Specifications

Manufacturer: Tesla, Inc.
Height: 173 cm (5'8")
Weight: 57 kg (125 lb)
Degrees of Freedom: 72+ total (28 body joints, 22 per hand with Gen 3 upgrade)
Payload Capacity: 20 kg (44 lb)
Battery: 2.3 kWh lithium, torso-mounted. 8-12 hours for light-to-moderate tasks
Sensors: Cameras, IMUs, force/torque sensors at major joints, tactile fingertip sensors on Gen 3 hands
Hands: Gen 3 22-DOF, tendon-driven, 25 actuators per forearm/hand assembly, force feedback grip
Walking Speed: ~1.6 m/s
Price Target: Under $30,000 near-term, under $20,000 long-term
Status: Mass production commenced January 21, 2026 at Fremont factory

Current Status

Tesla began mass production of Optimus Gen 3 at its Fremont facility in January 2026. The "Gen 3" designation refers specifically to the upgraded 22-DOF hands with tactile sensors, not a complete body redesign. The robot body itself remains the Gen 2 form factor at 173 cm and 57 kg.

As of early 2026, Optimus robots operate inside Tesla factories. Elon Musk acknowledged on the Q4 2025 earnings call that these units are primarily collecting data and learning rather than performing productive work at human speed. This is consistent with the training-data flywheel approach Tesla used with Full Self-Driving: deploy hardware early, collect data at scale, improve software iteratively.

The initial commercial pricing is estimated at $100,000-$150,000 per unit based on current manufacturing costs of $50,000-$100,000. Tesla's target of under $30,000 depends on manufacturing scale that does not yet exist. The under-$20,000 aspirational price requires volumes in the hundreds of thousands or millions.

Clothing Considerations

Optimus is the platform that will define the robot clothing market. Not because it is the best engineered for garments (Figure 03 holds that distinction) but because it will exist in the largest numbers. When millions of identical humanoids live in homes and workplaces, the clothing market follows automatically.

Body proportions. At 173 cm and 57 kg, Optimus is roughly the size of a slim adult human. The torso proportions are close enough to human that standard garment patterns provide a reasonable starting point, though they need modification at every joint for the wider range of mechanical articulation.

Sensor clearance. The head and chest house the primary camera and depth-sensing systems. Any garment covering the upper torso must leave these sensor zones clear, either through precise cutouts or sensor-transparent fabrics. The hands have tactile sensors at each fingertip that must remain exposed.

Thermal management. The shoulder and hip motor housings are the primary heat sources. Garments need either heat-resistant panels at these locations or ventilation channels that allow heat to dissipate. The torso-mounted battery generates less concentrated heat but raises the average temperature of the core area.

The wrist problem. Optimus wrists can rotate 360 degrees, far beyond the roughly 180-degree range of a human wrist. Shirt sleeves designed for human wrist articulation will twist, bunch, and potentially bind. Garment cuffs for Optimus need rotational freedom, either through extremely stretchy cuff material or a bearing-style junction where the sleeve meets the wrist.

Fashion Potential

Optimus is where robot fashion becomes a real consumer market rather than a niche industrial concern. When a robot lives in your home, what it wears is a personal choice, not a corporate procurement decision.

The projected volumes create economics that no other platform can match. At production runs of 100,000+ units with identical body dimensions, basic garments could retail for $30-$80 each, comparable to human workwear. Seasonal collections, limited editions, brand collaborations, and aftermarket customization become viable once the installed base crosses a certain threshold.

The companies building garment expertise for Optimus now, before the consumer market materializes, will have a decisive head start when volumes arrive. Pattern libraries, fit data, tested materials, and manufacturing processes take years to develop. Waiting until robots ship to consumers means arriving years behind the early movers.

For a practical guide to dressing this platform, see our detailed How to Dress a Tesla Optimus guide. For the broader market picture, see Tesla Optimus: The Fashion Question.