NASA Valkyrie Humanoid Robot Returns to US after Decade of Research

NASA’s Valkyrie humanoid robot is returning to the United States after ten years of research at the University of Edinburgh, marking the next phase in the development of robots designed for future planetary missions.

By Rachel Whitman | Edited by Kseniia Klichova Published:
NASA’s Valkyrie humanoid robot, originally developed for future Mars missions, is returning to the United States after ten years of research at the University of Edinburgh. Photo: NASA

A humanoid robot originally developed for future Mars missions is returning to the United States after spending a decade in Scotland supporting robotics research.

The robot, known as Valkyrie, has been based at the University of Edinburgh since 2016 as part of a collaboration with NASA. The platform helped researchers advance technologies related to mobility, perception, and human-robot interaction before being transferred back to NASA’s Johnson Space Center in Texas for further development.

Standing roughly 1.8 meters tall and weighing about 125 kilograms, Valkyrie remains one of only a handful of humanoid research robots built for extreme environments such as planetary exploration.

Its return marks a new phase in the project, as NASA continues evaluating how humanoid robots could assist astronauts on future missions to the Moon and Mars.

A Research Platform for Space Robotics

Valkyrie was originally developed as part of NASA’s effort to build robots capable of preparing infrastructure in hazardous environments before human crews arrive.

The robot’s human-like structure allows it to operate in environments designed for people, including industrial tools, ladders, and access points. That design principle has long been central to humanoid robotics research: rather than redesigning environments for machines, robots are built to function within existing human systems.

The platform incorporates a range of sensors and Series Elastic Actuators, a type of joint mechanism designed to enable safer physical interaction between robots and humans while maintaining precise control.

When the robot arrived in Edinburgh nearly a decade ago, its capabilities were relatively limited. It could walk on flat surfaces and perform basic manipulation tasks such as grasping objects.

Over time, researchers enhanced the system using artificial intelligence and machine learning techniques that improved balance, perception, and decision-making. The work focused on helping the robot interpret sensor data, maintain stability on uneven terrain, and translate visual information into coordinated physical actions.

A Decade of Progress in Humanoid Robotics

At the time Valkyrie was deployed in Edinburgh, humanoid robots were still largely confined to research laboratories. Commercial systems had yet to emerge, and only a small number of prototypes existed worldwide.

The robot provided researchers with a rare experimental platform for studying how humanoids move, maintain balance, and interact with people in real-world environments.

According to researchers involved in the program, the project helped train a generation of roboticists while contributing to the broader development of humanoid robotics.

Vladimir Ivan, who worked on the Valkyrie project as a student and now serves as chief technical officer of robotics start-up Touchlab, described hosting the robot as a unique opportunity during a period when advanced humanoid systems were largely inaccessible to academic labs.

The presence of the NASA robot also helped strengthen the University of Edinburgh’s role as a global hub for robotics research, supporting collaborations between academia, industry, and emerging robotics companies.

Influencing the Next Generation of Robots

Beyond its role in academic research, Valkyrie has also influenced newer humanoid platforms.

Elements of the robot’s architecture have informed the development of modern systems, including humanoid designs emerging from robotics companies that are beginning to transition the technology from laboratories into industrial environments.

One example is Apptronik’s Apollo robot, which draws on research lineage connected to earlier NASA humanoid programs.

Meanwhile, research in Edinburgh has continued with newer platforms such as the Talos humanoid robot, which scientists use to study advanced locomotion, manipulation, and collaborative interaction between humans and machines.

This research includes work on dyadic human-robot interaction, where robots and people cooperate directly to complete tasks. Such approaches could eventually support applications ranging from assisted living technologies to rehabilitation systems.

What Valkyrie’s Return Signals

The return of Valkyrie to NASA comes at a moment when humanoid robotics is moving rapidly from academic experimentation toward commercial deployment.

Companies across the United States, Europe, and Asia are developing humanoid machines for factories, logistics centers, and service environments. At the same time, space agencies are continuing to explore how similar technologies could support exploration missions.

For NASA, robots like Valkyrie remain part of a long-term strategy to extend human capabilities in hazardous environments. Humanoid machines could eventually assemble infrastructure, maintain equipment, or conduct preliminary exploration before astronauts arrive.

