Figure 03 vs Tesla Optimus: Price, AI & Availability

Figure 03 and Tesla Optimus are two of the most important humanoid robots in development, but they are not equally mature or equally transparent products in 2026.

Figure 03 is Figure AI’s current production-generation humanoid, with published dimensions, payload, speed and runtime, a documented Helix 02 autonomy stack, manufacturing at BotQ and selected commercial development work. Tesla Optimus is a larger vertically integrated robotics programme preparing for mass production, but Tesla has not published a current customer specification sheet, commercial price, public order channel or external developer programme.

The practical answer is: Figure 03 is ahead today in product definition, demonstrated full-body autonomy and evidence available to a prospective commercial partner. Tesla Optimus has the more aggressive long-term manufacturing plan, but it remains less verifiable and is not a product an external buyer can order.

Quick verdict: Choose Figure 03 as the stronger 2026 platform to evaluate if your organisation can access a controlled commercial partnership and wants a documented humanoid for logistics, manipulation or future home-task development. Do not plan a normal purchase around either robot yet. Wait for Tesla to publish a current Optimus specification, price, supported use cases, commercial terms and delivery schedule before treating it as a procurement option.

Anton Robots tracks the latest Figure 03 price, specifications and availability and the current Tesla Optimus product status. For a direct model-by-model view, open the Figure 03 vs Tesla Optimus comparison with both robots already selected.

Last reviewed: 17 July 2026. This comparison prioritises current manufacturer specifications, official technical updates and company disclosures. Manufacturer demonstrations are identified as demonstrations, manufacturing capacity is not treated as current output, and historical Tesla Bot targets are not presented as current Optimus Gen 3 specifications.

Figure 03 vs Tesla Optimus at a Glance

What Are We Actually Comparing?

This is not a comparison between two finished humanoid robots available from a catalogue. It is a comparison between two closed, pre-retail platforms at different levels of product definition and external evidence.

Figure 03 is a named current-generation robot. Figure publishes its basic physical specifications, describes the hardware changes made for Helix, documents the battery and charging architecture, identifies the BotQ manufacturing system and shows the robot in home and industrial task demonstrations. Figure has also described how robots coming from BotQ are allocated to internal research, data collection, end-to-end housework development and commercial use-case work.

Tesla Optimus is an evolving programme rather than a stable external product configuration. Tesla’s Q4 2025 update described Gen 3 as the first Optimus design intended for mass production. Its Q1 2026 update then listed Optimus manufacturing in California and Texas as “construction” and described production lines designed for very large future capacity. Tesla has not paired those plans with a public Gen 3 datasheet, a customer contract, an order page or a supported deployment specification.

The central comparison rule: Figure 03 has a current robot and a selective deployment path, while Tesla has a production-intended programme and a much larger capacity plan. Neither has a standard product that an ordinary business or household can buy.

That difference changes how every category should be scored. Figure 03 can be evaluated against published claims and current demonstrations. Optimus can be evaluated only against Tesla’s official programme disclosures, not against old Tesla Bot slides, unverified social-media estimates or future price targets.

How We Compared Figure 03 and Tesla Optimus

This article uses the current Figure 03 product page, Figure’s technical announcements for Figure 03 hardware, Helix 02, the F.03 battery, production ramp and the BMW Figure 03 workflow. Tesla status is based on the Tesla AI and Robotics page, its 2025 annual report and the latest published quarterly updates available at the review date.

This is an evidence-based technical and commercial comparison, not a hands-on endurance test. Neither robot is available to Anton Robots for an independent laboratory benchmark, and no manufacturer video is treated as proof of a general capability outside the shown conditions.

The comparison follows six rules:

1. Current hardware beats historical targets: a current Figure 03 specification counts; a 2021 Tesla Bot concept number does not count as a Gen 3 specification.
2. A supported deployment beats a demonstration: a video shows that a task was performed under particular conditions, not that every buyer receives that capability.
3. External evidence beats internal ambition: selected real-world partner work is stronger procurement evidence than a future internal production target.
4. Unknown stays unknown: unpublished Optimus payload, runtime, dimensions and price are not filled with estimates.
5. Capacity is not output: a line designed for 12,000, one million or ten million robots per year is not assumed to be producing at that rate.
6. Commercial access matters: a technically advanced robot does not become a purchasable product until price, delivery, warranty, support and acceptance criteria exist.

Which Is Better: Figure 03 or Tesla Optimus?

Figure 03 is the better humanoid robot to evaluate in 2026 because it has a defined current platform, published core specifications, a named AI system, documented hardware architecture and visible commercial-development activity. Tesla Optimus is the more aggressive mass-manufacturing programme, but it cannot yet be compared as a normal product.

Figure 03 does not win because every performance claim has been independently verified. It wins because Figure gives buyers and analysts more current evidence to work with. Height, mass, payload, speed, runtime, charging architecture, tactile sensing, palm cameras, AI system and manufacturing line are all described for the same current generation.

Optimus has a different strategic advantage. Tesla can combine robot hardware, vision models, custom inference processors, AI training infrastructure, battery manufacturing, supply-chain scale and high-volume factory experience inside one company. If Tesla converts that infrastructure into a reliable and affordable humanoid, Optimus could become more economically important than Figure 03.

