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Tesla Optimus vs Apptronik Apollo: Full 2026 Comparison (Price, Specs, Deployment)

Last updated:
February 15, 2026
By
Dean Fankhauser
Tesla Optimus vs Apptronik Apollo: Full 2026 Comparison (Price, Specs, Deployment)

Tesla Optimus vs Apptronik Apollo — two of the most anticipated humanoid robots in 2026, both targeting industrial automation at radically different price points. Tesla's manufacturing juggernaut promises mass-market pricing under $30,000, while Apptronik's NASA-rooted Apollo boasts the highest payload capacity in its class at 25 kg. This comprehensive comparison breaks down every spec, real-world deployment, and technical advantage so you can see exactly which robot wins in each category.

Key Takeaways

  • Tesla Optimus stands 173 cm (5'8") tall, weighs 57 kg (126 lbs), and targets an unprecedented $20,000–$30,000 price point — the most aggressive pricing in humanoid robotics.
  • Apptronik Apollo matches Optimus in height at 173 cm (5'8") but weighs 73 kg (161 lbs), with a 25 kg (55 lbs) payload capacity that beats Optimus's 20 kg (44 lbs).
  • Apollo wins on: Payload capacity (25 kg vs 20 kg), battery life (4 hours vs unconfirmed), current deployment status (Mercedes-Benz factory).
  • Optimus wins on: Target price ($20K–$30K vs sub-$50K), AI capabilities (FSD-derived vision), manufacturing scale potential.
  • Both robots are American-made, targeting the same industrial automation market, but with different go-to-market strategies — Tesla betting on volume, Apptronik on capability.

Tesla Optimus vs Apptronik Apollo: Full Specifications Comparison

This table compares Tesla Optimus and Apptronik Apollo side by side across specifications, capabilities, price, and intended use cases.
Specification Tesla Optimus (Gen 2/3) Apptronik Apollo
Height173 cm (5'8")173 cm (5'8")
Weight57 kg (126 lbs)73 kg (161 lbs)
Degrees of Freedom28+ (body) + 22 per hand (Gen 3)Not disclosed
Payload Capacity20 kg (44 lbs)25 kg (55 lbs)
Walking Speed5 km/h (3.1 mph)Not disclosed
Running Speed8 km/h (5 mph)Not disclosed
Battery LifeNot disclosed (2.3 kWh pack)~4 hours
Battery TypeIntegratedHot-swappable
AI PlatformTesla FSD-derived neural networksApptronik SDK
SensorsCameras, force-torque, IMUCameras, force-torque, IMU
ActuationElectric (proprietary)Electric (force-controlled, series-elastic)
Target Price$20,000–$30,000Sub-$50,000
Production StatusInternal factory testing; mass production late 2026Pilot deployment at Mercedes-Benz, Google
Consumer AvailabilityTarget: late 2027Enterprise only (contact sales)
Country of OriginUSAUSA
Parent CompanyTesla, Inc.Apptronik
Key PartnersTesla GigafactoriesNASA, Mercedes-Benz, Google
Primary Use CasesManufacturing, warehouse logistics, home assistanceManufacturing, logistics, automotive assembly

Tesla Optimus: Everything You Need to Know (2026 Update)

Tesla Optimus represents Elon Musk's vision of a general-purpose humanoid robot that could eventually become more valuable than Tesla's entire automotive business. First unveiled at Tesla AI Day 2022 as a person in a robot suit, Optimus has evolved rapidly through Gen 1, Gen 2, and now Gen 3 iterations — each demonstrating meaningful improvements in dexterity, balance, and autonomous task completion.

Design and Build

At 173 cm (5'8") and 57 kg (126 lbs), Tesla Optimus is designed to operate in human-scale environments without modification. The Gen 2 model reduced weight by 10 kg from Gen 1, improving balance and agility. The most significant advancement in Gen 3 is the hands — featuring 22 degrees of freedom per hand (up from 11 in Gen 2), enabling manipulation tasks like threading needles, folding clothes, and handling delicate objects.

Tesla's approach emphasizes manufacturability above all else. Every component is designed for high-volume production using Tesla's existing supply chain infrastructure. The actuators are proprietary, leveraging lessons from electric vehicle motors. The 2.3 kWh battery pack shares chemistry with Tesla's vehicle batteries, enabling cost reduction through scale.

