Figure AI, the California-based humanoid robotics company led by CEO Brett Adcock, has announced its third-generation humanoid platform, designated Figure 03. The company states that its engineering and design teams have completed what it describes as a comprehensive redesign of both hardware and software, with the stated goal of producing a robot better suited for artificial intelligence applications, domestic environments, and mass production.
According to the source material, Figure 03 represents a deliberate shift in design philosophy compared to its predecessor, Figure 02. The most immediately visible change is the replacement of hard machined parts with soft textiles and strategically placed multi-density foam. These materials are positioned in key areas to protect against pinch points, addressing one of the fundamental safety concerns when operating a humanoid robot in close proximity to people in everyday settings.
The company reports that Figure 03 has 9% less mass and significantly less volume than Figure 02. This reduction in physical footprint is intended to make the robot easier to maneuver through household spaces, which tend to have narrower doorways, tighter corners, and more cluttered layouts than industrial environments. The robot is described as lighter and slightly smaller than the prior generation.
Beyond the physical redesign, Figure 03 incorporates several features aimed at everyday usability. The soft portions of the robot are fully washable and can be removed or replaced without the use of tools. This allows for quick and easy swaps, which is relevant for maintaining hygiene in a domestic setting. The robot can also be customized with various clothing options, including garments made from cut-resistant and durable materials.
Power and audio systems were upgraded for everyday usability, according to the source material. The robot also features wireless inductive charging, which eliminates the need for physical charging connectors that could become worn or damaged over time.
Figure 03 is positioned as a physical platform for Helix, the company's vision-language-action system. This means the robot is designed from the ground up to work safely in homes, scale in factories, and operate across commercial environments. The company describes Figure 03 as a true general-purpose platform that combines high-frequency perception, more compliant and tactile hands, and seamless home integration.
The sensory suite has been redesigned for this generation. The robot includes improved hands with tactile sensing and palm cameras, which are relevant for manipulation tasks that require fine motor control and visual feedback at the point of contact. These features are particularly important for tasks such as grasping objects of varying shapes, textures, and fragility.
While the home use case is highlighted extensively in the announcement, the source material notes that the same sensing, hands, charging, and manufacturing choices have clear commercial applications. Faster actuators and higher torque density translate into quicker pick-and-place cycles in logistics or retail stocking environments. This dual-use positioning is notable because it suggests Figure is not betting solely on the consumer market but is maintaining a path toward industrial deployment as well.
The company has demonstrated Figure 03 robots sorting packages during extended autonomous operations, including an eight-hour livestreamed shift. This demonstration was intended to show the robot's ability to sustain productive work over extended periods without human intervention, which is a key requirement for commercial viability.
Figure has also outlined a manufacturing roadmap through BotQ, the company's production arm. The hardware is described as intended for mass production, which suggests design choices that prioritize manufacturability, serviceability, and cost reduction at scale.
The announcement comes at a time when the humanoid robotics sector is attracting significant attention from both established technology companies and investors. The source material includes commentary on the competitive landscape, noting that Apple, despite its hardware depth, custom silicon, industrial design capabilities, privacy architecture, Vision Pro headset, sensors, home devices, and Apple Intelligence, does not have a visible advanced humanoid robotics platform. The commentary suggests that Figure could provide that physical body for AI, making the scenario more urgent because Figure 03 gives the company a clearer product direction spanning home, factory, scale, Helix, tactile hands, safer materials, wireless charging, and production-focused design.
Why it matters for European robot service
For the European robotics ecosystem, the Figure 03 announcement carries several implications that extend beyond the immediate product launch.
First, the design choices embedded in Figure 03 reflect a maturing understanding of what humanoid robots need to do to be accepted in human environments. The shift from hard machined parts to soft textiles and multi-density foam is not merely cosmetic. It addresses a fundamental safety concern that has been a barrier to deploying humanoid robots in settings where people are not trained to work alongside machinery. European service robot operators, particularly those working in healthcare, hospitality, and domestic assistance, have long grappled with this issue. The approach taken by Figure — using compliant materials at pinch points and covering the robot in washable textiles — offers a template that other manufacturers may follow.
