Latest news and articles about humanoid robots
Researchers at the University of Toronto have developed a monopedal hopping robot that combines quadcopter propulsion with a spring-loaded single leg featuring a compliant, pivoting foot pad. The design allows the robot to maintain stability and traction across diverse terrains including sand and ice, improving upon earlier spike-based designs that proved unreliable.
A new safety framework from Carnegie Mellon and Siemens tackles a problem most people never think about: how do you safely halt a two-legged robot that will fall over if you just cut its power? The answer says a lot about how far humanoid robotics still has to go before these machines can be trusted in the real world.
Carnegie Mellon University and Siemens partnered to develop PRISM (Proactive Refinement of Importance-sampled Stoppability Monitor), a method for assessing and monitoring the safe stoppability of humanoid robots in emergency situations. Unlike industrial robots that can simply cut power, humanoids require power to maintain balance, so the researchers defined operational conditions and safety envelopes where humanoids can safely transition to neutral positions and stop without collapsing or causing harm to people or objects nearby.
While humanoid robots chase warehouse contracts and viral demo videos, a quieter category of machine is already living in people's homes: assistive robots built to help people with mobility issues do ordinary things for themselves. Hello Robot's Stretch, discussed this week by CEO Aaron Edsinger on Robot Talk, is a reminder that not every robotics breakthrough needs to look impressive to matter.
Robot Talk Episode 163 features an interview with Aaron Edsinger, CEO and Co-Founder of Hello Robot, discussing the company's Stretch robots designed to help people with mobility issues achieve greater independence. Edsinger, formerly Robotics Director at Google, founded the company to develop practical, safe, and accessible robots for consumer, manufacturing, healthcare, and research markets.
While Western robotics companies chase viral demos and incremental improvements, China has embedded humanoid robots and embodied AI into its national economic strategy. This isn't just industrial policy — it's a fundamental reorganization of how a nation approaches technological development.
China's robotics strategy, detailed through its Five-Year Plans, positions embodied AI and humanoid robotics as core drivers for industrial dominance and economic power. The country leverages state planning mechanisms like the 13th and 14th Five-Year Plans alongside initiatives such as Made in China 2025 to build a sovereign high-tech manufacturing sector, combining public demonstrations of robot capabilities with long-term investment in robotics infrastructure and talent acquisition.
This monthly robotics digest covers multiple developments in the field: US supply chain tensions around Chinese robotics components, Princeton engineers' breakthrough in motorless origami-inspired robots using magnetic control and multistable geometry, and a Drexel-led study on human trust and emotional responses when interacting with humanoid robots like Pepper. The article also discusses the importance of managing expectations in robotics deployments and notes shifts in automation adoption beyond traditional automotive sectors.
AlphaGenome Atlas maps the molecular effects of 9 billion single-letter DNA variants across the human genome.
This article discusses the United States' robotics strategy and challenges, highlighting the country's leadership in R&D and innovation (exemplified by Boston Dynamics' Atlas and AI breakthroughs) while noting a critical gap in domestic manufacturing and hardware production. It examines how free-market dynamics and DoD funding have driven robotics innovation, but argues that without coordinated government-industry-academic efforts to scale domestic production, the U.S. risks losing economic competitiveness despite pioneering the technology.
This week brought announcements about AI companions for lonely seniors and autonomous lunar rovers. Meanwhile, hobbyists are building impressive badminton-serving robots in their garages. The disconnect reveals an uncomfortable truth about where robotics innovation actually happens.
While headlines chase billion-dollar AI models and enterprise deployments, a quiet revolution is happening in garages and makerspaces. DIY robotics projects are suddenly achieving levels of sophistication that would have required industrial budgets just years ago.
A new study published in Science Robotics examined how people's brains respond when interacting with expressive versus non-expressive humanoid robots that make mistakes. Researchers found that when the social robot Pepper made errors while being animated, participants showed increased brain activity in regions associated with uncertainty and social reasoning, along with elevated oxytocin levels that correlated with decreased trust—suggesting expressiveness makes robot errors feel like social violations rather than technical malfunctions.