The problem is timing and proof. A future ability to produce millions of robots does not tell a 2026 buyer what one Optimus can lift, how long it runs, what task it can complete, how often it needs help, what it costs or when it can be delivered.

• Best-defined current robot: Figure 03
• Best current public full-body autonomy evidence: Figure 03
• Best current external commercial evidence: Figure 03
• Most ambitious manufacturing plan: Tesla Optimus
• Best robot to buy normally in 2026: neither
• Best open developer platform: neither
• Best proven general-purpose worker: neither
• Overall 2026 winner: Figure 03

Availability: Can You Buy Figure 03 or Tesla Optimus?

Figure 03 availability

Figure 03 is being manufactured and allocated, but it is not sold through a public retail store or a normal enterprise catalogue. Figure says robots from BotQ are going to internal research and development, data collection, end-to-end housework development and commercial use-case development. Its public site offers contact rather than a standard configuration, published price and checkout path.

That means “available” needs a precise definition. Figure 03 exists as current hardware and selected organisations may be able to work with Figure, but an ordinary buyer cannot assume that a robot can be ordered, delivered to any country and supported under standard commercial terms.

The June 2026 BMW update is useful evidence because it shows Figure 03 operating in a real manufacturing environment on a sequencing workflow. It is still described as a demonstration, not as a generally available product package with a published cycle-time guarantee, price and service-level agreement.

Tesla Optimus availability

Tesla does not provide an Optimus order page, public reservation, enterprise sales configuration or standard delivery programme. The company’s Q1 2026 update describes factory preparation and lists Optimus manufacturing capacity as construction. Its annual report describes Tesla as working to develop and commercialise AI robots, including Optimus.

This is stronger than an early concept, but it is not customer availability. Production lines, internal robots and demonstrations do not establish when an external university, warehouse, manufacturer or household can receive a supported unit.

Availability winner

Figure 03 wins availability in the narrow sense that it is current hardware entering selected commercial-development environments. Neither robot wins as a normal buy-now product.

Before calling either robot “available”, require written answers to five questions: who can order it, under what commercial model, in which countries, with what delivery date and with what support commitment.

Price: Figure 03 vs Tesla Optimus

How much does Figure 03 cost?

Figure has not published a retail or standard enterprise price for Figure 03. There is no public base configuration that defines the included robot, charging system, Helix access, software services, installation, support, warranty or data terms.

Any real Figure 03 commercial cost would depend on the structure of the engagement. It could include hardware, pilot engineering, site mapping, task development, data collection, remote support, software access, charging equipment, spare parts, insurance, travel and on-site service. A selected development partnership cannot be reduced to a simple unit price unless Figure publishes one.

How much will Tesla Optimus cost?

Tesla has not published a commercial Optimus price. Widely repeated figures online are projections, historical statements or analyst estimates, not a quote for a current Gen 3 robot. Without a defined hardware revision, included software, warranty, service model, delivery territory and supported task, an aspirational unit-cost target has little procurement value.

A low future manufacturing cost would also not equal a low installed cost. The buyer may still need site preparation, integration, charging, supervision, fleet software, safety controls, maintenance and task training.

Price winner

There is no price winner. Neither Figure 03 nor Tesla Optimus has a published commercial offer that can be compared like-for-like in 2026.

Figure 03 is easier to evaluate technically, but greater specification transparency does not create price transparency. The correct buying action is to treat both prices as “not published”, not to insert an estimate that makes the table appear complete.

Figure 03 vs Tesla Optimus Specifications

The table exposes the most important asymmetry: Figure 03 has a real current specification profile, while current Optimus entries remain blank. That does not prove Figure 03 is superior in every physical category. It proves that Figure can be evaluated and Optimus cannot yet be engineered into an external project using official current data.

Why Old Tesla Bot Specifications Are Not Current Optimus Specifications

Tesla’s original 2021 Tesla Bot presentation included concept targets for height, weight, speed and carrying capacity. Those figures are still copied into 2026 comparison tables, even though Tesla has moved through several hardware iterations and now describes Gen 3 as its first design intended for mass production.

A concept target should not be treated as a rated production specification. The current robot may be taller, shorter, heavier, lighter, stronger or slower. Until Tesla publishes a current datasheet, the accurate entry is “not published”.

This stricter treatment makes the comparison less sensational but more useful. A business cannot build a safety case, reach study, budget or production plan around numbers that may describe an obsolete prototype.

Physical Design, Size and Human-Environment Fit

Figure 03 is designed at adult human scale: approximately 173 cm tall and 61 kg. Figure says it has 9% less mass and substantially less volume than Figure 02, with soft textiles and multi-density foam added around potential contact and pinch areas. The washable soft goods can be removed without tools, and different garments can be used for home or commercial environments.

That design has practical advantages. A human-scale robot can reach shelves, counters, carts, doors and equipment designed for people. Lower mass can reduce transport and energy demands compared with a heavier platform. Soft external materials may reduce minor contact severity and make the robot feel less industrial in a home.

It does not make Figure 03 inherently safe. A 61 kg biped can fall, trap fingers, drop objects or create impact hazards. Soft covers do not replace force limits, fall management, emergency controls and a validated operating envelope.

