Exhibitors

Arena by PTC helps robotics companies transform
innovative ideas into market-ready products faster. Our cloud-native Product
Lifecycle Management (PLM) platform connects engineering, operations, quality,
suppliers, and manufacturing partners in a single system. As robotics products
become more complex, Arena enables start-ups to manage product data, control
changes, collaborate with global supply chains, and scale efficiently from
prototype through production while maintaining quality and reducing time to market

See how robotics companies use Arena to manage product data, engineering changes, supplier collaboration, and manufacturing readiness in a single cloud platform, helping teams scale efficiently from prototype to production without losing control of critical product information.

P8S is building the future of fulfillment and delivery with Physical AI–powered robotics.
By uniting mobile robots, smart containers, and an intelligent software brain into one autonomous system, Pick8ship transforms how goods move — from storage to customer.
Designed for universal use across food, fashion & beauty, health & care, electronics, and industrial supply, the system scales rapidly from compact installations to large industrial deployments — in days, not years.
One system. One brain. Autonomous logistics at scale.
www.p8s.swiss

Point One Navigation is the first centimeter-accurate positioning platform designed for the world’s most demanding robotics and industrial automation applications. At Swiss Robotics Day, we're highlighting our high-density RTK corrections network, advanced sensor fusion software, and robust API, which allow robotics developers to quickly integrate high-precision location into their platforms. Whether for mobile robots, autonomous drones, or precise field systems, Point One provides the foundation for safe, reliable, and intelligent machine operations. Point One’s founding team have decades of experience in precision navigation and were previous founders of Cornell’s DARPA Urban Challenge.

EPFL Xplore is an association of more than 100 motivated students who take part in ambitious robotics and student space exploration projects. The team designs and builds planetary rovers from scratch while advancing technologies for autonomous exploration. It competes internationally at the European Rover Challenge in Poland, where its rover must autonomously navigate challenging Martian terrain, collect and analyze soil samples, and execute a scientific mission. Over the years, the team has received numerous excellency awards, including first place at ERC 2025. In parallel, EPFL Xplore organizes the Xplore Rover Challenge, a hands-on competition introducing students to planetary robotics. The association also conducts research projects in collaboration with academic laboratories and industry partners, developing innovative technologies in the field of space robotics.

Spinal cord injury (SCI) affects millions people and their families world-wide. These individuals face serious secondary complications due to loss of mobility such as brittle bones, bowel and bladder dysfunction, chronic pain, and recurrent infections that lead to a 30 percent annual hospitalization risk.
Exoskeletons enable upright walking, which plays a vital role in reducing these secondary health complications while promoting strength, confidence, and quality of life.
Even with robust insurance reimbursement now available in many countries, today’s exoskeletons remain too complex, too slow to put on and take off, and not designed for everyday life. Our mission is to change that.

Façade installation in construction is highly manual and dependent on scaffolding systems. This leads to
safety risks, long installation times, and frequent human errors. Our solution is a rapidly deployable vertical
grid that enables robotic tools to operate in parallel on façades of buildings.

For nearly 20 years, Generation Robots has been bridging the gap between innovative robotics technologies and real-world applications.

What started as a robotics distributor has grown into a trusted technical partner for researchers, engineers and industrial companies. Alongside our portfolio of robots, sensors and AI solutions, our in-house engineering team, GR Lab, designs and develops custom robotic systems to meet the unique requirements of research and industrial projects.

LASA develops method to enable humans to teach robots to perform skills with the level of dexterity displayed by humans in similar tasks. Our robots move seamlessly with smooth motions. They adapt on-the-fly to the presence of obstacles and sudden perturbations, mimicking humans’ immediate response when facing unexpected and dangerous situations.

The Robotic Systems Lab investigates the development of machines and their intelligence to operate in rough and challenging environments. With a large focus on robots with arms and legs, our research includes novel actuation methods for advanced dynamic interaction, innovative designs for increased system mobility and versatility, new control and learning algorithms for locomotion and manipulation, and robot perception for autonomous navigation. In search of clever solutions, we take inspiration from humans and animals with the goal of improving the skills and autonomy of complex robotic systems to make them applicable in various real-world scenarios.

Stella Robot is a global emerging leader in embodied AI manipulation. The company builds its universal hardware foundation upon micro‑modules and dexterous hands, tightly coupled with embodied‑AI‑manipulation algorithms to deliver a complete hardware‑software integrated solution as its core competitive strength. It has launched the world’s first Lego‑like modular direct‑drive hand and the world’s first tendon‑driven dexterous hand featuring an “actuator‑hand separation” structure (already deployed in industrial scenarios), accumulating multiple pioneering tendon‑driven technologies. With full‑stack in‑house R&D of “algorithms + hardware,” the company reinforces its technological moat and achieves 100% domestically developed and independently controllable intellectual property. The team possesses strong capabilities in both industrial deployment and scientific research innovation, focusing on applications in industrial and high‑hazard environments. It has completed multiple financing rounds and received numerous hard‑tech awards, combining technological defensibility with social value, and is committed to practicing technology for good.

fluidbot develops autonomous inspection robots for drinking water pipelines. Our system navigates inside complex pipe networks, collects visual and sensor data, and enables utilities to detect risks early. By combining robotics, sensor integration and data analytics, fluidbot supports predictive maintenance for critical water infrastructure.