The past decade of research in Edinburgh helped advance the fundamental technologies behind that vision.

Now, as Valkyrie returns to the United States, the robot is expected to play a role in the next stage of development as space agencies and robotics companies alike push toward machines capable of operating far beyond Earth.

News, Robots & Robotics, Science & Tech

Humanoid Robots Close In on Human 100-Metre Sprint Record as Locomotion Advances Accelerate

Unitree’s H1 robot has recorded a peak sprint speed of 10 meters per second on an athletics track, approaching Usain Bolt’s average race speed of 10.44 meters per second, as Chinese manufacturers push bipedal locomotion toward the limits of human athletic performance.

By Daniel Krauss | Edited by Kseniia Klichova Published:
A bipedal humanoid robot sprinting on an athletics track during a speed test, with a velocity measurement device recording peak speed. Photo: Unitree

Humanoid robots are converging rapidly on the limits of human athletic performance in sprinting. Unitree Robotics recently released footage of its H1 robot reaching a peak speed of 10.1 meters per second on an athletics track – a figure that approaches the average race speed of 10.44 meters per second Usain Bolt maintained during his 9.58-second 100-metre world record. Unitree’s CEO Wang Xingxing has publicly predicted that Chinese humanoid robots will break the 10-second barrier in the 100-metre dash by mid-2026.

The sprint developments follow the Beijing half-marathon in April, where Honor’s humanoid robot Lightning completed the 13-mile course in 50 minutes and 26 seconds – below the standing human world record by nearly seven minutes. Taken together, the results mark a rapid compression of the performance gap between human and robotic bipedal locomotion across both endurance and speed dimensions.

What the Speed Numbers Represent

Unitree’s 10.1 m/s figure was recorded as the H1 passed a speed-measuring device during a track test, with the company noting possible measurement error in the video. The robot weighs approximately 62 kilograms with a combined leg length of 80 centimeters – proportions comparable to an average adult human. MirrorMe Tech, a startup linked to Zhejiang University, has separately demonstrated a humanoid named Bolt reaching 10 meters per second on a treadmill, with an explicit design goal of approaching or exceeding the biological limits of human motion.

At 10 seconds flat for a 100-metre sprint, a humanoid robot would place within range of elite Olympic competition. The current humanoid robot 100-metre record, set at the 2025 World Humanoid Robot Games, stands at 21.50 seconds – a figure that illustrates how quickly the performance envelope is shifting.

Engineering Progress, Not Scientific Breakthrough

Researchers with deep experience in bipedal robotics caution against overstating what the speed records demonstrate. Alan Fern, a computer science professor at Oregon State University who helped develop the Cassie bipedal robot, said the basic principles of robot locomotion are not new. What changed in the past year, he argued, was engineering quality and investment volume – faster machines that hold together longer, rather than a fundamental advance in how robots learn to move.

“What changed this year was good old-fashioned engineering and investment,” Fern said. “Last year’s robots were slower, and many broke. This year’s machines were fast and held together. That is not nothing, but it is not a breakthrough either.” Yanran Ding, a robotics professor at the University of Michigan, identified heat management as the more significant engineering achievement behind sustained high-speed operation.

Jonathan Hurst, whose company Agility Robotics builds the Digit warehouse humanoid, drew a sharp distinction between track performance and operational readiness. The gap between a robot that can run a premapped course and one that can navigate safely among people in a warehouse is the gap the industry is still working to close. “It’s like looking at the first cars and being like, ‘It doesn’t fly,'” Hurst said. “It’s a pretty high bar.”

Why Speed Benchmarks Still Matter

The investment in locomotion speed serves purposes beyond athletic competition. High-speed bipedal movement requires tight integration across perception, actuation, and learned control policies – the same control stack that governs how a robot navigates dynamic environments, responds to unexpected disturbances, and maintains stability under load. Progress at the performance extremes tends to transfer into improved reliability at the operational middle.

For Chinese manufacturers, publicly demonstrated speed records also carry strategic value in a sector where national competition is explicit. With more than 150 humanoid robot companies active in China and government support tied to performance milestones, speed benchmarks function as both technical validation and competitive positioning.