Tesla also intends Optimus to work in human environments, but Tesla has not published current Gen 3 dimensions or mass. Without those figures, an external engineer cannot confirm doorway clearance, stair geometry, workstation reach, floor loading, storage requirements, transport method or fall zone.

Physical-design winner: Figure 03, because its current dimensions and mass are published. Optimus may eventually have comparable or better ergonomics, but that cannot be verified today.

Hands, Dexterity and Manipulation

Figure 03’s hands are one of its most important advantages. Each hand includes an embedded palm camera for close-range visual feedback when the main cameras are occluded. Figure also describes softer fingertips, larger effective contact area and tactile sensing intended to support stable grasps across rigid, deformable, small and irregular objects.

Helix 02 demonstrations extend that hardware story. Figure has shown delicate manipulation such as extracting individual pills, dispensing controlled syringe volumes and separating small objects from clutter. It has also shown longer household sequences involving dishes, cabinets, clothing and other everyday objects.

These results are technically meaningful because they combine close-range perception, touch and active whole-body positioning. A humanoid often loses sight of an object when its own hand blocks the head camera. Palm cameras directly address that failure mode.

However, demonstrations do not answer every deployment question. Figure does not publish a complete customer hand specification with rated fingertip force, grasp-force range, finger speed, cycle life, ingress protection, repair cost, tool-change interface or measured success rate across a standard object set.

Tesla has repeatedly identified hand development as central to Optimus, and its Q4 2025 update said Gen 3 would include its latest hand design. Tesla has not published the current hand’s degrees of freedom, tactile architecture, force limits, cycle life or customer control interface.

Do not choose a humanoid by hand appearance or finger count. Choose it by task completion rate, object range, grasp recovery, cycle time, durability and the cost of maintaining the hand.

Manipulation winner in 2026: Figure 03. It has the stronger combination of current hardware disclosure and task evidence. Optimus remains unscorable until Tesla publishes the production hand and measurable performance.

AI: Helix 02 vs Tesla’s Real-World AI Stack

Figure Helix 02

Helix is Figure’s vision-language-action system connecting perception, language, movement and reasoning. Figure says Helix operates onboard and controls the loop from visual input to physical action. Helix 02 extends that approach from upper-body manipulation to full-body autonomy.

Figure describes Helix 02 as combining three functional layers. Its learned whole-body controller was trained using more than 1,000 hours of human motion data and sim-to-real reinforcement learning. The higher-level system coordinates locomotion and manipulation so the robot can move its feet, torso, arms and hands as one behaviour rather than as isolated subsystems.

The value is visible in tasks where reach changes continuously. Pulling a cart, placing a part while stepping, unloading a dishwasher or reaching into a cabinet cannot be solved reliably by freezing the legs and moving only the arms. Whole-body control allows the robot to reposition itself while maintaining balance and hand accuracy.

Figure has shown a continuous four-minute dishwasher task using onboard sensors with no human intervention, two robots resetting a bedroom and a Figure 03 sequencing workflow at BMW. These are manufacturer-reported results, but they provide a clearer picture of the current AI system than a generic claim of “AI-powered”.

Tesla Optimus AI

Tesla’s AI strategy is broader and potentially more scalable. The company develops vision models, planning systems, AI training infrastructure and custom inference processors. Its official AI page explicitly connects balance, navigation, perception and physical interaction to the Optimus goal.

Tesla can also draw on organisational experience from vehicle autonomy, large-scale data systems, over-the-air software deployment and hardware-software co-design. This vertical integration could eventually reduce compute cost and accelerate fleet learning.

The limitation is robot-specific transparency. Tesla does not publish the current Optimus model architecture, training-data composition, onboard compute, inference latency, task-learning process, intervention rate, fleet-learning workflow or customer data controls. There is no external benchmark showing how the production-intended robot performs on a defined task set.

AI winner

Figure 03 wins the current AI comparison because Helix 02 is attached to a defined robot and supported by detailed full-body task demonstrations. Tesla wins the scale-of-infrastructure comparison, but infrastructure is not the same as current robot capability.

For a buyer, the decisive metrics are not model names. Ask for first-attempt success, average completion time, human interventions per hour, recovery after failure, performance after object changes and the amount of task-specific training required.

Sensors, Perception and Navigation

Figure 03 has a redesigned vision system built for high-frequency visuomotor control. Figure reports twice the frame rate, one-quarter of the latency and a 60% wider field of view per camera compared with Figure 02. It also adds palm cameras and tactile sensing for close-range manipulation.

This architecture is well aligned with home and logistics work. Homes contain clutter, reflective objects, deformable materials, narrow spaces and frequent occlusion. Logistics sequencing contains parts that shift, rotate and arrive in different poses. Both require continuous visual correction rather than a fixed prerecorded trajectory.

Figure also describes 10 Gbps millimetre-wave data offload, allowing fleet data to be transferred when robots return to their stations. That can accelerate training and diagnostics, although it raises practical questions about data volume, storage, privacy and network design.

Tesla describes Optimus as vision based and linked to its neural-network approach, but it does not publish the current camera layout, fields of view, depth strategy, tactile architecture, redundancy, lighting limits or sensor-stream access.

