- Two orders of magnitude in price — Unitree G1 at $16K (research), Tesla Optimus ~$50K+ (factory), Figure 02 ~$100K+ (logistics)
- Three different bets — Unitree on openness/ecosystem, Figure on logistics specialization, Tesla on manufacturing scale economics
- Only Unitree has an open SDK — Figure and Tesla are closed ecosystems; you work with their teams or not at all
- Battery life varies wildly — Tesla Optimus ~8 hours (battery DNA), Figure 02 ~5 hours, Unitree G1 ~2 hours
Three humanoid robots, three very different strategies, three price points spanning two orders of magnitude. Here’s how they stack up. For the wider field these three sit within, see our humanoid robot landscape 2026.
Quick Comparison
| Feature | Unitree G1 | Figure 02 | Tesla Optimus Gen 3 |
|---|---|---|---|
| Price | ~$16,000 | Not disclosed (~$100K+) | Not disclosed (~$50K+) |
| Height | 127 cm | 170 cm | 173 cm |
| Weight | 35 kg | 60 kg | 57 kg |
| DOF | 23-43 (configurable) | 40+ | 22+ |
| Battery | ~2 hours | ~5 hours | ~8 hours (estimated) |
| Target Market | Research & education | Warehouse logistics | Factory automation |
| Availability | Shipping now | Limited deployment | Internal use + limited |
| Open SDK | Yes | No | No |
Unitree G1: The Research Workhorse
What It Is
The G1 is Unitree’s entry-level humanoid — deliberately affordable, deliberately open. At $16,000, it’s the cheapest full humanoid robot you can buy, and it comes with a complete SDK for custom development. (See our broader survey of China’s humanoid robot companies for context on Unitree’s position in the domestic ecosystem.)
Strengths
Price-to-capability ratio: Nothing else comes close. For the cost of a decent used car, you get a bipedal humanoid with dexterous hands, depth cameras, and a full ROS 2 stack.
Open development: Full API access, ROS 2 integration, and an active community. University labs worldwide use it as their standard research platform — and it appears prominently on lists of open-source humanoid projects thanks to its SDK and MuJoCo Menagerie support.
Iteration speed: Small, light, and relatively cheap to repair. When it falls over (and it will), the cost of replacement parts is manageable.
Weaknesses
Not production-ready: The G1 is a research tool, not a factory worker. Reliability and runtime aren’t sufficient for commercial deployment.
Limited payload: At 35 kg and 127 cm, it can’t handle the same tasks as full-sized humanoids.
Consumer-grade components: The actuators and sensors are good for the price but don’t match industrial-grade alternatives.
Best For
University research labs, robotics education programs, AI companies developing humanoid algorithms without needing a production robot.
Figure 02: The Logistics Specialist
What It Is
Figure AI’s second-generation humanoid, designed specifically for warehouse and logistics operations. Currently deployed at BMW’s Spartanburg manufacturing plant.
Strengths
Real-world deployment: Unlike many competitors, Figure 02 is actually working in a real factory, handling real logistics tasks. This operational data is invaluable.
Full-size form factor: At 170 cm, it operates in human-scale environments without modification.
BMW partnership: Having a major automotive manufacturer as a launch customer provides credibility and a clear path to scale.
Weaknesses
Narrow focus: Optimized for logistics means it may struggle with tasks requiring fine manipulation or diverse environments.
Closed ecosystem: No public SDK or API. You work with Figure AI’s team or not at all.
Limited availability: Production volumes are still in the low hundreds. Getting one requires a partnership agreement.
Best For
Large enterprises with warehouse or logistics operations looking for a turnkey humanoid solution with vendor support.
Tesla Optimus Gen 3: The Scale Play
What It Is
Tesla’s humanoid robot, now in its third generation. Primarily deployed in Tesla’s own factories, with external sales expected in H2 2026.
Strengths
Manufacturing DNA: Tesla knows how to build things at scale. When Optimus goes to mass production, the cost curve will drop faster than any competitor.
Battery technology: Leveraging Tesla’s automotive battery expertise gives Optimus the longest runtime of any humanoid.
Vertical integration: Tesla builds its own motors, batteries, AI chips (Dojo), and training infrastructure. No dependency on external suppliers.
FSD synergy: Tesla’s Full Self-Driving neural network expertise directly transfers to robot perception and navigation.
Weaknesses
Internal priority: Tesla primarily uses Optimus for its own factories. External availability and support are secondary concerns.
Closed system: No SDK, no API, no third-party development. You get what Tesla gives you.
Overpromise history: Tesla has a track record of ambitious robotics timelines that slip. Evaluate based on what’s shipping, not what’s promised.
Best For
High-volume manufacturing environments, especially if you’re already in the Tesla ecosystem. Long-term, this may be the most economically viable option due to scale economics.
The Real Question: Which Matters Most?
These three robots represent three different bets:
- Unitree bets on openness — Make it cheap and accessible, let the ecosystem figure out the applications
- Figure bets on specialization — Nail one use case (logistics) before expanding
- Tesla bets on scale — Use internal demand to drive down costs, then expand externally
History suggests that the winner in robotics won’t be the one with the best technology — it’ll be the one that solves the unit economics first. That race is just getting started.
Buying Guide
| If You Are… | Choose | Why |
|---|---|---|
| Research lab | Unitree G1 | Open SDK, affordable, active community |
| Logistics company | Figure 02 | Purpose-built, real deployment track record |
| Large manufacturer | Wait for Optimus | Scale economics will eventually win |
| Startup building on humanoids | Unitree G1 + custom | Fastest iteration cycle |
| Investor evaluating the space | Watch all three | Different strategies, unclear winner |