RoboCup just witnessed its first full 11v11 humanoid match while Meta struggles to get robots to reset servers without causing chaos. The gap between what robots can do in controlled competition versus messy real-world work reveals an uncomfortable truth about where robotics actually stands in 2025.
New brain research shows humans have surprisingly strong expectations for how expressive robots should behave. When social robots act animated but make mistakes, our neural response suggests we're not just tolerating robots — we're already treating them like flawed social partners.
Berkeley researchers have developed the Berkeley Humanoid Lite, an open-source humanoid robot design that costs under $5,000 by using 3D-printed modular actuators combining motors with cycloidal gearboxes and magnetic encoders. The design is released as a customizable reference platform on GitHub, with the modular actuator components potentially useful for other robotics applications beyond the full robot assembly.
From Berkeley's $5,000 humanoid to EPFL's sound-powered drones, university research is abandoning ivory tower prototypes for designs that makers and startups can actually build. This shift represents a fundamental change in how academic robotics approaches impact.
The first full 11 vs 11 humanoid soccer match at RoboCup 2026 marks a turning point for autonomous robotics. What started as an academic curiosity has become a testbed for real-world coordination challenges that warehouses, disaster response teams, and yes, even factories desperately need to solve.
RoboCup 2026 witnessed the first full 11 vs 11 humanoid soccer match, with teams B-Human and HTWK Robots competing using hardware from Booster Robotics. The milestone demonstrates significant advances in humanoid robotics, AI integration, and autonomous teamwork, bringing the RoboCup Federation's 1997 goal of robots defeating human World Cup champions by 2050 closer to reality.
Researchers just gave robots functional artificial skin that can detect touch location and pressure using only 16 electrodes. This breakthrough matters far more than the latest walking demo or conversation model—it addresses the sensory gap that's kept humanoids from handling real-world tasks.
Researchers have developed 3D-printed artificial skin for robots that can sense touch using electrical impedance tomography (EIT) technology. The flexible TPU-based skin uses only 16 electrodes to accurately detect the location and pressure of touch events, offering humanoid robots a more natural way to interact with their environment through tactile feedback.
Researchers at EPFL's MICROBS Lab have developed sound-powered miniature robots by harnessing Helmholtz resonance physics to create hollow acoustic resonators that convert sound waves into directional thrust. The team demonstrated the innovation with centimeter-scale boats controlled via audible frequencies and ultralight microfliers powered by ultrasonic frequencies, published in Science Advances, with potential applications in shape-changing aerodynamic robotic devices.
While American tech companies chase general-purpose AI and humanoid prototypes, Japan's national robotics strategy reveals a fundamentally different philosophy: build robots for the problems you actually have, not the ones that make good demos. It's an approach that might matter more than we think.
While humanoid robots dominate headlines with flashy demos, researchers are quietly grappling with a far more fundamental challenge: teaching robots to participate in natural group conversations. Imperial College's recent exploration of this problem reveals why your future robot coworker might excel at tasks but flounder at team meetings.
Researchers at EPFL have demonstrated a novel propulsion method for small robots using Helmholtz resonance, where acoustic stimulation produces jets of air that can be harnessed for movement. The technique was demonstrated in multiple applications including an acoustic-propelled boat and microfliers weighing only micrograms, created via high-resolution 3D printing, that can hover and be propelled by angled resonator chambers driven by ultrasonic transducers.
A DIY builder shares the design and development of a compact, joint-mounted actuator for a walking robot capable of producing 20 Newton-meters of torque. The second iteration uses a machined aluminum housing with a planetary gearbox and field-oriented control to achieve the required performance after overcoming initial design challenges.
Multi-party conversation isn't just a harder version of chatbot technology — it's a fundamentally different challenge that reveals why most service robots still feel awkward in public spaces. Imperial College's latest research highlights the gap between one-on-one AI assistants and robots that can genuinely participate in group dynamics.