Perception winner: Figure 03. It has a documented sensor design tied directly to manipulation and fleet learning. Optimus cannot be compared at the same level until Tesla publishes the current hardware architecture.

Locomotion and Full-Body Control

Both robots are bipedal because their intended environments were designed for humans. Bipedal locomotion provides access to stairs, narrow aisles, irregular workstations and spaces where wheels may not fit. It also adds complexity, energy use and fall risk.

Figure publishes a maximum speed of 1.2 m/s. More important than the headline speed is Helix 02’s loco-manipulation: the ability to coordinate stepping, balance and hand work within one policy. The BMW sequencing demonstration shows Figure 03 picking parts, adjusting foot placement and pulling a wheeled cart.

This is more relevant to useful work than an unloaded walking-speed record. A production task requires the robot to carry or manipulate an object while adapting to variation, not merely walk across a clear floor.

Tesla has demonstrated continuing locomotion development, but no current rated Gen 3 speed, slope limit, step height, terrain classification, fall-recovery performance or loaded walking envelope is public.

• Published current speed: Figure 03
• Documented current loco-manipulation: Figure 03
• Current external terrain specification: neither
• Independent long-duration mobility benchmark: neither

Payload, Reach and Useful Work

Figure publishes a 20 kg payload for Figure 03. This is a useful starting point, but it is not enough to select the robot for a material-handling application. The public page does not explain whether the figure is a combined payload, a carrying limit, a static maximum or a limit under a specific posture.

Real work depends on the full load envelope:

• payload at different horizontal reaches;
• one-handed versus two-handed handling;
• walking stability while loaded;
• object size, centre of mass and grip surface;
• acceleration and deceleration limits;
• thermal limits and repeated-cycle duty;
• safe load retention during faults; and
• recovery after a slip or failed grasp.

The BMW sequencing example is important because it shows both precision and whole-body force in one workflow. Figure 03 handles thin parts and pulls a cart. It still does not establish a standard rated cycle or general material-handling capacity for every customer.

Tesla has not published a current Gen 3 payload or reach. Historic Tesla Bot carrying and lifting targets should not be treated as current ratings.

Payload winner: Figure 03 for providing a current number and useful task evidence. A real buyer should still request the full payload-versus-reach curve and task test before selection.

Battery Life, Charging and Continuous Operation

Figure 03 uses a 2.3 kWh battery that Figure says supports five hours of runtime at peak performance. The battery is integrated into the torso and uses a custom management system, active cooling and multiple layers of fault protection.

Figure also designed the robot around 2 kW charging and wireless inductive charging through coils in the feet. The robot can step onto a charging stand rather than requiring a person to plug in a cable. This is a significant operational feature because a humanoid that cannot manage its own energy remains dependent on routine human intervention.

Five hours of runtime does not mean five hours of productive task time. Walking, manipulation, payload, compute, temperature and idle periods affect consumption. Wireless charging also introduces time when the robot is unavailable unless charging is integrated into breaks or low-demand periods.

A realistic duty-cycle model should calculate:

• productive minutes per hour;
• energy consumed per task;
• time required to reach the target state of charge;
• distance and time to the charging location;
• queueing if several robots share chargers;
• battery degradation over the expected life; and
• what happens if the robot cannot dock autonomously.

Tesla has not published the current Optimus battery capacity, runtime, charging power, docking system or expected duty cycle.

Battery and charging winner: Figure 03 by a wide margin. It provides a current energy architecture that can be modelled, while Optimus remains unspecified.

Home Tasks: Which Robot Is Closer to a Household Product?

Figure 03 was redesigned explicitly with home use in mind. Its lower mass, soft exterior, washable clothing, improved audio, palm cameras, tactile sensing and wireless charging all address household conditions. Figure’s public material shows the robot unloading and loading a dishwasher, putting away objects, handling laundry and working with another robot to reset a bedroom.

That makes Figure 03 the more credible home-focused platform. It does not make it a finished consumer appliance.

A real household robot needs more than impressive task coverage. It must handle children, pets, liquids, stairs, reflective surfaces, fragile objects, changing lighting, clutter, Wi-Fi interruptions and people who give ambiguous instructions. It also needs predictable privacy controls, simple recovery, safe contact behaviour, low noise, affordable service and a clear answer when it cannot complete a task.

The most important missing commercial facts are:

• retail price or subscription cost;
• supported countries and home types;
• task list at delivery;
• human assistance and remote-operation requirements;
• privacy and data-review policy for household video and audio;
• warranty, repairs and home service;
• safe operation around children and pets; and
• a public delivery schedule.

Tesla Optimus has a long-term general-purpose vision that could include homes, but Tesla’s public 2026 material remains more focused on robotics development and manufacturing preparation than on a finished household offer.

Home winner: Figure 03 is closer technically and is designed for the home. Neither robot is a consumer product that a household should plan to buy today.

Factory and Logistics Work

Figure has the stronger public external evidence in industrial environments. Figure 02 previously performed sheet-metal loading at BMW, and Figure reports that it contributed to production work associated with 30,000 vehicles in 2025. Figure 03 returned to BMW in 2026 for a more complex sequencing demonstration.

