the ANYmal robot with Rokubi force torque sensing.

Sensor Commercialization

First commercial products released: Rokubi, SensONE.

2019

2020

ETH Zürich Spin-off

Bota Systems AG founded as an ETH Zürich spin-off.

Product Portfolio Expansion

Launch of new force torque sensors: Medusa, LaxONE, MegaONE

2022

2023

New Facilities

Expansion of production and engineering facilities. Capacity increase and scaling of operations.

Market Expansion

Introduction of additional products: MiniONE, MiniONE Pro.

Opening of Athens subsidiary.

Opening of Customer Experience Center in Fremont CA.

2024

Complete Force Sensing Ecosystem

Positioning Bota Systems as a one-stop shop for force sensing in robotics, supporting: Humanoid robots, Industrial robots, Physical AI platforms

Future

2013

First Multi-Axis Force Torque Sensor

Prototype multi-axis force torque sensor developed for legged robots and research platforms.

2015

Platform Expansion

Expansion of sensing solutions: Joint torque sensor series, 1-axis force sensors, Tactile sensing technologies,.

2016

ETH Robotics Systems Lab Collaboration

Collaboration with ETH Robotics Systems Lab to equip the ANYmal robot with Rokubi force torque sensing.

2020

ETH Zürich Spin-off

Bota Systems AG founded as an ETH Zürich spin-off.

2023

New Facilities

Expansion of production and engineering facilities. Capacity increase and scaling of operations.

HAKI Sensor

Development of the HAKI sensor, the predecessor of Rokubi.

2015

Sensor Commercialization

First commercial products released: Rokubi, SensONE.

2019

Product Portfolio Expansion

Launch of new force torque sensors: Medusa, LaxONE, MegaONE.

2022

Market Expansion

Introduction of additional products: MiniONE, MiniONE Pro.

Opening of Athens subsidiary. 

Opening of Customer Experience Center in Fremont CA.

2024

Complete Force Sensing Ecosystem

Positioning Bota Systems as a one-stop shop for force sensing in robotics, supporting: Humanoid robots, Industrial robots, Physical AI platforms

Future

Publications

Bota Systems was born from robotics research, building on years of peer-reviewed work in force sensing, manipulation, locomotion, and physical interaction. The publications below form the scientific foundation of our technology.

Task and Configuration Space Compliance of Continuum Robots via Lie Group and Modal Shape Formulations

Orekhov, Andrew L., Garrison LH Johnston, and Nabil Simaan.
arXiv preprint arXiv:2306.13155 (2023)

ANYexo 2.0: A fully actuated upper-limb exoskeleton for manipulation and joint-oriented training in all stages of rehabilitation

Zimmermann, Yves, Michael Sommerhalder, Peter Wolf, Robert Riener, and Marco Hutter.

IEEE Transactions on Robotics (2023)

 

Adaptive Force Controller for Contact-Rich Robotic Systems using an Unscented Kalman Filter

Schperberg, Alexander, Yuki Shirai, Xuan Lin, Yusuke Tanaka, and Dennis Hong

arXiv preprint arXiv:2207.01033 (2022)

Bistable helical origami gripper for sensor placement on branches

Geckeler, Christian, and Stefano Mintchev.
Advanced Intelligent Systems 4, no. 10 (2022): 2200087.

Real-time non-visual shape estimation and robotic dual-arm manipulation control of an elastic wire.

Mishani, Itamar, and Avishai Sintov
IEEE Robotics and Automation Letters 7, no. 1 (2021): 422-429.

Robotic assembly of timber joints using reinforcement learning

Apolinarska, Aleksandra Anna, Matteo Pacher, Hui Li, Nicholas Cote, Rafael Pastrana, Fabio Gramazio, and Matthias Kohler
Automation in Construction 125 (2021): 103569.

Quadrupedal Locomotion on Uneven Terrain With Sensorized Feet

Valsecchi, Giorgio, Ruben Grandia, and Marco Hutter.

IEEE Robotics and Automation Letters 5, no. 2 (2020): 1548-1555.

Towards autonomous inspection of concrete deterioration in sewers with legged robots

Kolvenbach, Hendrik, David Wisth, Russell Buchanan, Giorgio Valsecchi, Ruben Grandia, Maurice Fallon, and Marco Hutter.

Journal of field robotics 37, no. 8 (2020): 1314-1327.

Where Should I Walk? Predicting Terrain Properties from Images via Self-Supervised Learning

Wellhausen, Lorenz, Alexey Dosovitskiy, René Ranftl, Krzysztof Walas, Cesar Cadena, and Marco Hutter

IEEE Robotics and Automation Letters 4, no. 2 (2019): 1509-1516.

An Omnidirectional Aerial Manipulation Platform for Contact-Based Inspection

Bodie, Karen, Maximilian Brunner, Michael Pantic, Stefan Walser, Patrick Pfändler, Ueli Angst, Roland Siegwart, and Juan Nieto

Proceedings of Robotics: Science and Systems, 2019

Towards a passive adaptive planar foot with ground orientation and contact force sensing for legged robots

Käslin, Roman, Hendrik Kolvenbach, Laura Paez, Klajd Lika, and Marco Hutter.

IEEE/RSJ International Conference on Intelligent Robots and Systems (IROS), pp. 2707-2714. IEEE, 2018

Low-velocity impact response of smart sandwich composite plates with piezoelectric tranducers: Modeling and experiments

Plagianakos, Theofanis S., Klajd Lika, and Evangelos G. Papadopoulos.

Journal of Intelligent Material Systems and Structures 27, no. 6 (2016): 774-785.

CAREERS AT BOTA SYSTEMS

We’re Building the Future of Force-Sensitive Robotics

Our team brings together experts in robotics, mechanical design, electronics, and software — united by the goal of making force sensing reliable, accessible, and scalable.