01 / Overview
About the challenge
The Singapore Embodied AI Challenge for Manufacturing at RoboSG! 2027 evaluates physical AI through collaborative robotic assembly. Teams develop systems that perceive, reason, manipulate and adapt in the real world.
The challenge focuses on physics understanding, dexterous manipulation, long-horizon reasoning and generalisation in an industrial assembly setting.
02 / Competition
Challenge format
Develop, test and evaluate solutions online.
All registered teams will be granted access to a full-stack simulation platform, pre-built baselines, and high-quality simulation datasets to accelerate solution development.
Finalists compete on standard robotic platforms provided at the venue. Shortlisted teams based overseas may be eligible for travel subsidy.
Finalist teams shortlisted for the Singapore onsite finals will be provided with dedicated real robot hardware and high-performance computing resources for local model deployment, fine-tuning, and evaluation.
Supported robotic platform: GalBot G1. Final platform and technical details remain subject to official confirmation.
03 / Evaluation
Rules, Tasks and Scoring
Singapore Embodied AI Challenge for Manufacturing (SEA Challenge)
Advancing embodied AI for industrial robotic manipulation, semiconductor manufacturing automation, and sim-to-real robot intelligence.
Competition Rules
Overview
The Singapore Embodied AI Challenge for Manufacturing (SEA Challenge) aims to accelerate the development of embodied AI technologies for industrial robotic manipulation and autonomous manufacturing operations.
The challenge consists of two evaluation phases:
- Simulation Evaluation Phase
- Physical Robot Evaluation Phase
Participants are required to develop robotic policies capable of completing realistic semiconductor chamber maintenance tasks in simulation. Top-performing teams may be invited to participate in subsequent physical robot evaluations.
Eligibility
The challenge is open to:
- Universities and research institutes
- Start-ups and companies
- Independent research teams
- Public-sector organizations
Additional eligibility requirements and participation terms will be published separately.
Submission Requirements
Teams must submit a Docker container image containing:
- Policy implementation
- Model weights
- Runtime dependencies
- Required configuration files
All submitted systems must operate without external network access during evaluation.
General Evaluation Requirements
- All teams are evaluated using identical simulator configurations.
- All policies must operate within published resource limits.
- Internet connectivity will be disabled during evaluation.
- External API calls and runtime downloads are prohibited.
- All runtime dependencies and model weights must be packaged within the submitted container.
Task Definition
Overview
Participants must develop an autonomous robotic policy capable of performing a complete chamber maintenance and component replacement workflow representative of semiconductor manufacturing operations.
Task Workflow
The robot must complete the following sequence:
- Open Chamber
- Remove Existing Component
- Pack Removed Component
- Clean Chamber Interior
- Install Replacement Component
- Close and Secure Chamber
Task Environment
The environment includes:
- Chamber assembly
- Chamber lid
- Installed component
- Replacement component
- Storage box
- Wiping tool
Detailed geometry, dimensions, masses, friction coefficients, sensor specifications, and success tolerances will be published with the official simulator release.
Subtasks
Subtask 1 – Open Chamber
Goal: Remove the chamber lid.
- Securely grasp the chamber lid.
- Lift the lid above the required clearance threshold.
Subtask 2 – Remove Existing Component
Goal: Extract the installed component.
- Securely grasp the component.
- Remove and transport it beyond the specified extraction distance.
Subtask 3 – Pack Component
Goal: Place the removed component into the designated box.
- Position the component above the box opening.
- Release and successfully place the component inside the box.
Subtask 4 – Clean Chamber Interior
Goal: Clean all required chamber surfaces.
- Pick up the wiping tool.
- Wipe all required sampling points within the chamber.
Required Cleaning Locations
| Location | Required Contact Points |
|---|---|
| Chamber Floor | 8 |
| Side Wall A | 3 |
| Side Wall B | 3 |
| Side Wall C | 3 |
| Side Wall D | 3 |
| Total | 20 |
Subtask 5 – Install Replacement Component
Goal: Install the replacement component.
- Retrieve the replacement component from its box.
- Install it within the required placement tolerance.
Subtask 6 – Close and Secure Chamber
Goal: Restore the chamber to operational state.
- Pick up the chamber lid.
- Reinstall and secure the lid within required tolerances.
Evaluation & Scoring
Scoring Overview
The task consists of six subtasks. Each subtask contains:
- Intermediate Milestone (1 point)
- Completion Milestone (1 point)
Maximum Score: 12 Points per Episode
Scoring Matrix
| Subtask | Intermediate Milestone (1 Point) | Completion Milestone (1 Point) |
|---|---|---|
| Open Chamber | Securely grasp lid | Lift lid clear of chamber |
| Remove Existing Component | Securely grasp component | Extract component from chamber |
| Pack Component | Position component above box opening | Place component inside box |
| Clean Chamber | Pick up wiping tool | Complete wiping requirements |
| Install Replacement | Retrieve replacement component | Install component at target position |
| Close Chamber | Pick up chamber lid | Reinstall and secure lid |
Score Calculation
Episode Score =
Sum of all successfully achieved milestones
Minimum Score = 0
Maximum Score = 12
Each milestone may only be credited once per episode. Repeated completion of the same milestone will not generate additional points.
Manual Intervention Rules
Controlled manual intervention may be used to allow evaluation of subsequent subtasks when a policy is unable to progress.
Key Principles
- Manual intervention earns no points.
- Skipped milestones receive no score.
- Future milestones remain eligible for scoring.
- The robot may continue earning points after intervention.
Example
If an evaluator manually places a component above the box and the robot subsequently releases it into the box:
| Milestone | Score |
|---|---|
| Position Above Box | 0 |
| Place Component Inside Box | 1 |
Only robot-achieved milestones are eligible for scoring.
Evaluation Outputs
The evaluator will report:
- Episode score (0–12)
- Milestone outcomes
- Completion timestamps
- Episode duration
- Intervention records
- Termination reason
Milestone Status Categories
- Robot Achieved
- Manually Supplied
- Skipped
- Failed
- Not Attempted
Competition Ranking
Teams will be ranked based on their official evaluation results. Detailed ranking methodology, tie-break rules, and aggregation procedures will be published prior to the official evaluation phase.
Reported Performance Metrics
- Average task score
- Per-milestone success rates
- Fully autonomous task completion rate
- Manual intervention frequency
- Evaluation reproducibility
Awards
The top six teams will receive monetary awards. Prize amounts and conditions will be confirmed in the official rules.
04 / Practical information
Participation and resources
- Teams bring their own laptops or computers for development, testing and deployment.
- Teams do not need to bring a physical robot. Standard robotic platforms will be provided onsite.
- A baseline compute allocation is planned. Teams may use local or cloud compute beyond that allocation.
Teams from universities, research labs, companies and independent groups are welcome to register their interest. Final eligibility requirements and resource allocations will be published with the official rules.
To receive participation updates, use the register interest link on this page. The registration deadline has not yet been announced. Read the registration and participation FAQs and check the competition dates before planning your submission.
05 / People
Organising team
The challenge is organised by Nanyang Technological University, A*STAR and National Robotics Programme.
- A/Prof Ziwei Wang, NTU
- Dr Haichao Liu, NTU
- Dr Pey Yuen Tao, A*STAR
- Dr Teo Chek Sing, A*STAR
- Dr Yan Shijun, A*STAR
Title sponsor: Micron. Event sponsors: GalBot and Infineon. Technology partners: Lightwheel and NSCC.