Sequencing is a strong humanoid use case because it combines perception, dexterity and mobility. Parts are not always presented in an identical pose, and the robot must adapt while moving between carts and placement locations. Figure 03’s Helix 02 system coordinates hands, arms, torso and feet as the robot selects parts and repositions itself.

This is more relevant than a generic pick-and-place video, but buyers should remain precise. The public update does not provide:

• average cycle time compared with a human;
• task success rate over a full shift;
• interventions per hour;
• uptime and mean time between failures;
• the number of deployed robots;
• the duration of the Figure 03 BMW programme;
• safety architecture around workers; or
• commercial price and payback.

Tesla’s likely early advantage is factory access. It can test Optimus inside its own manufacturing operations without waiting for an external customer. That may accelerate iteration and create large amounts of task data. However, internal testing is not the same as an externally supported deployment. Tesla does not publish a customer task catalogue, integration package or service model.

Factory winner for current external evidence: Figure 03. Tesla may ultimately scale faster inside its own ecosystem, but buyers cannot procure that capability yet.

Manufacturing: BotQ vs Tesla’s Planned Optimus Factories

Figure BotQ

Figure built BotQ as an in-house manufacturing facility for humanoid robots. Its first-generation line is designed for up to 12,000 robots per year. Figure states a goal of producing 100,000 robots over four years and has redesigned Figure 03 around higher-volume processes such as die casting, injection moulding and stamping.

The April 2026 production update gives evidence of a real ramp. Figure describes more than 80 functional verification tests per robot, multi-limb stress testing, burn-in exercises, diagnostics, failure analysis and service infrastructure. Robots leaving the line are allocated to internal and commercial-development work.

This is not proof that BotQ is already producing at 12,000 units per year. It is evidence that a line, testing process, fleet and service loop exist.

Tesla Optimus manufacturing

Tesla’s plan is much larger. Its Q1 2026 update says preparations for the first large-scale Optimus factory were due to begin in Q2. The first-generation Fremont line is designed for one million robots per year, while a later Texas line is being designed for long-term annual capacity of ten million.

Tesla also explicitly lists California and Texas Optimus capacity as construction and warns that installed capacity does not equal current production rate. Those qualifications matter. Tool installation, supplier readiness, yield, component availability, reliability and software maturity can all constrain the ramp.

Manufacturing winner

Figure wins for evidence of a current production ramp. Tesla wins for stated long-term capacity ambition.

A serious comparison must preserve both facts. Calling Figure’s 12,000-unit designed line “12,000 robots currently produced” would be wrong. Calling Tesla’s million-unit line “one million Optimus robots available” would be even more misleading.

Developer Access, APIs and Customisation

Neither Figure 03 nor Tesla Optimus is an open research platform. Figure does not publish a normal external SDK, ROS 2 package, simulator, low-level control API or public developer purchase option for Figure 03. Access to Helix, robot data, task training and hardware interfaces would need to be defined within a partnership.

Tesla likewise provides no external Optimus SDK, ROS interface, simulator, manipulation API or developer licence. Its internal software may be extensive, but independent teams cannot build a public research programme around it.

This makes both robots unsuitable for universities or developers who need immediate ownership, joint-level control and repeatable access to the software stack. A purchasable research humanoid may be a better choice even if it is less capable in manufacturer demonstrations.

Before entering a Figure 03 or future Optimus agreement, ask:

• Can the customer create and deploy custom tasks?
• Who owns task data and learned policies?
• Can the robot operate without continuous cloud access?
• What logs and sensor streams are available?
• Is teleoperation available, and who can initiate it?
• Can third-party tools, grippers or software be integrated?
• What happens when the manufacturer changes the model or service?
• Can data be deleted, exported or kept within a country?

Developer winner: neither. Figure 03 offers the clearer partnership platform, but neither should be described as an open developer robot.

Safety, Reliability and Certification

Figure has made several visible safety-oriented design choices. Figure 03 uses foam and soft textiles around the body, and the battery has a multi-layer protection architecture. Figure reported UN38.3 certification for the battery and described work towards or achievement of UL safety testing depending on the stage of the update.

The battery design includes protection at the management-system, cell, interconnect and pack levels. Figure also describes thermal-propagation controls, flame containment, structural testing and active cooling. These are meaningful engineering details.

They do not certify the complete humanoid for every home or workplace. Battery safety is one part of system safety. A deployed robot still needs controls for falls, collisions, pinch points, grasped loads, unexpected movement, cybersecurity, remote access and interaction with people.

Figure’s production-ramp update describes burn-in testing, diagnostics, fallback ladders and work on long-tail failures. This is encouraging because reliability only becomes visible after many fleet hours. The company does not publish fleet uptime, mean time between failures, maintenance intervals or a complete customer safety manual.

Tesla has not published a current external Optimus safety manual, certification package, reliability target, duty-cycle rating or warranty. Its manufacturing experience may help build robust systems, but that cannot substitute for robot-specific documentation.