AI and Software

Optimus runs on Tesla's Full Self-Driving (FSD) neural network stack, adapted for bipedal robotics. This gives it several advantages:

  • Vision-based navigation: Unlike robots relying on LiDAR, Optimus uses cameras exclusively — the same approach Tesla uses for autonomous vehicles.
  • End-to-end learning: The robot can learn tasks from video demonstrations, reducing the need for explicit programming.
  • Fleet learning: Skills learned by one Optimus can be distributed across all units via over-the-air updates.

Tesla demonstrated autonomous operation in its Fremont and Austin factories, where Optimus units perform battery cell sorting and parts handling. However, some demos have faced scrutiny for relying on teleoperation — a transparency gap that competitors have been quick to highlight.

Price and Availability

Tesla's target price of $20,000–$30,000 would make Optimus the most affordable full-size humanoid robot by a significant margin. This pricing depends on achieving automotive-scale production — potentially 10,000+ units per year by 2027.

Current status (February 2026):

  • Gen 3 debut imminent
  • Fremont factory repurposed from Model S/X production for Optimus manufacturing
  • Mass production target: before end of 2026
  • Consumer availability: late 2027
  • No pre-orders currently open

Apptronik Apollo: Everything You Need to Know (2026 Update)

Apptronik Apollo emerges from the Human Centered Robotics Lab at the University of Texas at Austin, with deep roots in NASA's humanoid robotics program. The company's founders worked on NASA's Valkyrie robot, bringing aerospace-grade engineering principles to commercial humanoid development. Apollo represents a different philosophy than Optimus — prioritizing capability and reliability over aggressive cost reduction.

Design and Build

Apollo matches Optimus in height at 173 cm (5'8") but is significantly heavier at 73 kg (161 lbs). This additional mass isn't wasted — Apollo's 25 kg (55 lbs) payload capacity exceeds Optimus by 25%, making it better suited for heavy-duty industrial tasks like moving automotive components or handling logistics totes.

The standout feature is Apollo's force-controlled, series-elastic actuators. Unlike rigid actuators that can cause injury on impact, Apollo's joints yield under unexpected force — a critical safety feature for human-robot collaboration. This compliant actuation also enables more natural, adaptive movement when manipulating objects of varying weights and textures.

The 4-hour battery life with hot-swappable packs addresses a key industrial requirement: continuous operation across shifts. Apollo can return to a docking station, swap batteries autonomously, and resume work — no human intervention required.

Development and Partnerships

Apollo's pedigree includes:

  • NASA heritage: Apptronik's team built components for NASA's Valkyrie humanoid, bringing space-rated reliability engineering to commercial robotics.
  • Mercedes-Benz partnership: Apollo is actively deployed at Mercedes-Benz manufacturing facilities for automotive assembly tasks — real-world validation that Optimus hasn't yet achieved publicly.
  • Google operations testing: Apptronik has confirmed testing with Google for logistics and warehouse operations.

This enterprise-first approach means Apollo is generating revenue and operational data while competitors are still in development.

Price and Availability

Apptronik targets a sub-$50,000 price point for Apollo — higher than Tesla's aggressive target but still competitive for industrial applications where a robot can replace a $60,000+ annual labor cost.

Current status (February 2026):

  • Pilot deployments active at Mercedes-Benz and Google
  • Available for enterprise purchase via contact sales
  • No consumer version planned
  • Pre-order available for qualified industrial customers

Head-to-Head: Tesla Optimus vs Apptronik Apollo Performance Comparison

1. Payload Capacity and Strength

Winner: Apptronik Apollo

Apollo's 25 kg (55 lbs) payload capacity beats Optimus's 20 kg (44 lbs) by 25%. In manufacturing environments, this difference matters — Apollo can handle heavier automotive components, larger logistics totes, and more demanding material handling tasks without risk of strain or failure.

The weight difference between the robots (73 kg vs 57 kg) partially explains Apollo's advantage — a heavier frame provides a more stable base for lifting. Tesla's lighter design prioritizes energy efficiency and agility over raw strength.

2. AI and Autonomy

Winner: Tesla Optimus

Tesla's FSD-derived AI stack gives Optimus a significant edge in autonomous learning and adaptation. The end-to-end neural network approach means Optimus can potentially learn new tasks from video demonstrations, while Apollo relies on more traditional programming approaches.

