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Active industrial humanoids
Calvin-40 is the main French industrial humanoid publicly presented for factory and logistics work.
France has one of Europe’s most diverse humanoid robotics ecosystems. It combines industrial humanoids, open-source research platforms, social robots, assistive robotics and embodied AI labs. From Wandercraft’s factory-focused Calvin to Pollen Robotics’ Reachy 2 and Enchanted Tools’ Mirokaï, the French scene is moving from research labs into real deployment environments.
Paris, Bordeaux and Toulouse anchor the page because the robot evidence points to companies, labs and platforms in those cities.
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Calvin-40 is the main French industrial humanoid publicly presented for factory and logistics work.
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Reachy 2, Poppy Humanoid and HRP-2 research work show the lab side of the French ecosystem.
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Mirokaï, NAO and Pepper connect French humanoid robotics to education, healthcare and public-facing service.
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NAO, Pepper and Romeo shaped the first wave of French humanoid robotics.
Comparison table
This table separates active industrial systems, open-source research robots, service humanoids, legacy platforms and watchlist companies. Specs are included only when the source supports them.
| Robot | Company / Lab | City | Status | Main Use | Mobility | Key Hardware | Source |
|---|---|---|---|---|---|---|---|
| Calvin / Calvin-40 | Wandercraft | 🇫🇷 Paris | Active industrial | Factory and logistics work: heavy load handling, boxes, crates and precision tasks. | Biped humanoid industrial mobility with autonomous task navigation described by Wandercraft. | High-torque motors, high-strength structure, 3D sensing, neural-network vision, whole-body load-adaptive control and safety system described as certifiable by Wandercraft. | Open source |
| Reachy 2 | Pollen Robotics / Hugging Face | 🇫🇷 Bordeaux | Active open-source research | Embodied AI research, bimanual manipulation, teleoperation and robotics lab prototyping. | Upper-body humanoid manipulator available with a mobile base using three omniwheels and LiDAR. | Bimanual arms, 7-DoF arm design, camera-based head, mobile base option, Python SDK, VR teleoperation and ROS 2 Humble support. | Open source |
| Miroki / Miroka / Mirokaï | Enchanted Tools | 🇫🇷 Paris | Active service robot | People-facing service in hospitals, senior living, hotels, restaurants, retail, events, museums and airports. | Indoor mobile humanoid service robot with adaptive navigation for shared public spaces. | Expressive character design, arms for carrying and grasping, protected joints, lower center of gravity, visual feedback, cellular connectivity, Wi-Fi 6E and autonomous charging according to Enchanted Tools. | Open source |
| NAO | Aldebaran / Maxtronics | 🇫🇷 France / Issy-les-Moulineaux support | Legacy / supported education platform | Education, programming, research, healthcare activities and human-robot interaction experiments. | Small biped humanoid platform for indoor interaction and programmed motions. | 58 cm body, 25 degrees of freedom, cameras, microphones, tactile sensors, sonars and IMU listed by Maxtronics for NAO6. | Open source |
| Pepper | Aldebaran / SoftBank Robotics | 🇫🇷 French-origin platform, global deployment | Discontinued / legacy social robot | Customer reception, public interaction, social robotics research and education. | Wheeled semi-humanoid service robot for indoor public-facing environments. | Humanoid upper body, expressive head and arms, chest tablet, cameras and microphones in the classic Pepper platform. | Open source |
| Romeo | Aldebaran with French research partners | 🇫🇷 Paris and French research network | Historical research platform | Assistive humanoid research for elderly people or people with reduced autonomy. | Large humanoid research platform designed around walking, perception, manipulation and assistive interaction research. | Research platform reported around a 1.40 m humanoid body, with work on perception, walking, object carrying and assistive tasks. | Open source |
| Poppy Humanoid | Inria / Poppy Project | 🇫🇷 Bordeaux / Talence ecosystem | Active open-source education and research platform | Education, makers, open hardware, robotics teaching and research experiments. | 3D-printed humanoid kit and related Poppy platform variants for educational robotics. | Open-source robotic platform with assembly guides for Poppy Humanoid, Poppy Torso and Ergo Jr, with programming options documented for the Poppy ecosystem. | Open source |
| HRP-2 at LAAS-CNRS | LAAS-CNRS / CNRS-AIST JRL research context | 🇫🇷 Toulouse | Research platform present in France | Humanoid motion planning, locomotion and manipulation research. | Japanese-developed humanoid platform used in French research at LAAS-CNRS/JRL context. | HRP-2 is a humanoid research platform originally developed in Japan. The France connection is the Toulouse research presence, not French manufacturing origin. | Open source |
| UMA / Northstar | UMA | 🇫🇷 Paris | Watchlist | Reported industrial and commercial robotics direction; public robot details remain limited. | Not confirmed publicly enough for technical classification. | No public hardware specification included here because official information is limited. | Open source |
Robot profiles
Each card lists status, location, application, hardware notes, autonomy limits and why the robot matters inside the French ecosystem.