Figure 03 limitations

• No public retail or standard enterprise purchase programme
• No published commercial price
• No open external SDK or normal developer edition
• Manufacturer demonstrations are not independent deployment benchmarks
• Published 20 kg payload lacks a public payload-versus-reach curve
• No public full-system collaborative safety certification
• No published fleet uptime or long-duration task reliability
• Home privacy and remote-support terms are not defined in a product contract
• Selected commercial access may not be available in every region

Tesla Optimus limitations

• No public order, pre-order or external deployment programme
• No commercial price
• No current customer-facing Gen 3 specification sheet
• No public current payload, runtime, speed, dimensions or sensor configuration
• No external SDK, API or integration documentation
• No customer warranty, service or spare-parts package
• Factory capacity plans are not current production or customer deliveries
• Demonstrations do not disclose intervention rates or full-shift reliability
• Historical Tesla Bot figures are often misrepresented as current specifications

Privacy, Data and Remote Assistance

A humanoid working in a home or workplace can collect sensitive visual, audio and operational data. Figure 03 uses cameras, microphones, tactile sensors and high-speed data offload. Those systems can improve learning and service, but they require clear governance.

A commercial agreement should define:

• which data is processed onboard and which leaves the site;
• whether people can review video or audio;
• where data is stored and for how long;
• whether customer data trains shared models;
• how remote access is authorised and logged;
• whether recording can be disabled in private areas;
• how employees, visitors or household members are informed;
• what happens after cancellation, resale or end of service; and
• how cybersecurity updates are delivered.

Tesla would need to answer the same questions for Optimus. Tesla’s experience with connected vehicles and over-the-air software may provide useful infrastructure, but the company has not published an external Optimus privacy and data-processing package.

Privacy verdict: neither robot can be approved for sensitive environments from public information alone. Figure provides more detail about sensing and data offload, which makes the questions clearer but not automatically resolved.

Best Robot by Use Case

For alternatives that can be evaluated through a clearer purchase process, explore humanoid robots for sale and compare models by actual availability rather than brand attention alone.

Figure 03 Pros and Cons

Pros

• Current named production-generation robot rather than an undefined future concept
• Published height, weight, payload, speed and runtime
• Helix 02 full-body vision-language-action system
• Detailed continuous home-task and manipulation demonstrations
• Tactile hands with embedded palm cameras
• Five-hour published runtime from a 2.3 kWh battery
• 2 kW charging and autonomous wireless docking concept
• Home-oriented soft exterior and washable garments
• BotQ manufacturing line and documented production testing
• Current commercial-development evidence at BMW
• Clearer path to selected partner evaluation than Optimus

Cons

• Not available as a normal retail or enterprise purchase
• No public price or complete commercial package
• No open SDK, simulator or public developer edition
• Task videos are manufacturer demonstrations rather than independent benchmarks
• No public full-shift success, intervention or uptime data
• Payload definition and reach curve are incomplete
• No public complete-system safety certification for general home or workplace use
• Data, privacy and remote-support terms depend on a future agreement
• Selected deployments do not establish broad geographic availability

Tesla Optimus Pros and Cons

Pros

• Designed around a general-purpose autonomous humanoid objective
• Potential access to Tesla’s real-world AI and training infrastructure
• Custom inference-chip development and hardware-software integration
• Deep experience in batteries, power electronics and high-volume manufacturing
• Ability to test robots inside Tesla’s own factories
• Gen 3 described as the first design intended for mass production
• First-generation line designed for one million robots per year
• Long-term Texas line designed for ten million robots per year
• Potential for rapid cost reduction if the manufacturing ramp succeeds

Cons

• Not publicly for sale
• No commercial price or standard delivery date
• No current customer-facing Gen 3 specifications
• No public current payload, speed, runtime or dimensions
• No external SDK or integration documentation
• No external customer warranty, service or acceptance package
• Construction and designed capacity are often mistaken for actual production
• Independent buyers cannot validate task performance
• Historical concept specifications create persistent misinformation

Total Cost of Ownership

Neither robot has a calculable public total cost of ownership because neither has a published commercial price and deployment package. Still, the cost categories can be defined.

A real humanoid project may include:

• robot hardware or subscription fee;
• charging station and electrical work;
• task engineering and data collection;
• site mapping, fixtures and workflow redesign;
• safety assessment and protective systems;
• network, cloud and cybersecurity infrastructure;
• operator and maintenance training;
• remote supervision or teleoperation;
• preventive maintenance and replacement hands;
• battery degradation and replacement;
• software, fleet-management and AI service fees;
• insurance, compliance and legal review;
• downtime, spare robots and business-continuity planning; and
• decommissioning, data deletion and residual value.

The largest cost may be integration rather than hardware. A robot that costs less but needs constant human rescue can have a higher operating cost than a more expensive task-specific automation system.

Figure 03 is closer to a system that could be budgeted through a direct partnership because its hardware and use cases are more defined. Optimus remains a future scenario until Tesla publishes commercial terms.

TCO verdict: neither can be compared responsibly. Request a complete installed-cost model and measured labour offset, not a headline robot price.

Who Should Pursue Figure 03?

Figure 03 is relevant to large manufacturers, logistics operators, research partners, property groups and technology companies that can support a controlled development programme.

