We make data collection cheaper, so you can focus on training robots.

HandUMI is one of the tools that makes this possible.

$110.68per capture unit
276.5 ghand-worn device
5target grippers
1-2 wkpilot turnaround

01 / Problem

Robotics is data-constrained.

Training a manipulation policy takes 300 to 1,200 high-quality demonstrations per task. Most teams still collect them by teleoperating a robot, at over $100 per usable hour.

General-purpose robots require general-purpose human data.
  • Teleop demos tie up robots needed for validation.
  • Teleop rigs degrade bimanual and tool-use quality.
  • Raw recordings still need sync, labels, and QA.
  • Robot-bound collection makes task variation expensive.

02 / Solution

Collect from humans. Keep robots for validation.

Human demonstrations are several times more sample-efficient than teleoperation, and a few hundred well-curated demos now beat thousands of mediocre ones. The winning move is better data, collected off-robot.

RoboNet captures demonstrations with HandUMI, collects with trained operators in Peru, and delivers QA-reviewed, policy-ready datasets without tying up robot arms for every run.

HandUMI Collection

Open-source, hand-worn UMI variant for collecting bimanual manipulation data without a robot in the loop.

Capture layer

Dataset Pilots

Start with one task and validate signal quality, labels, and training usefulness.

Pilot dataset

Peru Data Operations

Lower-cost collection nodes with standardized protocols, QA, and versioned releases.

Versioned batches

03 / Why HandUMI

HandUMI is the first node in the RoboNet data network.

HandUMI is a hand-worn, open-source UMI variant for bimanual arms with parallel-jaw grippers. It mounts on the operator's thumb and index or middle fingers, opens and closes with a natural pinch, and swaps printable gripper tips for different robot targets.

  • 276.5 grams
  • $110.68 per unit
  • Direct gripper-width sensing from a Feetech servo encoder
  • Wrist-view fisheye USB camera
  • PICO 4 Ultra or Meta Quest 3 tracking with wrist trackers
  • Supported tips: AgileX Piper, ARX X5 2023, Dream Gripper TRLC, Trossen WidowX AI, and UMI Gripper
HANDUMI / DATA_NODE
WS://CONNECTED

04 / How it works

Start with one task. Scale after the data proves useful.

  1. 01

    Define the task.

    Tell us the manipulation behavior your robot needs to improve.

    Task brief
  2. 02

    Design the capture protocol.

    We define objects, setup, success criteria, labels, metadata, and delivery format.

    Capture protocol
  3. 03

    Collect demonstrations.

    Trained operators collect demonstrations through the HandUMI workflow.

    Session capture
  4. 04

    QA and package the dataset.

    We review signals, labels, metadata, and package a versioned dataset.

    QA report
  5. 05

    Evaluate and expand.

    Your team evaluates the pilot, then we expand if the data is useful.

    Versioned dataset

05 / Final vision

Full-body capture. Any embodiment.

The near-term wedge is bimanual manipulation data. The long-term RoboNet vision is a distributed network for full-body human data that can train humanoids, bimanual arms, mobile manipulators, and future robot embodiments.

  • One data network, many robot embodiments.
  • Embodiment-aware retargeting from human motion to robot policies.
  • Standardized capture rigs, schema, validation, and long-term expansion.
RoboNet full-body capture vision mapped from human demonstrations to multiple robot embodiments

06 / Use cases

Built for the manipulation tasks where generic data falls short.

Home service robots

Capture chores such as tidying, laundry handling, dishwasher loading, table clearing, and object retrieval in real home-like layouts.

Robot foundation models

Build broad human hand/object interaction datasets for embodied AI systems that need manipulation priors across tasks, objects, and environments.

Warehouse and fulfillment

Collect picking, packing, kitting, sorting, box assembly, container unloading, and long-tail SKU interaction data.

Back-of-house operations

Record repetitive packing, portioning, replenishment, bagging, staging, and delicate item handling tasks for deployable robot workers.

Lab and biotech automation

Capture vial handling, rack loading, instrument-adjacent movement, sample transfer, disposal workflows, and protocol-driven bench tasks.

Industrial workcells

Collect demonstrations for high-mix factory tasks, workstation loading, assembly support, inspection, finishing, and repetitive manual workflows.

Caregiving and assistive robotics

Record daily-living support tasks such as fetching, feeding-adjacent handling, dressing assistance, medication staging, and mobility support objects.

Infrastructure and field operations

Capture inspection, maintenance, tool handoff, part handling, and constrained-space manipulation for sites where downtime is expensive.

FAQ

Common pilot questions.

RoboNet collects task-specific manipulation datasets for robot learning teams using HandUMI and QA-reviewed workflows.

The main offer is data collection. HandUMI is the capture layer that enables the workflow.

Human demonstrations are more sample-efficient than teleoperation for the same collection time, and they capture natural dexterity that teleop rigs degrade. HandUMI keeps the robot out of the collection loop so robot hardware can stay focused on validation and embodiment-specific tuning.

The current printable tips target AgileX Piper, ARX X5 2023, Dream Gripper TRLC, Trossen WidowX AI, and UMI Gripper. Comparable parallel-jaw grippers can be supported by designing and printing a matching tip.

RoboNet combines Peru-based operations, lower facility costs, and lower-cost HandUMI hardware.

No. The model is built around cost-efficient quality: SOPs, calibration, task protocols, operator training, metadata, labels, QA review, and dataset acceptance criteria.

Yes. The recommended starting point is one task, one capture protocol, and a focused pilot dataset your team can evaluate before scaling.