B⋮CONNECT · REMOTE VESSEL & FLEET VISIBILITY
Extend selected vessel data to shore-side monitoring, history, alerts and fleet visibility through an engineered B⋮Connect project.
Single vessel or fleet · new or existing system
From vessel to shore team
A technical or fleet manager may need selected vessel information between visits: a system’s reported state, the context around an alert, or a history that helps prepare the next conversation with the crew. The requirement begins with that decision, not with a request to expose every onboard signal. Define who needs the information, why it is useful and how it will be interpreted.
A single yacht may need a limited shore-side technical view. A commercial operator may need an overview across several connected vessels. Both depend on the quality and availability of onboard sources. Remote visibility can support technical coordination, but the crew’s onboard systems and procedures remain responsible for vessel operation and immediate alarm response.
TESS assesses the path from the source equipment to the authorized shore user. That includes interface feasibility, connectivity and access requirements, as well as the practical work required onboard. The assessment should distinguish an achievable data scope from missing signals or an onboard system that first needs repair or modernization.
Identify selected status and measurements that help the shore team understand the vessel’s reported condition. Agree the context needed to interpret them, including the source and the significance of data that is old, absent or unavailable.
Use available history and notifications to support discussions with the crew and prepare a technical review. Remote information provides context; it is not a diagnosis guarantee and should not be presented as automatic fault prediction.
Define which connected vessels and common information categories should be visible together. Different installed systems may provide different coverage. A fleet view must preserve those differences rather than imply that every vessel exposes the same data.
B⋮Connect is Böning’s optional remote layer for selected vessel information and fleet visibility. Where supported and configured, it can provide browser/mobile visibility, cloud-based information handling, historical information, notifications and fleet or position context. The delivered functions depend on the selected configuration, connected sources and agreed project scope.
B⋮Connect does not replace the onboard monitoring and automation architecture. B⋮MACS is not automatically cloud-connected, and B⋮Connect is not mandatory for every B⋮MACS installation. A remote project may start from an existing Böning environment or another technically suitable source arrangement, subject to interface assessment.
The commercial offer is a remote vessel and fleet monitoring assessment. It is not a consumer tracker, AIS information service, fishing VMS or satellite-connectivity package. It also does not assume unrestricted remote machinery operation. The central question is which selected technical information can be made available to the right people ashore.
The source equipment must first provide usable information to an onboard monitoring or automation system. A supported interface or gateway then makes the agreed data available through the vessel’s connectivity arrangement to B⋮Connect. An authorized user accesses the configured information. Each stage has its own dependencies and responsibilities.
This chain helps identify the real limit in an enquiry. A shore dashboard cannot create a missing sensor value. A gateway cannot establish access to undocumented proprietary data by itself. A cloud service cannot provide current information when the vessel’s connection is unavailable. The project must define how these conditions are understood by users and handled within the agreed scope.
The diagram is conceptual and does not prescribe a network design. Actual interfaces, connectivity, access controls and responsibilities require project engineering. Any command requirement would need a separately defined and verified scope; it cannot be inferred from the presence of a remote data path.
Conceptual B⋮Connect remote architecture
Start with a selected-data schedule. Machinery information, alarms and status, tank information, selected electrical/system data and position or navigation-related context may be candidates where the source and configuration support them. These are categories for assessment, not a guarantee that each value exists on every vessel.
For each requested item, establish the source system, its meaning, availability and intended use ashore. The technical manager should know whether a displayed value is a direct measurement, a state reported by another controller or another defined source. That context matters when comparing conditions across time or across vessels.
Select the information relevant to the technical task. Confirm that the installed monitoring or equipment interface can provide it and that the shore-side presentation preserves its meaning. Do not infer equipment command capability from status visibility.
Assess available conditions and measurements individually. A remote list can be limited to agreed priorities or systems. Sensor condition, source configuration and the definition of each item influence whether it is suitable for the intended use.
Where supported and configured, position or route context can help relate technical information to vessel activity. It does not turn this service into general AIS tracking or establish continuous, exact position availability under every connectivity condition.
The shore user needs a view that answers a practical question: which vessel, which system and which information require attention. Browser or mobile access can provide that visibility where supported by the chosen configuration. A project should define the intended users and the information they need, rather than assume one view is suitable for every role.
Agree meaningful names, system grouping and the interpretation of status information. The user should be able to distinguish a reported equipment state from a lack of available information. Where an operator needs a comparison or overview, confirm that the proposed data and configuration can support it before treating it as a delivered function.
Define remote-monitoring views around verified onboard data sources, supported interfaces, connectivity and the information needed by authorized shore users. Review the selected configuration with those users and validate the available data and its presentation before accepting the remote scope.
Historical information can help a technical team review how selected values or states changed before a discussion or service visit. B⋮Connect capability information includes history of up to three years where applicable. That duration must be confirmed for the selected product/configuration; it is not a universal retention guarantee independent of the project.
Define which historical information is required, what period is useful and how users expect to retrieve it. Data-export needs should be included in the assessment and confirmed against the applicable product functions and permissions. Do not assume an export format, completeness or availability that has not been established for the proposed configuration.
The source and connectivity history matter. Missing onboard data or an interrupted connection can affect what is available for review. Scope definition should clarify relevant behavior and limitations with the OEM, then include appropriate checks in user acceptance. Historical visibility supports review; it is not a promise of predictive maintenance or automatic diagnosis.
Selected conditions may generate notifications according to the configured system. Begin by defining which information is useful to the shore team, which users should receive it and what action or coordination is expected. Not every onboard alarm needs to become a shore notification, and not every source alarm is automatically available to the remote layer.