News, Robots & Robotics

AtkinsRéalis and Oxford Robotics Institute Partner to Deploy Autonomous Robots in Nuclear Sites

AtkinsRéalis and the University of Oxford’s Oxford Robotics Institute have formed a partnership to commercialize autonomous inspection and manipulation robots for nuclear decommissioning and energy sector applications, building on deployments already active at Sellafield.

By Laura Bennett | Edited by Kseniia Klichova Published:
An autonomous mobile robot conducting inspection and radiation mapping in a hazardous industrial facility, operating without direct human presence in the environment. Photo: AtkinsRéalis

AtkinsRéalis, the engineering and project management firm, has formed a partnership with the University of Oxford’s Oxford Robotics Institute to accelerate the deployment of autonomous robots in nuclear and wider energy sector environments. The collaboration formalizes and scales a body of work already active in the UK, where ORI-developed systems have been integrated into AtkinsRéalis platforms for autonomous navigation, mapping, and radiation hotspot detection at nuclear sites including Sellafield.

The partnership’s initial focus is on converting those proven UK deployments into commercial products available to international customers. Systems currently operating as mobile inspection vehicles and manipulation platforms will be refined in ORI’s laboratory infrastructure before transitioning into field-ready applications through AtkinsRéalis’ nuclear engineering capabilities.

Why Nuclear Is a Demanding Test Environment

Nuclear decommissioning and inspection represent one of the most constrained deployment contexts in industrial robotics. Human access is limited by radiation exposure limits, physical endurance, and safety protocols that restrict time on-site. Autonomous robots that can navigate, map, and detect radiation anomalies without continuous human presence directly address those constraints, extending operational capability into areas and durations that human crews cannot sustain.

Reducing personnel exposure to hazardous conditions is the core operational driver. Beyond safety, autonomous systems can potentially accelerate decommissioning work that would otherwise be paced by human radiation limits – a meaningful economic consideration given the multi-decade timescales and substantial costs associated with nuclear site closure programs.

The partners described the work as part of the emerging field of physical AI – the coupling of simulation, AI-enabled perception, decision-making, and real-world validation to enable reliable autonomous operation in safety-critical environments.

AtkinsRéalis’ Broader Robotics Ecosystem

The ORI partnership extends an ecosystem AtkinsRéalis has been assembling across robotics and AI over the past year. The company has a proposed trial of remote robot operation with Sellafield Ltd, an extended partnership with Canadian robotics manufacturer Kinova, and an active collaboration with NVIDIA on simulation and autonomy tools. Together, these alliances position AtkinsRéalis as an integrator across the physical AI stack for nuclear applications – from simulation and perception to manipulation hardware and regulatory compliance.

The deal gives AtkinsRéalis deeper access to ORI’s academic research and specialist testing infrastructure in perception, navigation, manipulation, and digital twin development. First public demonstrations of related technology in the UK are expected in the coming months as trials with nuclear site operators progress.

“This partnership allows us to rapidly move autonomous robotics from research to operational deployment on nuclear power plants around the world,” said Sam Stephens, head of digital for AtkinsRéalis’ nuclear division.

The longer-term objective is a validated suite of autonomous inspection and manipulation platforms deployable across decommissioning, operations, and monitoring tasks at nuclear sites internationally – a market where regulatory requirements, site-specific complexity, and safety standards create high barriers to entry but also durable demand for proven systems.

Business & Markets, News, Robots & Robotics, Science & Tech

SusHi Tech Tokyo 2026 Opens with 770 Exhibitors, Targeting 10,000 Business Negotiations

SusHi Tech Tokyo, Asia’s largest startup convention, opened Monday at Tokyo Big Sight with 770 exhibitions across AI, robotics, resilience, and entertainment, targeting 10,000 business negotiations over three days.

By Rachel Whitman | Edited by Kseniia Klichova Published:
Startup exhibitors and investors engaging at an international technology convention in Tokyo, showcasing AI and robotics innovations at a large exhibition hall. Photo: SusHi Tech Tokyo 2026

SusHi Tech Tokyo, Asia’s largest startup convention, opened Monday at Tokyo Big Sight in Koto Ward for its fourth annual edition, running April 27 to 29. The event features 770 exhibitions across four thematic areas – AI, robotics, resilience, and entertainment – and is expected to draw approximately 60,000 attendees over the three days, with the first two days reserved for business participants and Wednesday open to the general public.