Tesla's fleet learning capability — where skills transfer automatically across all units — could prove decisive as deployments scale. Apollo's SDK is capable but lacks the depth of Tesla's AI investment (Tesla spends billions annually on AI research).

However, Tesla's autonomy claims have faced scrutiny. The "We, Robot" event in October 2024 drew criticism for not disclosing teleoperation. Apollo's demonstrations, while less flashy, have been more transparent about capabilities.

3. Battery Life and Endurance

Winner: Apptronik Apollo

Apollo's confirmed 4-hour battery life with hot-swappable packs beats Optimus on operational endurance. Tesla hasn't disclosed Optimus's runtime, though the 2.3 kWh battery pack suggests comparable or shorter operation times.

The hot-swap capability is critical for industrial deployment. Apollo can autonomously dock, swap batteries, and resume operation — enabling 24/7 operations across shifts. Optimus's battery appears integrated, requiring the robot to charge in place.

4. Real-World Deployment

Winner: Apptronik Apollo

Apollo is currently deployed at Mercedes-Benz manufacturing facilities and testing with Google — generating real-world operational data and revenue. This is the clearest indicator of commercial readiness.

Optimus operates within Tesla's own factories, which is valuable validation but not equivalent to third-party enterprise deployment. Tesla has customers for its vehicles, not its robots — Apollo has paying customers for its robots today.

5. Price and Value

Winner: Tesla Optimus (if achieved)

Tesla's $20,000–$30,000 target price would be transformative — potentially 40–50% cheaper than Apollo's sub-$50,000 target. At Tesla's price point, humanoid robots become economically viable for a far broader range of applications, including small businesses and eventually consumers.

However, this pricing depends on achieving automotive-scale production, which remains unproven. Apollo's higher price reflects current manufacturing realities. For enterprises buying today, Apollo's pricing is competitive against labor costs.

6. Safety and Human Collaboration

Winner: Apptronik Apollo

Apollo's force-controlled, series-elastic actuators provide inherent compliance — the joints yield under unexpected contact, reducing injury risk. This architecture, derived from NASA's Valkyrie program, prioritizes safe human-robot collaboration.

Tesla emphasizes minimizing damage from falls and operational safety, but hasn't disclosed equivalent compliance mechanisms. In environments where robots work directly alongside humans (the definition of a cobot), Apollo's safety architecture is more proven.

7. Manufacturing Scale Potential

Winner: Tesla Optimus

Tesla's manufacturing infrastructure — Gigafactories, supply chain, production engineering — gives Optimus unmatched scaling potential. Tesla produces millions of vehicles annually; redirecting even a fraction of that capacity to humanoid robots could dwarf all competitors combined.

The Fremont factory conversion from Model S/X production to Optimus manufacturing signals Tesla's commitment to scale. Apptronik, while capable, operates at startup scale — their production capacity measured in hundreds, not thousands.

Which Should You Choose?

Choose Tesla Optimus if you:

  • Can wait until late 2027 for consumer/enterprise availability — Optimus isn't purchasable today, but if you're planning long-term automation strategy, Tesla's pricing could be decisive.
  • Prioritize cost above all else — At $20,000–$30,000, Optimus would have 40–50% lower acquisition cost than Apollo.
  • Value AI capabilities and autonomous learning — Tesla's FSD-derived neural networks offer the most advanced vision and task-learning capabilities.
  • Want fleet scalability — Tesla's over-the-air updates and fleet learning mean skills transfer automatically across all units.
  • Operate a Tesla-integrated facility — Optimus will likely integrate seamlessly with Tesla's manufacturing ecosystem.

Choose Apptronik Apollo if you:

  • Need a humanoid robot today — Apollo is available for enterprise deployment now, with proven operation at Mercedes-Benz.
  • Require heavy payload capacity — Apollo's 25 kg beats Optimus's 20 kg — critical for automotive components and heavy logistics.
  • Prioritize safety for human-robot collaboration — Force-controlled actuators provide inherent compliance that reduces injury risk.
  • Need proven 4-hour+ battery life — Hot-swappable packs enable continuous 24/7 operation across shifts.
  • Want NASA-heritage reliability — Apptronik's team built components for space robots; that engineering rigor translates to commercial reliability.

