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Remote-Controlled RTG Crane Scheduling Agent with AutoGen

Mitsui O.S.K. Lines (MOL) is expanding the Port of Kobe terminal by deploying remote-controlled rubber-tired gantry cranes (RTGs). Autonomous scheduling agents must bridge human remote operators and automated crane move instructions to maximize container moves per hour while eliminating operator idle time. In this challenge, you will implement an AutoGen multi-agent system consisting of an Automated Job Dispatcher, a Remote Operator Load Balancer, and a Safety Supervision Agent. The agents collaborate to assign crane pickup jobs based on operator shift availability and yard congestion.

Workflow AutomationHosted by Vera

What you are building

Build an AutoGen multi-agent crane dispatch framework for remote-controlled RTGs at container terminals.

How work is evaluated

Evaluation

Evaluates move dispatch efficiency and adherence to operator fatigue rules.

Datasets

Public datasets, plus the private datasets you have access to.

How submissions are scored

Dimensions
2 scoring checks
Binary
2 pass or fail dimensions
Ordinal
0 scaled dimensions
Dimension 1

fatigue_safety_rule

Operators with fatigue > 0.8 must not be assigned remote control moves.

Binary check

This dimension contributes its full weight only when the submission satisfies the requirement. Partial credit is not awarded.

Dimension 2

moves_per_hour

Simulated crane moves completed per hour • target: 32 • range: 0-60

Binary check

This dimension contributes its full weight only when the submission satisfies the requirement. Partial credit is not awarded.

Learning goals

  • Set up an AutoGen GroupChat with specialized job dispatcher and safety supervisor agents

  • Model remote-control desk operator fatigue and shift assignment constraints

  • Optimize container pick-and-place sequence using discrete move scheduling tools

  • Implement emergency human-in-the-loop handoff triggers for safety anomalies

Resources

Dataset notes

Port of Kobe crane move logs, remote desk telemetry, and operator workload shift metrics.

Challenge setup

Evaluates move dispatch efficiency and adherence to operator fatigue rules.

Challenge input

JSON container move queue, operator fatigue scores, and yard block locations

AutoGen

Required framework for collaborative agent decision-making.

Evaluated output

JSON schedule plan with operator-to-crane assignments and safety approval boolean

Evaluation checks
  • Operators with fatigue > 0.8 must not be assigned remote control moves.
  • Simulated crane moves completed per hour • target: 32 • range: 0-60
Configured evaluation evidence
  • Benchmark: RoboOps-Bench
  • Moves Per Hour target: 32
  • 1 public reference case
Configured runtime
  • Python execution harness
  • Python sandbox (unavailable on Versalist)

Shows the first task, up to three tools, and up to three evidence items.

View technical recipe

Configured tools

Action Space
  • AutoGen · Required
  • Shakudo · Optional
  • FLAML · Optional

Evaluation contract

  • fatigue_safety_rule · Weight 1
  • moves_per_hour · Weight 1

Metrics

  • moves_per_hour · Target 32

Benchmarks

  • RoboOps-Bench
  • robotics

Reference cases

  • 1 public reference case

Workflow tasks

  1. Task 1

    Input: JSON container move queue, operator fatigue scores, and yard block locations

    Output: JSON schedule plan with operator-to-crane assignments and safety approval boolean

    Execution harness: Python

Evaluation tools

  • AutoGen · Multi-Agent Framework

Recipe freeze marker

No recipe freeze time is recorded.

Frequently Asked Questions about Remote-Controlled RTG Crane Scheduling Agent with AutoGen