Wandercraft
🇫🇷 Paris
Main application: Factory and logistics work: heavy load handling, boxes, crates and precision tasks.
Technical notes: High-torque motors, high-strength structure, 3D sensing, neural-network vision, whole-body load-adaptive control and safety system described as certifiable by Wandercraft.
Mobility: Biped humanoid industrial mobility with autonomous task navigation described by Wandercraft.
Autonomy level: Autonomy is presented by Wandercraft for industrial navigation and task execution. Treat deployment scope as source-specific and use-case specific.
Why it matters: Calvin moves France from medical exoskeleton expertise toward industrial humanoid work. The Renault partnership matters because manufacturing quality, supply chain discipline and serviceability are central to humanoid deployment.
Pollen Robotics / Hugging Face
🇫🇷 Bordeaux
Main application: Embodied AI research, bimanual manipulation, teleoperation and robotics lab prototyping.
Technical notes: Bimanual arms, 7-DoF arm design, camera-based head, mobile base option, Python SDK, VR teleoperation and ROS 2 Humble support.
Mobility: Upper-body humanoid manipulator available with a mobile base using three omniwheels and LiDAR.
Autonomy level: Designed for teleoperation, Python control and embodied AI research. Do not treat it as a general-purpose autonomous home robot.
Why it matters: Reachy 2 gives AI labs a transparent humanoid platform. Its open-source positioning matters because robot learning needs hardware, code and datasets that researchers can inspect and modify.
Enchanted Tools
🇫🇷 Paris
Main application: People-facing service in hospitals, senior living, hotels, restaurants, retail, events, museums and airports.
Technical notes: Expressive character design, arms for carrying and grasping, protected joints, lower center of gravity, visual feedback, cellular connectivity, Wi-Fi 6E and autonomous charging according to Enchanted Tools.
Mobility: Indoor mobile humanoid service robot with adaptive navigation for shared public spaces.
Autonomy level: Enchanted Tools describes autonomous navigation, charging and decision-making for operation with minimal supervision. Scope depends on deployment environment.
Why it matters: Mirokaï is France’s strongest current example of a service humanoid designed for emotional interaction, care support and customer-facing spaces rather than factory labor.
Aldebaran / Maxtronics
🇫🇷 France / Issy-les-Moulineaux support
Main application: Education, programming, research, healthcare activities and human-robot interaction experiments.
Technical notes: 58 cm body, 25 degrees of freedom, cameras, microphones, tactile sensors, sonars and IMU listed by Maxtronics for NAO6.
Mobility: Small biped humanoid platform for indoor interaction and programmed motions.
Autonomy level: Programmable platform with social and full-body motion capabilities. Autonomy depends on the application built by educators, researchers or developers.
Why it matters: NAO made French humanoid robotics visible in classrooms, labs and RoboCup. It remains a reference platform for teaching robot programming and human-robot interaction.
Aldebaran / SoftBank Robotics
🇫🇷 French-origin platform, global deployment
Main application: Customer reception, public interaction, social robotics research and education.
Technical notes: Humanoid upper body, expressive head and arms, chest tablet, cameras and microphones in the classic Pepper platform.
Mobility: Wheeled semi-humanoid service robot for indoor public-facing environments.
