Robotics roadmaps from around the world spotlight of the month: Japan

Robots have been a prolific theme in Japanese pop culture and media since the 1950s, which includes global icons like the Transformers, Astro Boy , and Doraemon ( 1 ). Perhaps not coincidentally, Japanese citizens have a positive outlook on robotic technologies and their use in the labor sector compared to many other nations ( 2 ); much to their advantage, as robotics continues to be a vital pillar for ensuring Japan’s economic resilience and future growth. Here, we discuss priorities and long-term agendas as presented in Japan’s national robotics strategies.

Natural disasters, aging, and economic competition

The combination of its geographic location, geologically active landmass, and topography renders Japan prone to frequent natural disasters. Although weather control is among Japan’s lofty research goals for the next 25 years ( 3 ), geological disturbances remain inevitable. As such, disaster mitigation and response are high priorities that serve as motivation for robotics development in Japan ( 4 ). Intelligent machines are expected to expedite disaster response and search-and-rescue, while minimizing exposure of workers and volunteers to unnecessary hazards – a notable reminder being the 2011 Fukushima Disaster ( 5 ).

Aging workforce is a second pressing issue. Japan is currently the oldest demographic nation, defined as of 2007 as a “super-aged” society with nearly a third of citizens aged 65 or older ( 6 ). According to government roadmaps ( 4 ), Japan views robotic development as a crucial tool for preventing a GDP collapse due to the rapid labor shortage, specifically in services like healthcare, elderly assistance, and manual labor. Unlike countries which opt for immigration reform for addressing fluctuation in labor markets, Japan maintains historically tight immigration regulations. A strong preference towards preserving traditional values may influence their massive investments towards shifting to a robotic workforce ( 7 ).

Japan has a mature robotics industry, claiming the title of the largest manufacturer and exporter of industrial robots for the last half century ( 8 ). 45% of the global supply originated from Japan in 2022, with nearly an 80% export rate to countries such as EU members, the USA, and China ( 9 ). However, the combination of economic decline and competition from oversea manufacturing present the challenge of maintaining leadership in the global value chain. Leveraging their specialty in robotics hardware design is crucial to maintain a competitive edge in the global economy.

Society 5.0

Japan is betting on bold technological solutions for ensuring the prosperity of their future society. To do so, the government proposes a streamlined effort towards technocentric “super-smart cities” (coined Society 5.0 ) ( 10 ). The directive is set by the Science and Technology Basic Plan , a large-scale roadmap updated every five years (with 2026 marking the transition into the 7th Plan). An additional Integrated Innovation Strategy is used as an annually-updated agile document for integrating urgent priorities into the larger Basic Plan.

Super cities

Japan is investing heavily into research on human-robot interactions, so that users are embedded early on into technological design considerations of Society 5.0 . Accordingly, in 2020 the Japanese Parliament passed the Super City Amendment , which allows regulatory sandboxes for specific “super cities” (currently Osaka and Tsukuba) to bypass certain laws that otherwise impede the integration of technologies like AI-driven robots into the public space ( 11 , 12 ). These large-scale tests are carried out preceding what they hope could become widespread implementation of robotics to mitigate issues such as labor shortage. Following suit, as of late September 2025, the automobile industry Toyota has launched their own version of a Super City, Woven City , which provides a campus for employees to work, live, and even raise a family ( 13 ).

Moonshot programs

Japan also utilizes high-risk, high-impact research roadmaps with 30-year timelines, called Moonshot Programs , to encourage bold technological solutions for the future ( 14 ). The authors of these programs are a blend of members from government, industry, and academia. Two of the current ten Moonshot Goals are directly related to robotics.

Goal 1 of the Moonshot Program is to Overcome Limitations of Body, Brain, Space, and Time , a goal largely focused on the creation of Cybernetic Avatars – the fusing of sensations and motions between human users and tele-operated robots. By 2050, they hope to create the technology and infrastructure to implement Cybernetic Avatars into everyday society. Goal 3 of the Moonshot Program is the Co-Evolution of Robots and AI . Sub-goals within Goal 3 include the creation of robots that 1) 90% of citizens will feel comfortable engaging with by 2030, 2) work in remote and dangerous locations by 2050, and 3) autonomously innovate by 2050.

Humanoids and physical AI

In December 2025, a strategic update has been made to Goal 3 of the Moonshot Program, which prioritizes the development of general-purpose autonomous humanoid robots which can adapt to human-centric environments ( 15 ). Japan had in fact led humanoid research decades back ( 16 ), already developing Honda’s famous Asimo in 2000 ( 17 ) – but despite these early successes, humanoids remained astronomically expensive to manufacture, impractical for real-world applications, and remained publicity tools for promoting other industrial products. These commercialization challenges have largely been overcome with advancements in low-cost and back-drivable actuation components, additive manufacturing, and generalizable AI. As countries like China and the USA have sparked a humanoids build-up race, Japan is playing catch-up to re-assert themselves in this arena, which is rapidly taking center stage in the tech world ( 18 ).

To keep up in this humanoids race, it is crucial for Japan…

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