Atom — Tokyo, 2024

The hands Japan's factories were waiting for.

29 degrees of freedom. Compliant actuation at every joint. Demonstration-based task loading that takes hours, not weeks. Built for the manual workcells Japan's fixed-arm automation cannot reach.

The Problem

Japan faces a structural labour gap that fixed automation cannot fill.

13M+

Manufacturing positions projected at risk of vacancy by 2030 as Japan's working-age population contracts

— METI projections

47%

Of logistics operators report chronically unfilled floor positions despite competitive compensation

— Industry estimates

<30%

Of factory tasks addressable by fixed-arm automation — irregular objects, multi-step sequences, and spatial constraints block the rest

— Industry estimates

The Gap

What fixed arms were never built to do

Fixed-arm robots transformed precision manufacturing, but they depend on parts arriving the same way, every time. The moment geometry changes — a new component, an irregular object, a task that requires a second reach — they stop.

Factory floors are full of these moments. Subassembly transfer. Bin-picking from unsorted trays. Quality-check repositioning. Multi-step sequences no one thought to program.

  • Irregular and non-standard object handling
  • Multi-step pick-place-rotate sequences
  • Spatial constraints that change shift to shift
  • Tasks requiring bilateral arm coordination

Fixed-arm automation requires parts to arrive in a predictable orientation. Everything outside that envelope is manual work — the work Atom is built for.

Specifications

Prototype-stage hardware, built for real environments

Plausible engineering targets at current development stage. Final production specifications subject to change.

Height

170

cm standing

Payload

10

kg continuous carry

Battery

4

hr continuous operation

Degrees of Freedom

29

total articulated joints

Safety

Designed to work alongside people, not cage them out

ISO 10218 Design Pathway

Atom is designed with ISO 10218 collaborative robot requirements as a guiding framework — force limits, speed constraints, and physical separation protocols built into the architecture from day one, not retrofitted.

Collision-Detection Cutoff

Proprioceptive torque sensors detect unexpected contact within milliseconds. The robot decelerates to a controlled stop on any force exceedance — no external proximity barriers required for normal operation.

Field Override Protocol

Floor supervisors can pause, redirect, or shut down any unit via handheld device or floor-mounted emergency stop. No network connection required for the safety cutoff pathway.

Full Safety Architecture

The Team

Engineering-first from day one

Shunsuke Aoki, Co-Founder and CEO of Atom

Shunsuke Aoki

Co-Founder & CEO

Five years studying whole-body motion planning for humanoid systems at an industrial robotics research institution in Tokyo. Left to found Atom in 2024 when the gap between research capability and factory-floor deployment became a problem he could do something about.

Keiko Tanabe, Head of Mechanical Engineering at Atom

Keiko Tanabe

Head of Mechanical Engineering

Designs Atom's joint architecture and kinematic chain. Background in series elastic actuator development for precision automation — the mechanical foundation of Atom's whole-body compliance.

Hiroshi Watanabe, Lead Perception Engineer at Atom

Hiroshi Watanabe

Lead Perception Engineer

Built Atom's multi-modal perception stack: structured-light depth, RGB classification, and fingertip tactile fused into a single scene graph. Prior work on point-cloud processing for industrial bin-picking under occlusion.

Meet the full team

Get in touch

Ready to put Atom to work?

Tell us about the workcell. Your floor geometry, your part types, your labour challenge. We will tell you honestly whether Atom is the right fit — or not. We read every message.

Request a Briefing