RoboBusiness 2024 will host a State of Humanoids panel on October 20-21 in Santa Clara featuring experts from Agility Robotics, Apptronik, Persona AI, and PSYONIC discussing the current capabilities and challenges of humanoid robots. The discussion will address real-world deployment, safety, standards, economics, and the milestones needed for widespread adoption in manufacturing, warehousing, and logistics.
The future of humanoid robotics is closer than most people realize. The post The 370-billion-dollar race: How integrated design can help humanoid manufacturers succeed in a rapidly growing market appe...
RoboStore has launched Robo Inc., a U.S.-based robotics manufacturer and systems integrator, to help American organizations deploy robots with localized assembly, data infrastructure, and compliance support. The company, which has distributed over 1,500 humanoid and quadruped robots to 4,500+ North American customers, will operate a 66,000-sq.-ft. production facility on Long Island expected to be operational by Q1 2027, positioning itself as a hardware-agnostic integrator focused on application-specific solutions.
Robin, a mobile socially assistive robot developed by Expper Technologies, is being deployed in approximately 30 hospitals, dental clinics, and care facilities to help patients, particularly children, manage anxiety and emotional distress during medical procedures. The wheeled, kid-sized robot uses speech-based interaction and a designed personality to provide emotional support, distraction, and companionship, with research showing positive outcomes in reducing patient anxiety in healthcare settings.
RoboBusiness 2026 will feature a keynote panel with robotics leaders Rodney Brooks (Robust AI), Jonathan Hurst (Agility Robotics), and Ken Goldberg (UC Berkeley) discussing the evolution and future of robotics across manufacturing, logistics, healthcare, and other sectors over the next 20 years. The discussion will cover breakthroughs in humanoid robots, AI, mobility, and dexterity as robots increasingly integrate into everyday industrial and commercial environments.
Avatar Robotics raised $6.5 million in seed funding led by AlleyCorp to scale deployment of semi-humanoid robots for logistics, manufacturing, and warehouse operations. The startup uses a human-in-the-loop model where remote operators teleoperate robots while machine learning collects operational data to gradually increase autonomy, and has already processed over 900,000 products in customer facilities.
IEEE RAS publishes a monthly roundup of robotics news from July 2026, covering regulatory developments including an FCC ban on foreign-made advanced robotic devices citing cybersecurity concerns, alongside research innovations like Northwestern's invisible-spinning drone, MIT/EPFL's amphibious flapping-wing robot, and KAIST's vine-inspired robotic clothing technology.
The gap between humanoid robot capabilities and factory adoption is widening — not because the technology isn't ready, but because nobody's figured out how to make the economics work. Recent announcements prove the industry is solving the wrong problem.
While humanoid robot technology has matured significantly with improved hardware, vision systems, and AI capabilities, the primary barrier to factory floor adoption is cost economics rather than technical capability. Manufacturers face challenges justifying humanoid investments at current price points (several hundred thousand dollars per unit) when specialized industrial robots deliver higher throughput and faster ROI, though the landscape could shift as humanoid costs decline.
The FCC's sudden restrictions on foreign humanoid and mobile robot imports mark a turning point in how governments view autonomous systems — not as toys or industrial tools, but as critical infrastructure with genuine security implications. After years of letting the industry self-regulate, policymakers are scrambling to catch up.
Google DeepMind unveiled Gemini Robotics 2, an advanced vision-language-action model enabling full-body control of humanoid robots with improved dexterity and multi-robot collaboration capabilities. The system can now control entire robots like Apptronik's Apollo 2 to perform complex tasks requiring whole-body coordination, such as walking, manipulating objects with five-fingered hands, and executing multi-step instructions lasting several minutes.