Second, the emphasis on washable and removable soft portions without tools is directly relevant to European hygiene standards and maintenance practices. In sectors such as healthcare and food service, the ability to clean robot surfaces thoroughly is not optional. The fact that Figure 03 allows for tool-free removal and replacement of soft covers suggests that the company has considered the operational realities of deploying robots in environments where cleanliness is regulated. European operators who are evaluating humanoid robots for such applications will likely view this feature as a practical advantage.
Third, the 9% mass reduction and smaller volume are significant for European building stock. Many European homes and commercial buildings are older and have narrower doorways, tighter staircases, and smaller elevators than their counterparts in newer markets. A robot that is lighter and slightly smaller than its predecessor is more likely to navigate these spaces effectively. This is not a trivial consideration; the physical dimensions of a robot determine where it can operate, and European service providers must account for the built environment when planning deployments.
Fourth, the dual-use positioning of Figure 03 — designed for both home and commercial environments — aligns with the structure of the European service robotics market. Many European robot service companies operate across multiple verticals, offering solutions that can be adapted from one setting to another. A platform that is designed for home use but also capable of faster pick-and-place cycles in logistics or retail stocking offers flexibility that European integrators can leverage.
Fifth, the extended autonomous demonstration, including the eight-hour livestreamed shift, speaks to the question of reliability and endurance. European buyers and operators are often cautious about adopting new robotic platforms, particularly humanoids, because of concerns about uptime, maintenance requirements, and the total cost of ownership. Demonstrations that show sustained autonomous operation over extended periods provide evidence that the platform can handle real workloads, not just controlled demonstrations.
Sixth, the manufacturing roadmap through BotQ is relevant for European buyers who are concerned about supply chain resilience. The source material indicates that Figure 03 hardware is intended for mass production, which implies a focus on manufacturability and cost reduction. For European operators, this could translate into more predictable pricing, shorter lead times, and better spare part availability — though the source material does not disclose specific figures for any of these factors.
It is also worth noting what the source material does not disclose. The announcement does not provide specific pricing for Figure 03, nor does it give a timeline for commercial availability in European markets. It does not specify the robot's payload capacity, battery life, or operational range. It does not disclose the number of units that have been produced or the production capacity at BotQ. It does not provide details on the software development kit, API access, or integration options for third-party developers. These are all factors that European buyers and operators will need to consider when evaluating Figure 03 for their specific use cases.
The commentary in the source material regarding Apple is also worth considering from a European perspective. Europe has a strong technology sector, but it has not produced a major humanoid robotics platform that rivals the scale and visibility of Figure. This creates both a challenge and an opportunity. The challenge is that European buyers may need to rely on non-European platforms for humanoid robotics. The opportunity is that European companies can differentiate themselves through integration, service, and application development — areas where European firms have demonstrated strength.
What buyers and operators should know
For buyers and operators who are evaluating Figure 03 or similar humanoid platforms, several factors from the source material warrant careful consideration.
The safety design is a genuine differentiator. The use of multi-density foam at pinch points and soft textiles instead of hard machined parts addresses a real operational concern. When a robot operates in a home or a commercial environment where people are present, the risk of injury from pinch points or hard surfaces is a liability consideration. The approach taken by Figure suggests that the company has thought through these scenarios and made design choices to mitigate them. However, the source material does not provide specific safety certifications or test results. Buyers should ask for documentation on safety standards compliance, particularly if they are operating in regulated sectors such as healthcare or food service.
