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MAGPIE Autonomous e-Barge demo

Autonomous e-barges use electric, self-navigating vessels and cranes to enable efficient, zero-emission container transport in ports. This is demo 6 of the MAGPIE project.

Automation

Introduction

The autonomous e-barge concept, also referred to as "Kiss and Ride," explores the use of fully electric, autonomous barges and cranes to streamline container transshipment in port environments. This demonstration aims to simulate and validate the potential of autonomous inland shipping and terminal operations to reduce operational costs, improve efficiency, and support the transition to zero-emission logistics. The concept includes autonomous mooring, crane operations, and vessel navigation, with a focus on short-distance container transport between terminals. While full-scale deployment is expected beyond 2040, the current phase includes simulations, small-scale demonstrators, and proof-of-concept trials on existing vessels. This factsheet outlines the value proposition, applicability, technical solution, and implementation roadmap for autonomous e-barges in port logistics.

Value proposition

  • Simulation will demonstrate port performance improvements.

  • Autonomous barges and cranes can speed up transshipment and reduce operational costs.

  • Larger upfront investment is offset by lower operational expenditure.

  • Potential to transport more containers with fewer delays.

  • Lower operating costs

Problem: • Economic constraints due to budget competition with other demos, inflation, and unclear financial decision-making authority. • Regulatory hesitance around permits for full autonomy. • Stakeholder challenges including missing actors, low motivation, coordination issues, and cultural/language barriers. • Lack of cohesive leadership and directionality. • Technological maturity and relevance questioned. • Large upfront investment.

Port applicability

• Large Container Ports/Hub Ports: Applicable where inland or inter-terminal container traffic is present and multiple terminals are involved per trip • Industrial Ports: Applicable if they support autonomous vessel operations and have inland or short-sea logistics • Smaller/Regional Ports: Potentially applicable if they are part of a connected terminal network and support automation

Detailed description of the solution

  • Simulation of the concept to assess economic and logistical feasibility

  • Integration of tug/pushbarge pickup

  • Development of autonomous crane models and small-scale demonstrators

  • Proof of autonomy on existing vessels

  • Autonomous mooring systems

  • Communication protocols between autonomous and conventional vessels

  • The solution is designed to reduce cycle times, increase cargo throughput, and eliminate the need for onboard crew. It is currently in the simulation and proof-of-concept phase, with full deployment expected post-2040.

Impact

Impact level per aspect
ImpactLevelRemark
Energy EfficiencyMedium impact
Electric propulsion reduces energy consumption compared to diesel
GHG emissionsMedium impact
Expected reductions through electrification and improved logistics
Pollutant emissionsMedium impact
Lower emissions due to electric operation
SafetyMedium impact
Autonomous systems reduce human error but require robust communication and control systems
Port CityMedium impact
Supports cleaner, quieter operations and reduces congestion
Simultaneous cargo pickup reduces delays and improves logistics performanceMedium impact

Port characteristics

• Need: Inland or inter-terminal shipping routes, multiple terminals per trip • Affects: Infrastructure planning, regulatory frameworks, and stakeholder coordination

Barriers and enablers

Enablers

  • Non-technologicalEnabler

    Inland shipping infrastructure and support for automation

  • TechnologyEnabler

    Proof-of-concept trials and simulation tools

Barriers

  • Non-technologicalBarrier

    Stakeholder motivation, coordination, cultural differences, lack of co-ownership. Lack of flexibility at EU level.

  • TechnologyBarrier

    Technological maturity, outdated perceptions, legal frameworks for autonomy

How to implement?

  1. Step 1

    Simulation and modelling

  2. Step 2

    Small-scale demonstrators

  3. Step 3

    Proof of autonomy on existing vessels

  4. Step 4

    Gradual scaling toward full deployment post-2040

Implementation interdependencies

Requires coordination between technology providers, port authorities, terminal operators, and regulators. Autonomous barges need to communicate with regular barges and ships. One standard would be preferable.

Required involved stakeholders

  • Port authority

    Oversees infrastructure and regulatory alignment

  • Terminal operators

    Coordinate autonomous loading/unloading

  • Shipping lines

    Operate autonomous barges

  • Technology providers

    Develop autonomous systems and integration tools

  • Engineering and construction firms

    Support infrastructure upgrades

  • Classification societies

    Certify autonomous systems

  • National and international regulators

    Define legal frameworks for autonomy

  • Financial institutions/investors

    Fund development and deployment

  • Research and development institutions

    Support simulation and testing

  • Workforce representatives/ unions

    May be involved in transition planning

Knowledge base and references