Notification functions and any channels must be confirmed for the selected configuration. The project should establish the responsible user group and verify the agreed conditions during testing. An alert reaching a shore user does not transfer the crew’s immediate operational responsibilities or establish a remote command function.
Remote notifications do not replace onboard alarms. Connectivity, configuration and source availability affect remote visibility; vessel alarm and safety systems remain authoritative.
For several connected vessels, a fleet overview or map can provide a useful route into selected technical information where the product configuration supports it. Position and route context may help a technical team understand vessel activity alongside available system data. The scope must establish which vessels, data categories and users are included.
A fleet is rarely one uniform installation. One vessel may offer an existing automation interface while another needs additional engineering or onboard work. Compare source coverage before promising common views or identical information. Phasing the rollout can help establish a representative configuration and validate how differences between vessels are presented.
Position visibility is conditional on supported source information and the configured remote path. This is technical vessel and fleet monitoring, not the sale of GPS trackers, general AIS data or a replacement for navigational systems. The operator should understand what the remote context can and cannot establish.
B⋮MACS is not mandatory in every possible B⋮Connect project. Existing or third-party source systems may be assessed where a supported interface can expose the selected information. Compatibility depends on the actual signals or protocols, documentation, access rights, equipment configuration and project requirements; a manufacturer name alone is insufficient.
Prepare a source inventory and available system/network drawings. Identify who can provide interface documentation and configuration access, and which functions must remain isolated. An interface assessment should resolve whether the information is available, what additional work is required and which limitations need to be reflected in the remote scope.
For the wider automation environment of a yacht: Yacht onboard architecture →
For a commercial vessel’s onboard project: Working-vessel onboard architecture →
If unsupported onboard sources need lifecycle work before a remote extension: Böning automation modernization →
If the real problem is unreliable onboard measurement or an alarm channel: Alarm, monitoring and sensor support →
Remote visibility depends on the vessel’s connectivity. Establish the connection available to the project, its operational constraints and the parties responsible for service and support. B⋮Connect integration does not itself supply universal global coverage or include a satellite service. The assessment should confirm how the selected configuration behaves when information cannot reach shore.
Define who may access which vessel information and how access is granted, reviewed and removed. Credentials and access control belong in the project’s operating arrangements, including responsibilities when crew, managers or service providers change. Access to technical information should follow an agreed purpose and should not expose unrelated systems by assumption.
Review the onboard network and the proposed interface boundary. Determine which data leaves the vessel, which systems are involved and which parties maintain the components in the remote path. Address the project’s cybersecurity requirements with the relevant owner, OEM and authority inputs. A remote-data connection is an engineering change that requires assessment, not a blanket statement of compliance.
The enquiry form should not carry passwords, private network addresses or access credentials. Detailed network records and access arrangements can be exchanged through an agreed project method when needed. Shore users also need clear guidance about the limits of the information and who remains responsible for onboard decisions.
A dashboard is not evidence of remote command capability. This assessment does not promise unrestricted machinery control, autonomous operation or a universally certified cybersecurity configuration.
TESS can start with the technical decision the shore team needs to support and work back to the available onboard sources. Survey and source definition establish what can be connected. Interface design and connectivity/access review then define a feasible remote scope and the contributions needed from the vessel, OEM and other providers.
Implementation may include agreed onboard interface work, configuration coordination, testing and user validation. For a fleet, define a representative initial vessel or source arrangement and record what must change for subsequent vessels. Handover should identify the delivered information, users, known limitations and support responsibilities.
The engineering result should let the technical manager distinguish ready-to-connect information from dependencies that need separate onboard work. A rollout plan and quotation follow the assessed scope. TESS coordinates local project execution from Panama while Böning retains its product, proprietary software and OEM support responsibilities.
B⋮Connect functions described here are platform capabilities subject to configuration and source availability. They are OEM product context, not evidence of a completed TESS B⋮Connect installation.
The published marine automation integration case provides adjacent experience in onboard interfaces and technical execution under TESS’s lead engineer, with that attribution retained. It does not demonstrate a B⋮Connect cloud deployment. For your project, the evidence that matters is a documented source/interface assessment and verification of the selected remote information with the intended users.
For the related onboard engineering record: Onboard integration experience →
DEFINE THE NEXT ENGINEERING STEP
Send the information available. TESS will review the objective, installed system and project window to propose the next technical assessment. Scope and commercial terms are agreed after that review; a complete specification is not needed to start the enquiry.
No. It is an optional remote layer for selected vessel information and fleet visibility. The onboard systems remain responsible for their own monitoring, alarm and control functions.
Not in every possible case. Existing or third-party sources can be assessed where supported interfaces and access permit. Compatibility must be established for the actual source and required information.
No. Availability depends on the source, interface and configuration. The project defines a selected-data scope, including limitations and information that needs additional onboard work.
Capability information includes up to three years where applicable. Confirm retention and retrieval for the selected configuration; it is not a universal guarantee. Export requirements also need product and permission verification.
No. Selected conditions may produce configured notifications. The source, remote configuration and intended recipients determine the scope. Remote notifications do not replace onboard alarms.
A fleet overview or map can be assessed where supported. Different vessels may expose different data. Position and route information depend on the configured sources and available connectivity.
Current shore-side visibility depends on the connection and source path. The project must confirm the selected configuration’s behavior and limitations with the OEM. Do not rely on remote notifications as the vessel’s primary alarm system.
A remote view does not establish command authority. Any command function requires a separately engineered, verified and permitted scope consistent with onboard safety logic. Unrestricted remote machinery control is not offered here.
No. Interfaces, network design, credentials, access policies and exposed data need project-specific review. Applicable requirements and responsibilities must be established for the actual installation.
Potentially, after source and interface assessment. If the onboard system is unsupported or its data is unreliable, repair or modernization may be needed before the remote extension can be defined.