Figure 02 vs Apptronik Valkyrie: Industrial vs Research Humanoid (2026)

The Figure 02 is a next‑generation industrial humanoid built by Figure AI to work alongside humans in factories and warehouses, already walking through early pilots at BMW. The Apptronik Valkyrie (also known as NASA R5) is a heavy‑duty research humanoid developed with NASA for lunar and Martian exploration, disaster response, and high‑dexterity tasks — but it has never been offered for commercial sale. This comparison dissects what separates a buyable production‑intent humanoid from a one‑of‑a‑kind space robotics research platform. Read on for a full spec‑by‑spec breakdown, real‑world deployment status, and a clear verdict by use case.

Figure 02 vs Apptronik Valkyrie: Specs Compared

The table below gathers every published specification for both robots. Where data is not publicly disclosed, the cell shows “Not published.”

The Figure 02’s key advantage is that it’s a real product with a price tag, focus on 5‑hour shifts, and 20 kg payload. Valkyrie more than doubles the DOF count but with a battery that barely lasts one hour — fine for a research bench, impractical for a factory floor.

Figure 02 Overview

Figure 02 is a bipedal humanoid robot developed by Figure AI (Sunnyvale, California) and unveiled in 2024. It stands 1.68 m tall, weighs 70 kg, and packs 28 degrees of freedom. With an estimated pilot‑program price of $130,000, it is targeted squarely at industrial partners looking to deploy humanoids for material handling, machine tending, and logistics. Its 5‑hour battery is the longest of any current commercial‑grade humanoid competitor, and its 20 kg payload is sufficient for most box‑moving and part‑transfer tasks.

The robot’s real differentiator is Helix, Figure AI’s proprietary multimodal AI model that combines vision, language, and action for end‑to‑end task learning. Helix allows Figure 02 to interpret natural‑language commands and execute multi‑step manipulation tasks without explicit programming. In early 2025, Figure AI announced a pilot partnership with BMW’s Spartanburg plant, where 02 robots were tested for moving totes, kitting, and assembly support. While no official operating‑hour statistics have been released, the collaboration remains one of the most prominent humanoid‑in‑factory demonstrations to date. Figure 02 is available for pre‑order through Figure AI directly, though lead times and final pricing are not publicly confirmed.

Apptronik Valkyrie Overview

Apptronik Valkyrie (also known as NASA R5) is a humanoid research robot developed by Apptronik in collaboration with NASA’s Johnson Space Center. The platform was originally designed for the DARPA Robotics Challenge (DRC) and later upgraded for space exploration and disaster response tasks. Standing 1.90 m tall and weighing a substantial 125 kg, Valkyrie is the heaviest high‑DOF humanoid in this comparison. Its 44 degrees of freedom — spread across arms, hands, torso, and legs — enable finer manipulation and full‑body mobility that exceed most industrial humanoids.

Valkyrie is not a commercial product. It is a research asset deployed within NASA’s Space Robotics Challenge and similar programs to study dexterous teleoperation in lunar/Martian gravity, entry into hazardous environments, and autonomous task execution in unstructured settings. Its 1‑hour battery life reflects the reality that it was designed for lab‑scale experiments, not full‑shift factory work. The robot’s software stack is built on ROS (Robot Operating System), making it highly modular for academic and government researchers, but it lacks a finished, production‑grade SDK. No per‑unit price has ever been announced, and it cannot be ordered through any commercial channel.

Price & Value Comparison

Comparing prices is a case of apples vs. not‑for‑sale oranges. The Figure 02 is a commercial‑grade machine with an estimated pilot price of $130,000. While final production pricing may rise (or fall) as Figure AI scales, this figure gives enterprises a tangible budget anchor. A 3‑year total cost of ownership would add software subscriptions, fleet management fees, and spare parts, but the biggest line item is the up‑front hardware — and it’s a known quantity.

Valkyrie has never been offered for sale. The robot is owned by NASA and the development costs were funded through government grants. Because there is no purchase price, no TCO calculation is meaningful. For any organization that needs to buy a humanoid and deploy it operationally, the Valkyrie simply is not an option.

Winner: Figure 02, by default — it is the only robot in this pair that can be acquired and operated as a commercial asset.

Performance & Specs

Payload

Figure 02 carries up to 20 kg, enough to challenge cobot payloads in material handling. Valkyrie’s maximum payload has not been published; its original DRC configuration focused on manipulation dexterity rather than raw lifting power. In any industrial scenario requiring consistent payload handling, Figure 02’s known specification is a decisive advantage.

Winner: Figure 02.

Speed

Valkyrie can move at 5.4 km/h (1.5 m/s) — slower than a brisk walk. Figure 02 achieves 10.8 km/h, making it roughly twice as fast over open ground. For cycle‑time‑sensitive factory tasks, the higher foot speed reduces transport latency between stations.

Winner: Figure 02.

Battery Life

Figure 02 runs for 5 hours on a single charge, a figure confirmed in its pilot material. Valkyrie’s battery, by contrast, is designed for laboratory testing and lasts approximately 1 hour. In a shift‑based work environment, the 5× endurance advantage is monumental; Valkyrie would require battery swaps or be tethered constantly.

Winner: Figure 02.

Degrees of Freedom

Valkyrie’s 44 DOF — including highly dexterous hands, a multi‑axis torso, and fully articulated legs — is unmatched by the Figure 02’s 28 DOF. This extra articulation allows researchers to explore complex whole‑body manipulation, for example reaching into tight spaces in a spacecraft mock‑up while maintaining balance. In a factory setting where repetitive two‑handed pick‑and‑place dominates, 28 DOF is sufficient, but for fine manipulation R&D the Valkyrie’s DOF lead is undeniable.