The washable and removable soft portions are a practical feature, but they also raise questions about durability and replacement frequency. The source material states that the soft portions can be removed and replaced without tools, and that clothing options include cut-resistant and durable materials. What is not stated is how often these soft portions need to be replaced under normal use, what they cost, or how long replacement parts take to arrive. European buyers should factor these consumable costs into their total cost of ownership calculations.
The 9% mass reduction and smaller volume are meaningful but not dramatic changes. The source material does not provide the absolute weight or dimensions of Figure 03, so it is not possible to determine whether the robot will fit through specific doorways or operate in specific spaces. Buyers should request detailed specifications and, ideally, conduct site surveys to verify that the robot can navigate their facilities.
The wireless inductive charging feature is notable for operational convenience. It eliminates the need for physical connectors, which can be a point of failure in high-use environments. However, the source material does not specify charging time, battery capacity, or operational duration on a single charge. These are critical factors for planning shift schedules and charging infrastructure. Buyers should request these specifications and compare them against their operational requirements.
The faster actuators and higher torque density are relevant for commercial applications such as pick-and-place cycles in logistics or retail stocking. The source material suggests that these improvements translate into quicker cycle times, but it does not provide specific performance metrics such as cycle time per pick, payload capacity, or repeatability. Buyers who are considering Figure 03 for commercial applications should request benchmark data and, if possible, arrange for demonstrations that reflect their specific use cases.
The extended autonomous demonstration, including the eight-hour livestreamed shift, is an encouraging data point. It suggests that the robot can sustain productive work over extended periods. However, the source material does not disclose the failure rate, the number of interventions required, or the conditions under which the demonstration was conducted. Buyers should treat this as a positive signal but not as a substitute for their own pilot testing.
The manufacturing roadmap through BotQ is relevant for supply chain planning. The source material indicates that the hardware is intended for mass production, which suggests that Figure is planning for scale. However, the source material does not disclose production capacity, current order backlog, or lead times. European buyers who are planning deployments should engage with Figure directly to understand availability and delivery timelines.
The integration with Helix, the vision-language-action system, is a key architectural decision. This means that Figure 03 is designed to operate with a specific AI system that translates visual input and language commands into physical actions. Buyers should understand what this means for their operations. Can the robot be programmed using standard robotics frameworks, or does it require the Helix system? What is the learning curve for operators and integrators? What are the options for customizing behaviors and workflows? The source material does not provide these details, so buyers should seek clarification from Figure.
The source material also notes that Figure 03 is positioned as a platform for AI, home use, and scaling. This triple positioning is ambitious, and buyers should consider whether it represents a coherent product strategy or a spread of focus. For European buyers, the key question is whether Figure can deliver on all three fronts simultaneously, or whether one use case will receive more attention than others.
Finally, the source material includes commentary about Apple and the broader competitive landscape. This is context, not product information. European buyers should focus on the specific capabilities and specifications of Figure 03 rather than the strategic positioning of technology companies.
What is not disclosed in the source material is extensive. There is no pricing information. There is no timeline for general availability. There is no specification sheet with detailed technical data. There is no information on warranty, service agreements, or support infrastructure in Europe. There is no information on software updates, security features, or data privacy — all of which are critical considerations for European buyers, particularly in light of GDPR and other regulations.
Buyers and operators should approach Figure 03 with measured optimism. The design choices described in the source material — soft textiles, multi-density foam, washable covers, wireless charging, tactile hands, and a focus on manufacturability — suggest that Figure has listened to feedback from early deployments and has made thoughtful improvements. The extended autonomous demonstration is a positive signal. However, the absence of detailed specifications and commercial terms means that buyers cannot yet make a fully informed purchasing decision based on this announcement alone.
The practical next step for European buyers is to engage with Figure directly, request detailed specifications, and arrange for pilot testing in their own environments. The source material provides a clear picture of the design direction, but it does not provide the operational data that buyers need to make investment decisions.
Published by Vigla Media OÜ (Estonia).
Sources
Figure AI designs Figure 03 humanoid for AI, home use, and scaling