Onboard systems
Propulsion, power, tanks, environmental sensors and supported yacht equipment.
MARINE EDGE & SYSTEMS INTELLIGENCE
For private yachts, charter adventures and superyacht operations. Yachtrix is taking shape as the systems intelligence layer for a new era of connected yachting.
Discover the platformPlatform in development · Explore our direction

01 / THE PLATFORM
A yacht’s systems speak different languages. The operational picture should still make sense.
Our platform direction connects marine SCADA-style acquisition and supervision with telemetry, alarm context and diagnostic history—bringing engineering detail into decisions on board and across a fleet.
The architecture below describes intended scope. Available integrations and deployment options must be confirmed for each project.
02 / FROM SIGNAL TO UNDERSTANDING
Four layers. A considered path from the machinery space to the management team.
Propulsion, power, tanks, environmental sensors and supported yacht equipment.
Planned local acquisition, timestamping and normalization. Buffering is a design priority for intermittent connectivity.
ONBOARD DATA FOUNDATIONTelemetry, alarm history and diagnostic trends are the intended foundation for engineering insight.
SIGNALS WITH CONTEXTPlanned shoreside visibility, fleet views and deployment options aligned to operational and data requirements.
ON BOARD · ASHORE · PRIVATE CLOUD03 / CONNECTIVITY WITHOUT SILOS
A broad range of wired and wireless interfaces connects the modern yacht. Our architecture direction brings local marine networks, onboard IP connectivity and secure remote communications into a coherent data layer.
Integration is equipment-specific. The examples here describe design scope, not a claim that every protocol, device or network is already supported.
Potential integration paths include marine data networks, CAN-based buses, industrial fieldbus, serial links, digital inputs/outputs and documented equipment APIs. Examples include NMEA 2000, J1939, NMEA 0183, Modbus and PROFIBUS where appropriate gateways and documentation exist. Each interface requires validation.
Ethernet, onboard wireless links, low-power sensor networks and mesh networks may connect equipment distributed throughout the yacht. Gateways bridge suitable networks into the data layer. Coverage, interference, battery life and separation of machinery, crew, guest and management traffic are design considerations.
Existing marina, cellular or satellite connectivity can provide the uplink. Encrypted transport, authenticated endpoints and controlled remote access are design requirements; availability depends on the yacht’s communications service.
Begin with a useful set of signals and expand through documented interfaces. Additional equipment, third-party systems and remote services are assessed against compatibility, access permissions and security requirements.
ONBOARD NETWORKS / THE EVERYDAY DETAILS
A yacht is a collection of connected systems. The opportunity extends from machinery data to the everyday equipment, spaces and events that matter to the crew.
Potential signals include freshwater pump operation, bilge-pump activity, run time and fault states. Any command or switching path needs a separately engineered control scope.
Fuel, freshwater and waste-tank readings, together with suitable flow or equipment-state data. Sensor calibration and signal quality determine what can be interpreted.
Hatch and door open/closed contacts, compartment sensors and presence events can contribute to a more useful view of the yacht’s state.
Compatible camera interfaces could add visual context or video-analysis events alongside other sensor data. This is an integration and research direction, subject to privacy, access and technical review.
These are indicative applications, not a universal compatibility list. Remote operation requires authorization, equipment-specific interlocks and validation. Existing local controls and safety protections remain authoritative.
04 / YACHTS & APPLICATIONS
From independent cruising to professionally managed fleets. Five indicative settings for Yachtrix, with integration shaped around each yacht.

Private and crewed-charter catamarans, with an indicative 80-foot yacht shown here. Monitoring priorities can span twin propulsion, generation, batteries, water systems and hotel loads.
DESIGN FOCUS / ENERGY & ONBOARD CONTEXT
Around 80 feet and beyond, private and charter motor yachts bring propulsion, electrical and comfort systems together. The intended focus is useful trends and alarm context for the crew.
DESIGN FOCUS / PROPULSION & AUXILIARIES
Large private and crewed-charter sailing yachts combine sailing systems with propulsion, generation and hotel services. An approximately 40-metre monohull illustrates this application.
Potential priorities include energy use under sail, auxiliary machinery, tank levels and equipment-state history—shaped around the yacht’s interfaces and the crew’s operating procedures.
DESIGN FOCUS / SAILING OPERATIONS & ENERGYCatamaran and mixed-yacht fleets. Establish consistent signal definitions, support maintenance reviews and plan shoreside visibility for the management team.
Complex private yachts and new-generation digital vessels. Scope deeper integrations, onboard server architecture and enterprise requirements with the yard and engineering team.
Illustrative yacht types and original AI-generated imagery. These are not customer yachts, verified installations or manufacturer partnerships. Project scope and compatibility require assessment.
04 / THE PEOPLE BEHIND EVERY YACHT
Designed around the questions each team needs to answer.
What changed, and where should we look?
Our focus: traceable signals, useful alarm context and a history that supports fault investigation.
What needs attention across the fleet?
Our focus: consistent yacht views, operational trends and a common basis for coordinating support.
How does this fit our engineering standards?
Our focus: documented integration scope, clear data boundaries and considered deployment architecture.
YACHTING LIFE / PRACTICAL USE CASES
Monitoring priorities for the way a yacht is actually used. Each depends on validated interfaces and an agreed integration scope.
Bring supported battery, shore power and tank information into the same review, alongside the crew’s physical checks.
Relate propulsion, generation and auxiliary-system trends to the yacht’s operating conditions.
Define meaningful changes in bilge activity, temperature and power—and account for uplink availability when planning alerts.
Connect event timing with equipment context to support investigation, maintenance planning and shoreside assistance.
Digital switching and remote control require a separate control-system assessment. No Raymarine, Garmin or other vendor integration is claimed without validation.
05 / SCALABILITY & DEPLOYMENT
From a private sailing catamaran to a charter fleet or superyacht. Choose an architecture around the operation, with room to grow.
A proposed single-server configuration for a private yacht or charter catamaran. Size storage and processing around the selected monitoring scope.
Paired servers or rack-mounted infrastructure for more demanding operations. Redundancy, power independence and failover behavior require design and testing.
A proposed company-HQ server, private data-center rack or hosted deployment for yacht management and sailing-charter operations.
Architecture options under development. Uplink loss, local retention, synchronization, server sizing and recovery targets are agreed for each deployment. No high-availability guarantee is implied.
SECURITY / AN ARCHITECTURE REQUIREMENT
Security belongs in the initial design: network segmentation, least-privilege roles, encrypted communications, auditability and a defined update and recovery process.
SCALABILITY / A MEASURED PATH
Validate one yacht and a useful set of signals. Then extend equipment coverage, add yachts and introduce shoreside services against measured capacity and operational needs.
06 / DEVELOPMENT DIRECTION
Predictive insight depends on reliable data and validation against real operating conditions.
Edge acquisition, telemetry, alarm context and engineering diagnostics.
Fleet monitoring, enterprise deployment and deeper onboard integrations.
Anomaly detection and predictive diagnostics. Subject to data quality, validation and engineering review.
Development direction is not a release commitment. No autonomous control, predictive accuracy, certification or production availability is claimed.
YACHT SYSTEMS INTELLIGENCE
For private yachts, charter fleets and the next generation of digital vessels.