A hobbyist has modified Stewy, a hexapod walker robot built on a Stewart platform mechanism, to add tactile sensing capabilities by measuring voltage drop across resistors in series with the servo motors. By monitoring current draw through Ohm's law, the robot can now detect torque and force feedback in its legs, improving mobility on uneven terrain without adding strain gauges or expensive sensors.
This roundup highlights the top 10 robotics stories from July 2026, including major funding rounds for Chinese humanoid robot companies, advances in reinforcement learning for manipulation, new humanoid robot launches (Apollo 2, Isaac 1), AMD's robotics platform, brain-computer interface demonstrations, and new U.S. import policies affecting humanoid and mobile robots.
The FCC just banned imports of foreign-made humanoid robots on national security grounds. Combined with the recent OpenAI-Hugging Face breach and Microsoft's new AI security push, we're watching robotics transform from an engineering problem into a geopolitical one — and the industry isn't ready.
GMEX Robotics has entered a definitive agreement to acquire MediaMeta.ai, a Singapore-based company specializing in social intelligence and human behavioral modeling AI. The acquisition aims to integrate MediaMeta's technology into GMEX's robotics platforms for consumer, hospitality, healthcare, and other sectors, enabling robots to better interpret and respond to human social cues and contextual behavior.
The U.S. Federal Communications Commission has announced restrictions on imports of foreign-made humanoid and mobile robots, citing national security and cybersecurity concerns related to critical infrastructure vulnerabilities. The ban applies to new devices but includes exemptions for robots receiving conditional approval from the Department of Defense or Department of Homeland Security, and does not affect previously purchased models or federal purchases. Industry leaders including Standard Bots and Agility Robotics have supported the move, with concerns centered on potential backdoors in foreign robots and unauthorized data transmission.
In a single week, three humanoid robotics companies raised a combined $2.95 billion. This isn't hype — it's institutional capital making long-term infrastructure bets on a technology that finally cleared the viability threshold.
This article discusses integrated robotic actuators as critical components for humanoid robot development, explaining how they improve joint performance and system integration. It examines the challenges of designing actuators for humanoid robots—including space constraints, responsive control requirements, and system simplification—and presents the CubeMars AK45-10 as an example of a compact integrated actuator solution combining motor, gearbox, encoder, and control electronics for various joint applications.
NEURA Robotics has partnered with RWTH Aachen University to establish NEURA Gym RWTH Aachen, a specialized facility for training physical AI models that enable robots to perceive, decide, and act in real-world environments. The company plans to build 10 such facilities globally, combining physical robot training with high-fidelity simulation to generate datasets for its Neuravese cloud platform, with facilities in Germany, the U.S., and China expected to be operational by end of 2026.
Holiday Robotics, a Seoul-based startup, raised $105 million in Series A funding to develop FRIDAY, a wheeled humanoid robot designed for industrial manufacturing tasks. FRIDAY features 64 degrees of freedom with 40 dedicated to dexterous hands, safety-focused hardware design, and a vision-language-skill (VLS) approach to AI that combines perception, learning, and real-world deployment for reliable operation alongside human workers.
Travis Kalanick, former Uber co-founder, has launched ATOMS, a robotics startup that raised $1.7 billion in equity funding led by a16z and Ben Horowitz. The company plans to build specialized robots and industrial automation systems across food production, mining, and mobile robotics, positioning itself as an OEM for industrial sectors rather than pursuing general-purpose humanoids.
Humanoid, a London-based AI and robotics company, secured $152 million in Series A funding at a $1.35 billion post-money valuation to develop industrial humanoid robots. The company is building the HMND 01 Alpha wheeled robot and a bipedal version, powered by its KinetIQ AI framework, with plans to begin beta deployments in Q4 2026 and mass production of wheel-based robots, supported by strategic partnerships with Schaeffler and Robert Bosch.
While the industry races toward humanoid deployment, a quieter revolution is happening in how robots understand physical contact. From full-body tactile sensing to friction-aware world models, researchers are finally addressing the gap that's kept manipulation tasks frustratingly brittle.