Winner: Apptronik Valkyrie.

Software & SDK Ecosystem

Figure AI keeps its software stack tightly integrated. Helix, the multimodal AI model, is the brain behind 02’s task learning and decision making. However, Figure AI has not released a public SDK or detailed ROS2 support roadmap, which limits academic and integrator‑friendly access today. The company’s primary interface is reportedly a cloud‑based fleet management platform.

Valkyrie’s software is built on ROS, the lingua franca of robotics research. It is designed to be open, modular, and extensible, enabling researchers to plug in new planners, controllers, and perception stacks. For a university lab or a space agency team that needs full software control, the Valkyrie’s ROS‑based environment is far more appealing than a closed AI‑first platform.

Winner: Apptronik Valkyrie for research software flexibility; Figure 02 for commercial turnkey operation. In a direct commercial context, Figure 02’s purpose‑built AI is the more immediately useful.

Autonomy & Sensors

Figure 02 leverages multiple cameras, depth sensors, and tactile feedback to feed the Helix model, which fuses perception and action in real time. The system is designed for dynamic environments — learning new tasks from demonstration and adapting to slight variations on a factory line. Its autonomy stack aims at human‑level adaptability without explicit programming.

Valkyrie carries stereo cameras, LIDAR, an inertial measurement unit, and force‑torque sensors in the wrists and ankles, primarily to support remote teleoperation and semi‑autonomous task execution under human supervision. Its autonomy is research‑driven, proving capabilities like staircase negotiation and valve turning in unstructured settings, but it has not been matured into a product‑grade autonomy solution for repetitive commercial work.

Winner: Figure 02 for industrial autonomy; Valkyrie for research‑grade sensor fusion and teleoperation.

Build Quality & Durability

Neither robot has a published IP rating or publicly tested durability for long‑term deployment. Figure 02 is built for factory floors and is expected to handle moderate environmental dust and vibration, but actual ratings are absent. Valkyrie, designed for space and disaster response, is ruggedized to survive shocks and dust ingress; however, its 125 kg mass and exposed wiring suggest that it remains a laboratory prototype not intended for 24/7 operation. Until official IP certifications surface, both robots are unproven in harsh environments.

Winner: Too early to call — the Figure 02 is more likely to receive an industrial IP rating, but neither has one yet.

Which Should You Buy? Figure 02 vs Apptronik Valkyrie by Use Case

Choose the Figure 02 if: - You are a manufacturer, logistics company, or warehouse operator looking to purchase a humanoid for real‑world material handling tasks. - You need a robot that can run 5‑hour shifts without battery changes. - You want an AI‑native platform (Helix) that learns from demonstration, not traditional programming. - You are willing to enter a pre‑order arrangement and wait for commercial delivery.

Choose the Apptronik Valkyrie if: - You are a space agency, research institute, or university lab funded for humanoid robotics R&D. - You need maximum dexterity (44 DOF) for teleoperation experiments in unstructured or hazardous environments. - You require full access to the software stack (ROS‑based) for publishing new algorithms. - You do not need a buyable product — you want a one‑of‑a‑kind research asset (note: Valkyrie is not sold; access is through NASA partnership).

Choose neither if: - You need a low‑cost education humanoid (consider a Unitree G1 or a DIY platform). - You expect immediate, open‑source SDK support and a large developer community.

Real-World Deployments & Track Record

• Figure 02: Figure AI announced a pilot with BMW’s Spartanburg plant in early 2025, where multiple 02 units were reportedly tested for tote handling, kitting, and parts transport. Specific operating hours or productivity metrics have not been made public. Figure’s CEO has stated that the company aims to ship commercial units in 2024–2025, but firm delivery dates remain unconfirmed. All deployment evidence stems from company press releases and demo videos.

• Apptronik Valkyrie: The original Valkyrie (R5) competed in the DARPA Robotics Challenge 2015 Finals, performing tasks such as driving a utility vehicle, opening a door, and using a power drill. Since then, NASA has continued to use upgraded Valkyrie units for the Space Robotics Challenge and for research on autonomous operations in lunar analogue environments. No mass production has occurred; the total number of Valkyrie robots built is reportedly fewer than ten, all owned by NASA.

SDK, Software & Developer Ecosystem

Figure 02: Figure AI has not released an SDK or public API. The robot’s capabilities are accessed through Figure’s cloud platform and Helix AI, which is trained on demonstration data. For a developer who wants to write low‑level controllers or swap out perception pipelines, this black‑box approach is restrictive. For an operations manager who wants to assign tasks via a tablet and let the robot adapt, it’s ideal.

Apptronik Valkyrie: The software stack is ROS‑based, giving researchers the ability to modify every layer — from motor control to high‑level planning. It supports custom URDF models and simulation integration with Gazebo. However, there is no unified “Valkyrie SDK” for external developers, and documentation is limited to NASA internal wikis and published papers.

Winner: For open, hackable research, Valkyrie wins. For commercial plug‑and‑play, Figure 02 takes the lead.

Support, Warranty & Availability

Figure 02: As a pre‑order product, Figure AI is expected to offer enterprise support and service‑level agreements once commercial deliveries begin, but the exact warranty terms have not been disclosed. Availability is restricted to pilot partners; public ordering channels are not yet live. Those interested must contact Figure AI directly.

Apptronik Valkyrie: This robot cannot be purchased and carries no warranty or support for external organizations. Researchers gain access through collaborative agreements with NASA. Spare parts and maintenance are handled internally by NASA or its contractor partners.

Winner: Figure 02, because support and a path to ownership exist, even if details are still emerging.