Frequently Asked Questions

Is Tesla Optimus better than Apptronik Apollo?

It depends on your priorities. Tesla Optimus offers potentially lower cost ($20K–$30K vs sub-$50K) and superior AI capabilities, but isn't available for purchase. Apptronik Apollo offers higher payload (25 kg vs 20 kg), proven battery life (4 hours), and is deployed today at Mercedes-Benz. For immediate industrial deployment, Apollo wins. For future mass-market potential, Optimus is the bet.

How much does Tesla Optimus cost vs Apptronik Apollo?

Tesla targets $20,000–$30,000 for Optimus at mass production scale (late 2026+). Apptronik targets sub-$50,000 for Apollo. Neither has confirmed final pricing. Apollo is available for enterprise purchase today via contact sales; Optimus isn't commercially available yet.

Which robot has better payload capacity?

Apptronik Apollo wins with 25 kg (55 lbs) payload capacity versus Tesla Optimus's 20 kg (44 lbs). Apollo's higher weight (73 kg vs 57 kg) provides a more stable base for heavy lifting tasks common in automotive manufacturing and logistics.

Can I buy Tesla Optimus or Apptronik Apollo today?

Apptronik Apollo is available for enterprise customers via contact sales, with pilot deployments already running at Mercedes-Benz and Google. Tesla Optimus is not commercially available — it's deployed only within Tesla's own factories. Consumer availability for Optimus is targeted for late 2027.

Which humanoid robot is more advanced?

Tesla Optimus has more advanced AI (FSD-derived neural networks, end-to-end learning, fleet updates). Apptronik Apollo has more advanced safety architecture (force-controlled actuators) and superior operational endurance (4-hour battery with hot-swap). "Advanced" depends on what capability matters for your use case.

Are Tesla Optimus and Apptronik Apollo safe to work around?

Both are designed for human-robot collaboration. Apollo's force-controlled, series-elastic actuators provide inherent compliance — joints yield on contact, reducing injury risk. Tesla emphasizes fall damage minimization and operational safety but hasn't disclosed equivalent compliance mechanisms. For proven cobot safety, Apollo has the edge.

Which company has more funding and resources?

Tesla dwarfs Apptronik in resources. Tesla is a $500B+ company spending billions annually on AI. Apptronik is a venture-backed startup ($403M+ total raised ($350M Series A in Feb 2025, $53M follow-on in March 2025)). However, Apptronik's focus is exclusively robotics, while Tesla splits attention across vehicles, energy, and AI. Apollo benefits from Apptronik's singular focus.

What industries use Tesla Optimus vs Apptronik Apollo?

Both target manufacturing, logistics, and warehouse automation. Apollo is deployed at Mercedes-Benz (automotive assembly) and testing with Google (logistics). Optimus operates in Tesla factories (battery cell sorting, parts handling). Apollo has third-party enterprise deployments; Optimus is internal only as of early 2026.

Final Verdict: Tesla Optimus vs Apptronik Apollo

For enterprises that need a humanoid robot in 2026: Apptronik Apollo wins. It's available today, deployed at Mercedes-Benz, and offers higher payload capacity with proven battery endurance. The NASA-heritage engineering provides confidence in reliability.

For organizations planning 2027+ automation: Tesla Optimus is the bet worth watching. If Tesla achieves its $20,000–$30,000 price target at scale, it could fundamentally change the economics of humanoid robotics. The FSD-derived AI gives Optimus the highest ceiling for autonomous learning.

The humanoid robot market in 2026 isn't winner-take-all. Apollo and Optimus serve different segments of the same market — Apollo for enterprises that need proven capability now, Optimus for those betting on Tesla's manufacturing scale to deliver unprecedented affordability. Both are American-made, both target industrial automation, and both will shape the future of work.

Compare both robots side by side: Tesla Optimus on Robozaps | Apptronik Apollo on Robozaps | Browse all humanoid robots


Last updated: February 3, 2026. Specifications sourced from official manufacturer documentation and Robozaps robot database. Robozaps is the world's largest humanoid robot marketplace — we maintain comprehensive product databases and may earn referral fees from qualifying purchases.

Related: Tesla Optimus Gen 2 Review · Apptronik Apollo Review · Tesla Optimus Alternatives and Competitors

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