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Honda's perspective on the current humanoid robot boom

Honda's perspective on the current humanoid robot boom
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🗾Read original on ITmedia AI+ (日本)

💡See how the pioneer of bipedal robotics plans to pivot its legacy tech for the modern embodied AI era.

⚡ 30-Second TL;DR

What Changed

Honda acknowledges the current market shift toward humanoid robotics.

Why It Matters

Honda's potential return could significantly shift the competitive landscape of embodied AI, given their deep historical expertise in bipedal locomotion.

What To Do Next

Monitor Honda's R&D announcements for potential integration of LLMs with their legacy bipedal control systems.

Who should care:Researchers & Academics

Key Points

  • Honda acknowledges the current market shift toward humanoid robotics.
  • The company reflects on the legacy and lessons learned from the ASIMO project.
  • Honda is evaluating its strategy for potential re-entry into the humanoid robot sector.

🧠 Deep Insight

Web-grounded analysis with 41 cited sources.

🔑 Enhanced Key Takeaways

  • Honda ceased ASIMO's development and production in 2018, and it made its last active appearance in March 2022, primarily due to a lack of commercial viability despite its technological advancements.
  • Following ASIMO's retirement, Honda pivoted its robotics strategy to focus on more practical applications, leveraging ASIMO's underlying technologies for areas like walking assist devices, autonomous vehicles, and even robotic lawnmowers, rather than a single general-purpose humanoid.
  • The current humanoid robot market, which Honda is observing for potential re-entry, is experiencing rapid growth, with the global market reaching an estimated $4-5 billion in 2026 and a significant shift towards commercial deployment in logistics, manufacturing, and automotive sectors.
  • Modern humanoid robots are increasingly integrating advanced AI, including Vision-Language-Action (VLA) models, which were largely absent from production 18 months prior but now back 40% of new deployments, enabling robots to follow natural-language instructions and perform complex tasks autonomously.
  • The industry is seeing a move from hardware novelty to infrastructure, with a focus on repeatable data collection workflows, policy evaluation, and the commoditization of hardware, alongside a significant increase in venture capital investment, exceeding $3-4 billion in 2024 alone.
📊 Competitor Analysis▸ Show

Humanoid Robot Competitor Analysis (as of June 2026)

Feature / CompanyBoston Dynamics Atlas (Electric)Agility Robotics DigitTesla Optimus (Gen 2/3)Figure AI (Figure 02/03)
Primary Use CaseHeavy Industrial Lifting, Industrial & Automation TasksLogistics & Warehouse Automation, Material HandlingAutomotive Manufacturing, General Purpose (long-term)Logistics, Manufacturing, End-to-End Neural Net
Height1.9 m (6 ft 3 in)1.75 m (5 ft 9 in)1.73 m (5 ft 8 in)1.68 m (5 ft 6 in)
Weight89 kg (196 lbs)65 kg (143 lbs)57 kg (125 lbs)70 kg (154 lbs)
Payload Capacity50 kg (110 lbs)16 kg (35 lbs)20 kg (45 lbs)20-25 kg (44-55 lbs)
Max Speed3.3 m/s (11.9 km/h)1.39 m/s (5 km/h)1.2 m/s (4.3 km/h)1.2 m/s (4.3 km/h)
Battery Life4 hours4-8 hours5+ hours5 hours
Degrees of Freedom56N/A (arms 3 DOF each)28 (structural actuators)28 (full body), 16 (hands)
Commercial StatusProduction (2026 deployments committed)Shipped / Field Operation (GXO Logistics, Amazon)In-house Scaling / Ext. Pre-order (targeting 50,000 units in 2026)Commercial Pilot (BMW), Scaling
Estimated Price~$150,000 (production version)~$250,000 (enterprise pricing)Sub-$20,000 (target production cost)N/A (high valuation, significant funding)

🛠️ Technical Deep Dive

  • ASIMO (Advanced Step in Innovative Mobility):

    • Height & Weight: 130 cm (4 ft 3 in) tall, 48 kg (106 lbs) in its final 2011 iteration.
    • Degrees of Freedom (DOF): Total of 57 DOF in the 2011 model, including 3 in the head, 14 in the arms (7 per arm), 2 in the torso, and 6 per leg. Hands had 13 DOF each for precise manipulation.
    • Sensors: Equipped with two camera 'eyes' for visual information (object recognition, distance, direction), ground sensors (laser and infrared) for autonomous navigation, and tactile/force sensors in its multi-fingered hands.
    • Control System: Utilized a three-dimensional computer processor by Honda, integrating a processor, signal converter, and memory. Advanced intelligence capabilities allowed it to integrate information from various sensors to estimate the environment and determine autonomous behavior.
    • Mobility: Capable of walking, running (up to 9 km/h), running backward, hopping on one or two legs, and climbing stairs.
    • Battery: Powered by a rechargeable 51.8 V lithium-ion battery, offering approximately one hour of operating time.
  • Current Humanoid Robots (General Trends):

    • Actuation: Transitioning from hydraulic (e.g., older Atlas) to fully electric systems for quieter operation, reduced maintenance, and industrial deployment (e.g., Electric Atlas, Optimus, Digit, Figure AI).
    • AI & Control: Heavy reliance on advanced AI, including Vision-Language-Action (VLA) models, neural networks, and foundation models for real-time perception, reasoning, and task planning. Examples include Tesla's Full Self-Driving computer adapted for Optimus and Figure AI's Helix VLA model.
    • Sensors: Common sensor suites include LiDAR, depth cameras (e.g., Intel RealSense), RGB cameras, MEMS IMU, and force/tactile feedback sensors in hands and joints for environmental perception and dexterous manipulation.
    • Dexterity: Multi-fingered hands with high degrees of freedom (e.g., Optimus with 22 DOF, Figure 02 with 16 DOF) are becoming standard for intricate object manipulation.
    • Modular Design: Focus on modular and lightweight designs to improve stability, deployability, and manufacturing scalability.

🔮 Future ImplicationsAI analysis grounded in cited sources

Honda will likely re-enter the humanoid robotics market with a focus on practical, task-specific applications rather than a general-purpose 'ambassador' robot.
Honda's past experience with ASIMO highlighted commercial viability challenges, and its current robotics strategy emphasizes leveraging ASIMO's technology for specific, practical uses like assistive devices and autonomous systems.
Honda's potential new humanoid robots will heavily integrate advanced AI and machine learning, possibly drawing from its automotive AI developments.
The current humanoid robot boom is driven by advancements in AI, machine learning, and vision-language-action models, and Honda has already applied ASIMO-derived intelligence technologies to its '0 Series' EVs for advanced driver assistance.
The next generation of Honda's humanoid robotics will prioritize cost-effectiveness and scalability for industrial or service sectors.
The current market leaders are focusing on commercial deployment, mass production capabilities, and addressing labor shortages in industries like logistics and manufacturing, indicating a shift from research prototypes to economically viable solutions.

Timeline

1986
Honda begins research into bipedal walking robots with the E-series prototypes.
1993
Honda introduces the P-series robots, which add arms, a body, and wireless operation.
2000-10
Honda unveils the original ASIMO (Advanced Step in Innovative Mobility) humanoid robot.
2011-11
Honda introduces the latest iteration of ASIMO with significantly improved intelligence, agility, and dexterity, including running at 9 km/h and advanced object manipulation.
2018-07
Honda announces it will cease development and production of ASIMO robots to focus on more practical applications of the technology.
2022-03
ASIMO makes its last active public appearance, officially retiring after a 22-year career.
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Original source: ITmedia AI+ (日本)