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Remote control and shore control

Remote vessel operation means that a qualified operator ashore monitors or controls an inland vessel from a Remote Operations Centre (ROC).

AutomationInland shipping

Introduction

Remote vessel operation means that a qualified operator ashore monitors or controls an inland vessel from a Remote Operations Centre (ROC). Cameras, radar, AIS, positioning and machinery data reproduce the information normally available in the wheelhouse. Remote operation is not the same as autonomous sailing: the navigational task remains with a person. This factsheet focuses on inland shipping, where commercial applications and national approval processes are developing most directly.

Value proposition

  • Greater workforce flexibility

  • Improved work-life balance

  • Possible response to shortages of qualified boat masters

Remote operation can relocate navigation work from the vessel to shore and allow qualified operators to support one or more vessels within approved limits. The main value is greater workforce flexibility, improved work-life balance and a possible response to shortages of qualified boat masters. It can also support longer operating windows when permitted. The operation of the vessel and port call does not fundamentally change, so direct port-efficiency and safety gains are limited. Benefits depend on reliable connectivity, clear handover between onboard and remote control, competent operators and safe fallback arrangements.

Port applicability

Remote-controlled inland vessels are most likely on regular routes and within defined operating areas. Ports do not need to prioritise the technology but can facilitate it where it strengthens inland-shipping capacity or supports their own service vessels. Ports with dense or complex traffic need additional interaction and emergency procedures. Reliable coverage must include sufficient bandwidth, low latency and redundancy across multiple communication services so that loss of one connection does not immediately remove operational control.

Groups of innovations

  • Remote Operations Centres

    Shore-based facilities reproduce wheelhouse information and allow qualified remote operators to monitor or control vessels. A ROC can be outside the port, subject to national approval and jurisdiction. Timing: commercially available in selected inland operations. Pros: central expertise and shore-based work. Cons: authorisation, workload, liability and cross-border handover remain challenging.

  • Redundant ship-to-shore connectivity

    Mobile, radio or satellite links transmit commands, video and sensor data between the vessel and ROC. Timing: immediate. Pros: enables continuous remote operation. Cons: cyber risk, coverage gaps and insufficient bandwidth require independent backup links.

  • Sensor fusion and situational awareness

    Radar, AIS, cameras, positioning and machinery data create the remote operational picture. Timing: short to medium term. Pros: supports remote decisions. Cons: data quality, availability and blind spots remain important.

  • Control handover and fallback

    Procedures define when control transfers between onboard crew and the ROC and what happens after connection or system failure. Timing: immediate. Pros: clarifies authority and limits consequences. Cons: technically and operationally complex.

  • VTS interaction

    Agreed communication and reporting procedures help VTS understand vessel status and contact the responsible operator. Timing: short term. Pros: supports mixed traffic. Cons: roles and data needs differ between ports and jurisdictions.

  • Simulation and operator training

    Simulators test normal, degraded and emergency operations before approval. Timing: immediate. Pros: builds competence and evidence. Cons: common training and certification requirements are still developing.

Impact

Impact level per aspect
ImpactLevelRemark
Level of automationLarge impact
Navigation moves ashore, but a qualified person remains responsible.
Port efficiencyNo impact
The port operation itself changes little; benefits mainly concern vessel deployment.
SafetyLimited impact
May reduce exposure for service vessels, but introduces connectivity and human-factor risks.
Human capitalLarge impact
Creates shore roles and may improve workforce flexibility.
Digital port ecosystemMedium impact
Requires reliable communications and clear interfaces with VTS.
Inland shipping capacityMedium impact
Can support longer operating windows and address staff shortages where permitted.

Port characteristics

Ports may facilitate remote operation when regular inland-shipping services or port-owned workboats create a credible use case. Relevant conditions are reliable multi-operator telecommunications, a VTS or harbour-master organisation able to manage mixed traffic, and cooperation with waterway and national authorities. Traffic density, bridges, locks, currents and coverage gaps determine the operational limits. Cross-border routes are more complex because approvals, ROC location requirements and handover rules may differ between jurisdictions.

Barriers and enablers

Enablers

  • DirectionalityEnabler

    The MASS Code and active pilots support further development.

  • TechnologyEnabler

    Core sensors, automation and communication systems are available.

  • Standards & regulationEnabler

    The voluntary IMO MASS Code provides direction, but binding rules and detailed training standards are still developing. In inland shipping regulations, remote operation with reduced crew is not allowed

Barriers

  • EconomicBarrier

    Remote infrastructure and vessel integration require investment, while early demand is uncertain.

  • KnowledgeBarrier

    Remote operators and port staff need new competences and practical experience.

  • Stakeholder interactionBarrier

    Safe operations require close coordination between ship, ROC, port, pilots and authorities.

  • InfrastructureBarrier

    Redundant connectivity with guaranteed bandwidth and secure vessel interfaces is essential.

How to implement?

  1. Step 1

    Select suitable vessels, routes and operations

  2. Step 2

    Align ports, operators, VTS and authorities

  3. Step 3

    Upgrade connectivity, cybersecurity and procedures

  4. Step 4

    Test remote operations and emergency scenarios

  5. Step 5

    Expand proven solutions to more operations

  6. Step 6

    Embed shore control into regular port operations

Timeline

The arrow below represents the expected development of the TRL of remote control and shore control.
* Technical Readiness Level

What should a port do in the next 3 years?

A port should identify whether remotely operated inland vessels or port-owned service vessels are likely to use its waters. It should map communication coverage from multiple providers and assess VTS procedures for identifying the active vessel controller. Together with operators and authorities, it should define reporting, handover and emergency arrangements. Ports can support a simulation or controlled trial, but major infrastructure investment should follow only when there is a clear use case.

Investment overview

CAPEX: Investments may include communication networks, VTS upgrades, sensors, data platforms, cybersecurity and simulation facilities. Dedicated ROC costs are often carried by vessel operators, but ports may need secure interfaces and monitoring capacity. OPEX: Operational costs include connectivity, software, system monitoring, maintenance, cybersecurity, training and exercises. Ports may also need specialist staff for approvals, data management and operational coordination.

Stakeholder overview

Below is an overview of the required involved stakeholders. Vessel owners and ROC operators develop the operational concept and define the handover between onboard and remote control. Port authorities, harbour masters and VTS organisations coordinate local traffic and emergency procedures within their mandates. National shipping and waterway authorities approve operations and any exemptions. For Rhine and European inland navigation, the CCNR, CESNI and European Commission influence the wider regulatory and technical framework. Telecom providers, technology suppliers, classification societies, insurers, emergency services and training institutes support connectivity, assurance and competence.
Blue stakeholders are essential, white stakeholders are enabling

Knowledge base