Figure 02 vs Figure 03: Key Differences

Compare Figure 02 and Figure 03 humanoid robots on design, AI, sensors, battery life, and pricing for industrial vs home use.

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Figure 02 vs Figure 03 at a glance

Figure 03 has more degrees of freedom (60 against 44 for Figure 02), which allows finer movement. Figure 03 is lighter at 61 kg, compared with 70 kg for Figure 02.

Which one fits your use?

Based on the uses each robot is built and marketed for. Open a use to see the specs that matter for it.

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  • Pick Figure 02 for warehouse and logistics work, factory and manufacturing work and hazardous or high-risk work.
  • Pick Figure 03 for home help and elder care.
  • Both suit research labs, education and training, hospitality, retail and public-facing roles and healthcare settings, so compare the specs for that use.

Figure 02, introduced by Figure AI in August 2024, is positioned as an industrial humanoid robot designed for automotive assembly, repetitive industrial tasks, hazardous material handling, and logistics automation. It stands out with its robust build, six RGB cameras, and an Nvidia-powered AI system enabling autonomous operation with remote override. Its substantial size and weight reflect its industrial focus and task specialization.

Figure 03, launched in October 2025, represents a next-generation humanoid robot by Figure AI, aimed at broader use including home assistance and commercial environments. It features a lighter, more compact design with advanced sensory capabilities, a new AI system called Helix, and enhanced software architecture supporting voice commands and app integration. Its cost-effective manufacturing and expanded application scope distinguish it from the Figure 02.

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Detailed Analysis

Figure 02

Figure 02

Design & Build Quality

Figure 02 has larger dimensions (168 x 50 x 30 cm) and weighs 70 kg, designed primarily for industrial environments with a focus on durability and compliance with industrial safety standards. In contrast, Figure 03 is 9% lighter and smaller (167 x 60 x 50 cm), with softer multi-density foam padding and textile covering to enhance safety for domestic and commercial settings. The manufacturing process for Figure 03 shifts from CNC machining to die-casting and injection molding, allowing for cost reduction and mass production.

Figure 03

Figure 03

Mobility & Navigation

Figure 02 moves at 4.3 km/h (1.2 m/s) with vision-based SLAM navigation using onboard cameras, optimized for industrial tasks requiring precise autonomous movement. Figure 03 improves mobility speed to 4.2 km/h and employs the Helix AI system combining vision, language, and action, with SLAM and mmWave data offload, enabling better fleet learning and navigation in cluttered or dynamic environments like homes.

Figure 02

Figure 02

Sensors & Perception

Figure 02 is equipped with six RGB cameras, IMU, gyroscope, force sensors, a touchless human detection sensor, microphones, and speakers for perception and interaction in industrial settings. Figure 03 advances this suite with palm cameras, tactile fingertip sensors capable of sensing a few grams of pressure, an improved auditory system with more powerful speakers and repositioned microphones, and wider field-of-view cameras, enhancing real-time response and delicate manipulation.

Figure 03

Figure 03

AI Capabilities

Figure 02 uses a custom Linux-based OS with ROS-style APIs and Nvidia RTX GPU modules for AI inference, supporting fully autonomous control with remote override. Figure 03 integrates the Helix AI system based on ROS and Linux, supporting Python and C++ APIs, with vision-language-action processing that enables learning directly from humans and adapting to new tasks via natural language prompts, representing a significant step toward general-purpose autonomy.

Figure 02

Figure 02

Battery & Power Efficiency

Figure 02’s battery details are unspecified, though it integrates the battery into the torso. Figure 03 features an internal, wirelessly charged battery compliant with UN38.3 standards, offering 3-5 years of battery life, and improved energy efficiency supporting longer autonomous operation and reduced downtime.

Figure 03

Figure 03

Use-Case Suitability

Figure 02 targets industrial applications like automotive assembly and hazardous material handling, designed for repetitive, high-precision tasks in controlled environments. Figure 03 broadens this scope to include home assistance, elderly care, household chores, and light object manipulation, emphasizing safety and adaptability in complex, cluttered, or human-centric spaces.

Figure 02

Figure 02

Software Ecosystem

Both robots operate on Linux-based systems with ROS integration, but Figure 03’s Helix AI system supports advanced vision-language-action capabilities and app integration for remote monitoring and voice commands. This makes Figure 03 more versatile for interactive and adaptive tasks compared to the more industrially focused software stack of Figure 02.

Figure 03

Figure 03

Safety Features

Figure 02 includes emergency stop, collision detection, and compliant actuators for industrial safety. Figure 03 enhances safety with multi-density foam padding, soft textile coverings, pinch point protection, emergency stop, and obstacle avoidance, addressing risks associated with domestic and close human interaction environments.

Figure 02

Figure 02

Pricing & Value

Figure 02 is priced at approximately $130,000, reflecting its industrial-grade build and capabilities. Figure 03 is offered in a lower price range of $50,000 to $70,000, enabled by redesigned manufacturing processes and component cost reductions, making it more accessible for broader commercial and domestic use.

Capabilities & Operational Tasks

Head-to-head comparison of what Figure 02 and Figure 03 can do, their applications, and capabilities.

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What Can Figure 02 & Figure 03 Do?

24

11 tasks listed for both, 7 only for Figure 02, 6 only for Figure 03.

Figure 0218 supported
Figure 0317 supported

Technical Specifications

Figure 02 and Figure 03 differ on 34 of the 54 specifications listed for both.

Figure 02
Figure 03

Functional Utility & Use Cases

4 Comparative Metrics

Control Method
Fully autonomous AI control with remote override
AI autonomous control with voice command, remote monitoring, app integration
Use Cases
Automotive sheet metal placement, bin picking, conveyor-to-tote sorting (deployed at BMW Spartanburg), autonomous household dishwasher unloading demos (via Helix VLA)
Laundry handling, dish handling, cleaning, household fetching/carrying, general domestic assistance
Multi Robot Coord
Not publicly disclosed
Fleet-wide data offload (10 Gbps mmWave) for continuous learning; robot-to-robot coordination not stated
Pet Friendly
Not publicly disclosed
Not publicly disclosed

Manipulation & Load Capacity

4 Comparative Metrics

Carrying Capacity
20 kg (44 lbs)
20 kg per arm | (Inferred · High confidence · Based on Figure AI’s public 20 kg payload claim and humanoid arm-load distribution)
Deadlift Capacity
25 kg (55 lbs)
20 kg | (Inferred · Medium confidence · Typical conservative lift capacity aligned with published payload)
Payload Type
20 kg (44 lbs) continuous carrying capacity, up to 25 kg (55 lbs) max deadlift
Household items, tools, laundry, dishes
Modular Attachments
Not publicly disclosed
Not publicly disclosed

Kinematic Architecture & Dexterity

4 Comparative Metrics

Degrees of Freedom
44 DoF
60
Material
Aluminum, composite, soft materials
Aluminum, steel, composites, soft polymer coverings, foam, textiles
Mobility Type
Legged (Humanoid bipedal locomotion)
Bipedal legged humanoid
Hardware Interface
Not publicly disclosed
Not publicly disclosed

Comparison Depth: 12 / 54 Metrics

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Verdicts reflect our research and opinion. Confirm specifications with the manufacturer before buying.