Tokyo Governor Yuriko Koike opened the event Monday morning, framing the conference’s focus on sustainable urban technology against a backdrop of geopolitical volatility, climate disruption, and accelerating AI development. Prime Minister Sanae Takaichi joined Koike on stage in the afternoon to address the role of startups in driving national economic transformation.

Business Matching at Scale

The convention’s primary function is connecting startups with large corporations, institutional investors, and venture capital. Last year, approximately 6,000 business negotiations were facilitated through the event, with 45% of survey respondents reporting that conversations led to collaboration or funding outcomes. This year’s organizers are targeting 10,000 negotiations, supported by the introduction of an AI-powered business matching app that allows participants to connect directly through the platform and receive AI-generated recommendations for relevant contacts and companies.

The Tokyo Metropolitan Government has placed particular emphasis on drawing large Japanese corporations looking to actively engage with and invest in startups, alongside international investors seeking access to Japan’s technology ecosystem.

Robotics and AI on the Exhibition Floor

Robotics features prominently across the exhibition floor and panel program. Demonstrations include an anthropomorphic heavy machine designed for high-altitude work, reflecting Japan’s interest in deploying robotic systems in construction and infrastructure maintenance – sectors directly affected by the country’s labor shortage. Drone soccer demonstrations represent the entertainment and sports technology dimension of the robotics track.

The convention’s four-theme structure – AI, robotics, resilience, and entertainment – reflects Tokyo’s strategic priorities as it positions itself as a technology hub capable of competing with other global startup ecosystems. With 21 international city pavilions represented at the event, the organizers are also reinforcing the global dimension of the conference, providing Japanese startups with direct exposure to international capital and potential partners.

Of the 158 panel sessions scheduled over three days, a significant portion addresses AI and robotics applications in urban environments – a topic of particular urgency in Japan given the combination of record inbound tourism, a shrinking domestic workforce, and government pressure to accelerate automation across both public and private sector operations.

Artificial Intelligence (AI), News, Science & Tech, Startups & Venture

Japan Airlines to Trial Unitree Humanoid Robots for Baggage Handling at Haneda Airport

Japan Airlines will begin a trial deployment of Unitree humanoid robots for baggage and cargo handling on the tarmac at Tokyo’s Haneda Airport from May, targeting labor shortages driven by record inbound tourism and a shrinking domestic workforce.

By Laura Bennett | Edited by Kseniia Klichova Published:
A humanoid robot moving luggage and cargo on an airport tarmac during a ground operations trial alongside a commercial passenger aircraft. Photo: Kseniia Klichova / RobotsBeat

Japan Airlines will introduce humanoid robots on a trial basis at Tokyo’s Haneda Airport from the beginning of May, deploying them to move traveler luggage and cargo on the tarmac. The trial, conducted in partnership with Japan Airlines GMO Internet Group, runs through 2028. The robots are manufactured by Hangzhou-based Unitree and stand 130 centimeters tall.

Haneda handles more than 60 million passengers annually. The trial is designed to address acute labor shortages in ground operations – a segment that remains heavily dependent on physical human labor despite the broader automation of airport passenger-facing services.

The Labor Pressure Behind the Decision

Japan is navigating simultaneous pressure from record inbound tourism and a declining domestic workforce. More than 7 million people visited the country in the first two months of 2026, following a record 42.7 million arrivals last year. One estimate projects Japan will need more than 6.5 million foreign workers by 2040 to sustain its growth targets as the indigenous workforce continues to contract.

Ground handling operations at major airports are among the roles most acutely affected. Physically demanding, shift-intensive, and difficult to staff at scale, baggage and cargo handling represents a natural early deployment target for humanoid robots that can perform repetitive physical tasks in structured outdoor environments.

“While airports appear highly automated and standardised, their back-end operations still rely heavily on human labour and face serious labor shortages,” said Tomohiro Uchida, president of GMO AI and Robotics.

Operational Parameters and Scope

In a media demonstration this week, the Unitree robot was shown pushing cargo onto a conveyor belt beside a JAL passenger aircraft. The current units operate continuously for two to three hours before requiring recharging – an operational constraint that will shape how the trial structures shift coverage alongside human workers.

