
An AI-powered autonomous robot called temi is being introduced into Japanese classrooms as an integrated STEAM education tool designed to reduce teacher workload.
The package includes the robot, a no-code programming interface, curriculum materials, and network infrastructure, and is now operating in 12 schools across multiple prefectures.
Rather than treating technology as an end in itself, the system guides students through stages of learning, problem-solving, and real-world social implementation, while a new teacher community shares lesson plans to lighten preparation burden.
What happened
An autonomous robot called temi, paired with a no-code programming app called Buddiotte and integrated support infrastructure, is being rolled out as a STEAM education package. As of 2025, 50 temi units are operating across 12 schools in Japan (including 2 in Saitama, 2 in Kanagawa, and 4 in Wakayama), with uses ranging from classroom instruction to library recommendations and museum guidance.
Why it matters
Teachers tasked with STEAM education face barriers—equipment setup, lack of specialized knowledge, and difficulty designing lessons—that prevent them from focusing on actual teaching. This robot package bundles hardware, software, curriculum, and network infrastructure into a single offering to reduce teacher preparation burden and enable students to learn through real-world problem-solving that extends to social implementation, not just coding.
What to watch
The "AI Assistant Robot Academic Pack (3-year package)" covers the robot, software license, textbooks, training, and three years of maintenance in one transparent pricing model, eliminating separate hardware, software, and support bills. A "STEAM Education Co-creation Community" has also launched, supported by prefectural education boards and school principals, to share lesson plans and program code and ease the workload for teachers building lessons from scratch.
The learning robot temi is a mobile, autonomous platform designed to engage students through real interaction—it communicates and moves autonomously, serving as what the article calls a "moving interface" that appeals to the five senses. It is paired with Buddiotte, a block-based visual programming app where students connect Japanese-language blocks to directly control temi's behavior without writing code.
The full offering, called the "AI Assistant Robot Academic Pack (3-year package)", is a bundled solution that consolidates typically fragmented costs: it includes the robot hardware itself, the Buddiotte academic license, printed textbooks, initial configuration and staff training, and temi CARE (maintenance support for the full three-year period). The article emphasizes that this approach avoids the administrative headache of tracking separate invoices for hardware, software, and service contracts; instead, schools receive one transparent cost estimate covering all three years of operation.
The curriculum is structured in four stages. Students begin by learning basic robotics and coding (approximately 20 hours), then progress to tasks that connect robot control to real-world problems in their community or daily lives (10–15 hours). The next phase focuses on service implementation—designing and deploying a robot-based solution that solves an actual problem (5–10 hours)—capping with social implementation where solutions are tested and refined for broader use. A shared network infrastructure called P-BOX unifies hardware, software, and communication, allowing student ideas to connect across school boundaries without technological limits.
As of 2025, 50 temi units are in operation at 12 schools across Japan. Deployment spans Saitama (2 schools), Kanagawa (2 schools), Wakayama (4 schools), and other prefectures. Uses extend well beyond the classroom: school libraries use temi to recommend books and guide visitors, pediatric clinics employ it as a play companion for children, and railway museums deploy it as a guide and information assistant. High school students have also used the robots to teach younger students how to operate them, creating cross-age peer learning.
Recognizing the emerging demand for shared resources among teachers, a "STEAM Education Co-creation Community" has been established and is run with backing from prefectural education boards and school principals. Members contribute and access lesson plans and program code, reducing the burden on individual teachers who would otherwise design courses from scratch. The initiative is positioned as aligned with the education ministry's N-E.X.T High School vision, which seeks to develop three core competencies—problem-solving ability, creativity, and applied thinking—to cultivate future "change-makers" for the Society 5.0 era. Support is provided through a dedicated customer center that handles initial inquiries and troubleshooting for both hardware and software, eliminating the need for schools to identify and contact separate vendors.
The article identifies a structural problem in Japanese STEAM education: despite the GIGAスクール initiative providing one device per student, teachers leading STEAM and information education face mounting barriers—equipment selection and setup, gaps in specialist knowledge, and difficulty designing lessons—that paradoxically force dedicated educators to step back from teaching itself. The temi package addresses this by moving beyond the typical model of teaching technology as an isolated skill. Instead, it frames robotics as a vehicle for problem-solving grounded in real community and social challenges. The curriculum scaffolds learning across four stages: foundational robot operation (about 20 hours), problem-solving tied to daily life (10–15 hours), and service or social implementation (5–10 hours), with a no-code programming interface (Buddiotte) removing technical friction.
The infrastructure bundle—hardware, software, network (P-BOX), and training—consolidated into one package with three-year transparent pricing is designed to ease administrative burden. A dedicated support center handles both hardware and software issues centrally, so schools do not have to hunt for multiple vendors. Equally important is the emergence of the "STEAM Education Co-creation Community", which pools lesson plans and code across schools and prefectures, effectively redistributing preparation work so that individual teachers are not building curricula in isolation. This community structure aligns with the education ministry's N-E.X.T High School Initiative, which aims to cultivate problem-solving ability, creativity, and applied thinking to nurture "change-makers" for Society 5.0.
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