FRAMOS is the leading camera module design and manufacturing expert.
Founded in Munich, Germany over 40 years ago, FRAMOS has empowered companies worldwide to make drones fly safely, enable robots to see and think, make diagnostics faster and more affordable, boost athletic performance with AI, and countless other innovations.

FRAMOS stands for best-in-class image quality, an open-source approach, and fast, easy integration – helping customers launch products quicker and stay ahead of the competition.
With strong expertise in electronics design, optics and optical assembly, camera calibration, image tuning, and software integration, FRAMOS provides off-the-shelf camera modules and customized embedded vision solutions. At our technology campus strategically located in Europe, we combine R&D and manufacturing services under one roof and provide scalable manufacturing capacities up to millions of pieces.

Sonceboz is your trusted mechatronic partner for robotics, delivering innovative actuation and motion control solutions that enable the next generation of dexterous machines. With almost a century of industrial expertise and millions of products deployed worldwide, Sonceboz combines large-scale manufacturing excellence with proven strengths in engineering, reliability, and durability for the most demanding robotics applications.

The Bio-Inspired RObots for MEDicine Laboratory (BIROMED-Lab) develops bio-inspired robotic and mechatronic systems tailored for medical applications from idea to functional prototypes for fast translation.
Our portfolio spans mechatronics, mechanical design, micromachining, robotics, control engineering, human-machine interaction, and real-time data processing.

prophysics AG is Switzerland's leading distributor of professional 3D motion capture technology, based in Zurich and serving the DACH region. As the official distributor for Vicon, Xsens, MANUS, and more, we provide precise, reliable motion capture and hand-tracking systems for research, industry, engineering, and — increasingly — humanoid robotics. With 30 years of experience, our team supports customers from initial consultation through system integration, covering everything from full-body kinematics to millimeter-precise finger tracking. Our combined hardware and software solutions enable teleoperation and human motion data collection for the next generation of humanoid robots.

The Mobile Robotics Lab works towards the next generation of mobile robots that should support people in their lives: drones can inspect and monitor hazardous or remote sites, and humanoids or other ground-based robots can perform repetitive, strenuous, or dangerous tasks on construction sites or at home.We develop underlying Spatial AI capabilities as robots' understanding of the world. This is crucial for Navigation and Exploration of potentially cluttered, dynamic, and unknown environments. 

At the Reconfigurable Robotics Lab we focus on the design, actuation, fabrication, and control of unique robotic systems. The research in our lab is committed to inventing interactive robotic systems with novel fabrication techniques and integration processes that push the limits of mechanical properties. These efforts enable us to create soft, reconfigurable, and interactive robots that are highly conscious of the environment and have extensive applications in wearable technology, medical/rehabilitation systems, and personal robots.

• Reconfigurable Robogami modules for human augmentation

Origami-inspired, lightweight modules configure to wearable robotic arms that adapt seamlessly and safely to various environments and tasks.

• Immersive Multi-modal Full-Body Feedback for Tangible Experiences

Origami-inspired Dynamic Experience Platform that delivers whole-body feedback by translating audiovisual content into motion, and recreating real-world kinetic experience, making digital content immersive and tangible.

• Self-Assembling Modular Origami Robots

A swarm of identical triangular origami modules that locate each other, assemble themselves into a requested shape with no central controller, and accept plug-in capability cores, so one set of hardware becomes whatever robot the mission needs.

• Surface-Based Manipulation

A team of reconfigurable modular robots, each ending in a simple flat plate, moves, flips, and reorients objects across their surfaces—manipulating without ever grasping.

• Digits: Reconfigurable Haptic Feedback

Digits is a reconfigurable haptic interface composed of modular pneumatic actuators that can be arranged in different configurations to render multimodal haptic feedback with precise pressure control.

•  Viscous Airflow Reconfiguration System

Predictive fluidic-network framework that transforms a small number of shared pneumatic inputs into dynamically reprogrammable spatiotemporal actuation fields.

• SORI: a softness rendering interface

SORI is a reconfigurable haptic display that decouples contact area and force on human fingertips, with model-based softness cue estimation to render a personalized experience with both virtual and real-world objects.

CRATER – ETH Zürich Rover is a student-built autonomous rover and exploration drone platform designed for Mars-like environments.

Developed by ETH Zürich students across multiple engineering disciplines, CRATER combines robotics, autonomous navigation, and scientific exploration capabilities to address challenges such as terrain mapping, sample collection, and robotic manipulation. The project represents the next generation of student-led space robotics, advancing the development of autonomous systems for future terrestrial and planetary missions.

CRATER participated in the renewed European Rover Challenge 2026 in Krakow, Poland.

The RAI Institute is a research organization that aims to solve the most important and fundamental problems in AI and robotics. With offices in Cambridge, Massachusetts and Zurich, the Institute unites top talent in robotics, perception, AI, machine learning, computer science and machine design to develop future generations of intelligent machines. The Institute focuses on four essentials of robot functionality: mobility, perception, dexterity and intelligence, as well as the ethics of robots in the workplace and our lives. Led by Marc Raibert, founder of Boston Dynamics, the RAI Institute develops technology that will make future generations of robots smarter, easier to use, contribute to human productivity, and help us live happier lives.