A strong candidate organisation would have:

• a high-value task involving human-scale movement and manipulation;
• enough task volume to justify custom development;
• a controlled environment for testing;
• engineering, operations and safety teams;
• permission to collect and govern task data;
• clear success metrics and a fallback process;
• budget for a pilot rather than only a robot purchase; and
• tolerance for hardware and software changes during the programme.

Figure 03 is not the correct choice if the organisation needs a guaranteed delivery date, a fixed unit price, an open SDK, standard distributor support or immediate full-shift automation.

Review the complete Figure 03 specifications and current availability and the in-depth Figure 03 review before treating a demonstration as a supported application.

Who Should Wait for Tesla Optimus?

Wait for Optimus if your interest is specifically in Tesla’s future manufacturing ecosystem, AI hardware and potential ultra-high-volume humanoid platform and you do not need a robot for a current project.

Before Optimus becomes a real procurement candidate, require:

• a named commercial model and hardware revision;
• a current specification sheet;
• purchase, lease or subscription pricing;
• a public delivery region and schedule;
• a supported task list and operating envelope;
• payload-versus-reach and duty-cycle data;
• safety and certification documentation;
• integration, data and remote-access terms;
• warranty, service and spare-parts coverage;
• measured task success, cycle time and intervention rate; and
• evidence from external customer deployments.

Until then, use the Tesla Optimus profile to monitor development rather than as proof that the robot can be ordered.

Common Comparison and Buying Mistakes

• Calling Figure 03 commercially available: current production and selected deployments are not a public order programme.
• Calling Optimus a 2026 product: production preparation does not establish external sales.
• Inventing a price: neither company has published a current commercial offer.
• Using 2021 Tesla Bot numbers: historical concept targets are not Gen 3 specifications.
• Comparing factory capacities as current output: designed capacity is not production rate or deliveries.
• Calling a video a deployment benchmark: ask about duration, setup, intervention and failures.
• Treating Figure’s 20 kg payload as an arm rating: request the load definition and reach curve.
• Assuming five hours equals a five-hour productive shift: include charging, travel, idle time and recovery.
• Ignoring the hand: manipulation success depends on sensing, force control, durability and object variation.
• Ignoring software access: neither robot is an open platform for normal external development.
• Ignoring privacy: cameras, microphones, remote support and fleet learning require governance.
• Assuming a soft exterior makes the robot safe: complete-system risk assessment is still required.
• Buying the humanoid form instead of the task outcome: conventional automation may be cheaper and more reliable.
• Comparing AI by brand reputation: measure task success, intervention and recovery.
• Planning around a forecast: require written commercial terms before allocating project deadlines.

FAQs

Is Figure 03 better than Tesla Optimus?

In 2026, Figure 03 is better for technical and commercial evaluation. It has published core specifications, a documented Helix 02 AI system, current manufacturing activity and selected external workflow evidence. Optimus has greater stated manufacturing ambition but much less current product information.

Can you buy Figure 03 in 2026?

Not through a public retail or standard enterprise order channel. Figure 03 is being produced for internal work, data collection, housework development and selected commercial use-case development. Access would require direct engagement with Figure and is not guaranteed.

Can you buy Tesla Optimus in 2026?

No public Tesla order, pre-order or standard enterprise sales programme is available as of 17 July 2026. Tesla is preparing production infrastructure, but that is not the same as external availability.

How much does Figure 03 cost?

Figure has not published a commercial unit price. Any cost would depend on the robot configuration, pilot scope, software, charging, engineering, support, data terms and deployment requirements.

How much will Tesla Optimus cost?

Tesla has not published a commercial Optimus price. Online figures are targets or estimates rather than current quotes for a defined robot.

Which robot has better AI?

Figure 03 has the stronger current public evidence through Helix 02 and detailed full-body task demonstrations. Tesla may have the broader long-term AI and compute infrastructure, but current Optimus-specific performance is not sufficiently disclosed for a direct benchmark.

What is Helix 02?

Helix 02 is Figure’s full-body vision-language-action system for Figure 03. It connects perception, language, locomotion and manipulation so the robot can coordinate its feet, torso, arms and hands during continuous tasks.

Does Tesla Optimus use the same AI as Tesla cars?

Tesla applies a related vision-led, neural-network and custom-compute strategy across its real-world AI programmes. It has not published enough current Optimus architecture detail to say that the robot uses an identical model or software stack to its vehicles.

Which robot has better hands?

Figure 03 has the stronger current evidence. It uses compliant tactile hands with embedded palm cameras and has demonstrated fine manipulation. Tesla has described continued hand development but has not published the current production hand specification.

How tall is Figure 03?

Figure publishes a height of 5 ft 8 in, approximately 173 cm.

How tall is Tesla Optimus Gen 3?

Tesla has not published a current customer-facing Gen 3 height. Historical Tesla Bot concept figures should not be presented as current specifications.

How much does Figure 03 weigh?

Figure publishes a weight of 61 kg.

How much can Figure 03 carry?

Figure publishes a 20 kg payload. Buyers should request the exact definition, payload-versus-reach curve, one- versus two-handed limits and loaded walking performance before using the figure for an application.

How much can Tesla Optimus carry?

Tesla has not published a current rated payload for the production-intended Optimus design.