JAL Ground Service president Yoshiteru Suzuki said the deployment is intended to reduce the physical burden on employees rather than replace the workforce, and confirmed that safety management tasks will remain human-operated. The companies also plan to expand the robots’ task scope to include aircraft cabin cleaning during the trial period.

Broader Context

The Haneda trial is one of the more operationally demanding humanoid robot deployments announced to date. Airport tarmac environments involve variable weather, moving vehicles, aircraft proximity, and strict safety protocols – conditions that introduce complexity beyond controlled warehouse or factory floor deployments. How the Unitree robots perform under those conditions over the two-year trial period will provide meaningful data on the readiness of current humanoid platforms for high-stakes outdoor logistics environments.

Japan’s combination of severe labor constraints, strong robotics infrastructure, and institutional willingness to pilot automation in public-facing services makes it a significant test market for humanoid deployment at the operational level – distinct from the manufacturing and logistics deployments that have defined most of the sector’s progress to date.

News, Robots & Robotics, Science & Tech

South Korea to Deploy 18 Firefighting Robots as Part of National Disaster Response Overhaul

South Korea’s National Fire Agency has announced a plan to expand its unmanned firefighting robot fleet from four to 22 units over two years, shifting toward an AI and robotics-centered response system for large-scale and hazardous fires.

By Daniel Krauss | Edited by Kseniia Klichova Published:
An unmanned firefighting robot operating in a large industrial fire environment, remotely deployed to suppress flames in areas inaccessible to personnel. Photo: Kseniia Klichova / RobotsBeat

South Korea’s National Fire Agency has announced a comprehensive overhaul of its disaster response system, with unmanned firefighting robots at the center of its near-term equipment expansion. The agency plans to add 18 robots over the next two years, bringing the total fleet from four to 22 units, before gradually extending deployment to fire headquarters across cities and provinces nationwide.

NFA Commissioner Kim Seung-ryong outlined the plan at a press briefing in Sejong on Thursday, his first public statement since taking office in October. The measures respond to an increase in large-scale, hard-to-access disasters – including fires at logistics facilities involving toxic gases and explosion risks – where personnel safety constraints limit how close human firefighters can operate.

Shifting to a Robot-Centered Response Model

The agency’s stated objective is to transition from a personnel-dependent response model to one centered on AI and robotics, reducing exposure of on-site staff in the most hazardous scenarios. Unmanned firefighting robots are designed to enter environments that would require human crews to operate at unsafe proximity to flames, structural collapse risk, or chemical hazard zones.

Alongside the robot expansion, the NFA will extend its high-capacity foam discharge system – used for large-scale incidents such as oil tank fires – to the Honam and metropolitan regions, adding geographic coverage for a class of industrial fire that has grown more common as logistics and warehousing infrastructure has expanded.

The preventive inspection system is also being strengthened. The agency is evaluating a shift from fire-station-only inspections to a government-wide joint system involving agencies responsible for construction, electricity, and gas. High-risk facilities with repeated fire incidents will be designated as key fire safety management targets and subjected to intensified public oversight through joint drills and safety investigations.

Emergency Transport Reform

The overhaul extends beyond firefighting into emergency patient transport. The NFA plans to strengthen the Central Emergency Medical Situation Control Center’s authority to intervene directly when regional centers cannot place patients, arranging hospital admissions nationwide rather than within regional boundaries. For high-risk cases including emergency obstetric patients, 119 emergency services will transport directly to facilities with neonatal intensive care capacity regardless of provincial jurisdiction.

For long-distance transport, the agency intends to expand use of its 33 air ambulances currently operating nationally.

Regulatory Reform

The agency is also initiating a regulatory overhaul of the firefighting industry. It will shift to a negative regulatory framework – permitting everything not explicitly prohibited by law – and has announced a Fire Prevention Regulation Rationalization Task Force combining industry, academic, and research expertise. Major firefighting laws including the Fire Facilities Act and the Hazardous Substances Safety Management Act will be reviewed from the ground up to remove unnecessary administrative constraints.

The announcement follows a line-of-duty deaths investigation stemming from a fire at a seafood processing facility in South Jeolla Province. A 26-member joint fire investigation team is conducting a detailed analysis, with institutional reforms to follow based on its findings.

News, Robots & Robotics
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