Autonomy level: Pepper could run scripted and app-based interactions. Production was halted in 2021, so this page labels it as legacy rather than active product growth.
Why it matters: Pepper proved how visible social robots could become in stores, museums, schools and research labs. Its commercial limits also showed that public interaction is not enough without strong utility and support economics.
Aldebaran with French research partners
🇫🇷 Paris and French research network
Main application: Assistive humanoid research for elderly people or people with reduced autonomy.
Technical notes: Research platform reported around a 1.40 m humanoid body, with work on perception, walking, object carrying and assistive tasks.
Mobility: Large humanoid research platform designed around walking, perception, manipulation and assistive interaction research.
Autonomy level: Research platform. Do not present Romeo as a commercial or currently deployed assistive robot.
Why it matters: Romeo connects the Aldebaran era to French public research. It focused on assistance, acceptability, walking and manipulation before the current wave of embodied AI.
Inria / Poppy Project
🇫🇷 Bordeaux / Talence ecosystem
Main application: Education, makers, open hardware, robotics teaching and research experiments.
Technical notes: Open-source robotic platform with assembly guides for Poppy Humanoid, Poppy Torso and Ergo Jr, with programming options documented for the Poppy ecosystem.
Mobility: 3D-printed humanoid kit and related Poppy platform variants for educational robotics.
Autonomy level: Programmable education platform. Autonomy depends on the project code, sensors and experiment design.
Why it matters: Poppy made humanoid robotics easier to inspect, assemble, modify and teach. It helped move French humanoid work beyond closed commercial robots.
LAAS-CNRS / CNRS-AIST JRL research context
🇫🇷 Toulouse
Main application: Humanoid motion planning, locomotion and manipulation research.
Technical notes: HRP-2 is a humanoid research platform originally developed in Japan. The France connection is the Toulouse research presence, not French manufacturing origin.
Mobility: Japanese-developed humanoid platform used in French research at LAAS-CNRS/JRL context.
Autonomy level: Research platform. Autonomy depends on laboratory experiments and control software.
Why it matters: HRP-2 gave French humanoid labs access to a serious full-body research platform for motion planning, contacts and whole-body control.
UMA
🇫🇷 Paris
Main application: Reported industrial and commercial robotics direction; public robot details remain limited.
Technical notes: No public hardware specification included here because official information is limited.
Mobility: Not confirmed publicly enough for technical classification.
Autonomy level: Not confirmed. This page does not assign autonomy claims to Northstar.
Why it matters: UMA belongs on the watchlist because the French humanoid startup signal is important, but the page keeps it separate from confirmed active robot platforms until official details are public.
France map
The page uses a lightweight location list instead of a heavy map library. It keeps the page fast while showing where the main French humanoid robotics activity appears.
Paris, Bordeaux and Toulouse anchor the page because the robot evidence points to companies, labs and platforms in those cities.
Paris concentrates industrial humanoids, service robots, Aldebaran heritage and the next startup watchlist.
Bordeaux connects open-source humanoid hardware, embodied AI and education-oriented robotics.
Toulouse is important for humanoid research, motion planning, robotics labs and CNRS platforms.
Timeline
The timeline is deliberately short: it shows the ecosystem arc from education and social robots to open-source embodied AI and industrial humanoids.
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NAO helped define French humanoid robotics in education, programming labs and RoboCup-style research.
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Romeo explored assistive humanoid robotics with Aldebaran and French research partners.
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Pepper pushed social robotics into public-facing environments, then became a lesson in deployment economics.
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Poppy opened humanoid robotics to education, makers and open hardware experimentation.
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Reachy 2 connects French robotics to embodied AI, bimanual manipulation and open-source development.
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Calvin brings French humanoid robotics closer to industrial work in factories and logistics.
Classification
The page counts 5 current or research-active entries, but it keeps legacy systems and watchlist companies clearly separated.
Verification
Every robot card links to the strongest available source used for the entry. Historical and watchlist platforms are labeled to avoid presenting them as current deployments.
Editorial rule: the page does not invent payloads, battery life, autonomy levels, deployment numbers or customer names. When a source uses broad claims, the page describes them as source-specific and avoids presenting them as universal capability.
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