How fast is Figure 03?

Figure publishes a maximum speed of 1.2 m/s. Safe and repeatable speed during a loaded task may be lower.

How fast is Tesla Optimus?

Tesla has not published a current rated Gen 3 speed. The frequently copied historic speed target is not a current customer specification.

How long does Figure 03’s battery last?

Figure states five hours of runtime from a 2.3 kWh battery. Real runtime will depend on task intensity, payload, movement, compute, temperature and charging strategy.

How long does Tesla Optimus’s battery last?

Tesla has not published a current Optimus runtime or battery-capacity specification.

Can Figure 03 charge itself?

Figure 03 is designed for wireless inductive charging through coils in its feet. It can step onto a compatible charging stand, supporting autonomous opportunity charging.

Can Figure 03 work in a factory?

Figure 03 has demonstrated a sequencing workflow at BMW involving part manipulation, stepping and cart movement. This is evidence of industrial potential, not a guarantee that a standard robot can be purchased for any factory task.

Is Tesla Optimus already working in factories?

Tesla develops and tests Optimus within its own ecosystem, but no public external deployment package, customer specification or standard factory application is available.

Can Figure 03 do housework?

Figure has demonstrated tasks involving dishes, laundry, room tidying and object handling using Helix 02. The robot is not yet a retail home appliance with a guaranteed task list, service plan and delivery date.

Can Tesla Optimus do housework?

Household assistance fits Tesla’s long-term general-purpose ambition, but Tesla has not released a commercial home product or supported household task specification.

Is Figure 03 fully autonomous?

Figure has shown autonomous task sequences using onboard sensing, but “fully autonomous” should be defined per task. Buyers need measured intervention rates, failure recovery and operating limits for the exact workflow.

Does Figure 03 have an SDK?

Figure does not publish an open external Figure 03 SDK or normal developer purchase programme. Access to software and data would need to be negotiated in a partnership.

Does Tesla Optimus have an SDK?

Tesla does not publish an external Optimus SDK, ROS 2 interface or developer programme.

Which robot is better for a university?

Neither is the practical choice for a normal university purchase because neither has an open order path or public developer stack. A purchasable research humanoid is more appropriate for independent experimentation.

Which robot is safer?

Figure publishes more safety-oriented hardware detail, including soft materials, battery protections and production testing. Neither robot has enough public complete-system safety documentation to declare it safe for unsupervised general use around people.

Which company will manufacture more humanoid robots?

Tesla has the larger stated designed capacity: one million robots per year for a first-generation line and ten million for a later line. Figure’s first BotQ line is designed for up to 12,000 per year. These are capacity plans, not current production volumes.

Should I wait for Optimus or pursue Figure 03?

Pursue Figure 03 only if your organisation qualifies for a selected commercial-development partnership and has a well-defined high-value task. Wait for Optimus if you specifically want Tesla’s future platform and can accept unknown specifications, pricing and delivery. For a normal purchase today, choose neither.

Final Verdict

Figure 03 wins the 2026 comparison because it is a more complete and more transparent current humanoid platform. Tesla Optimus wins only on the scale of its stated future manufacturing ambition.

Figure 03 provides the evidence a serious comparison needs: a current generation, published dimensions, 20 kg payload, five-hour runtime, 1.2 m/s speed, 2.3 kWh battery, wireless charging, tactile hands, palm cameras, Helix 02 full-body autonomy and current work in a BMW manufacturing environment. Figure is also ramping BotQ and building fleet diagnostics, testing and service systems.

Optimus could eventually surpass Figure 03 in cost, scale, AI infrastructure or overall economic impact. Tesla’s manufacturing experience, custom silicon, battery capability and internal factory access make that plausible. But a strong comparison does not award a procurement victory for a future outcome before there is a current datasheet, price, order channel and customer evidence.

The buying conclusion is therefore precise:

• For a selected commercial humanoid development programme: Figure 03 is the stronger platform to pursue.
• For a normal robot purchase in 2026: neither is available.
• For open research and custom development: choose a different purchasable humanoid.
• For future mass-market potential: monitor both, with Figure leading current evidence and Tesla leading stated scale.

Review the full Figure 03 profile, track the developing Tesla Optimus specifications and availability, or open the direct Figure 03 vs Tesla Optimus side-by-side comparison. Businesses that need an available robot can use the Anton Robots finder to identify a model that fits the real task, budget and deployment date.

Primary Sources

• Figure 03 official product page and current specifications
• Figure: Introducing Figure 03
• Figure: Introducing Helix 02 full-body autonomy
• Figure Helix official overview
• Figure 03 battery development, runtime, charging and safety
• Figure BotQ manufacturing facility
• Figure 03 production ramp, testing and service infrastructure
• Figure 03 BMW sequencing workflow
• Figure 02 production work at BMW and transition to Figure 03
• Figure: Helix 02 bedroom-tidying demonstration
• Figure: Scaling Helix for logistics manipulation
• Tesla AI and Robotics: official Optimus objective
• Tesla Q4 and full-year 2025 update: Optimus Gen 3 and production plan
• Tesla Q1 2026 update: current Optimus manufacturing status
• Tesla 2025 annual report: Optimus development and commercialisation status