Start with threats and decisions, not equipment
Start with threats and decisions, not equipment
Start with threats and decisions, not equipment
The first design question is not which sensor to buy. It is what must be detected, at what range and confidence, who needs to know, what decision follows and how quickly a response can be authorised. Anchor architecture to scenarios such as unauthorised surface or subsurface approach, anchor dragging, perimeter intrusion, pollution events or degraded navigation.
The first design question is not which sensor to buy. It is what must be detected, at what range and confidence, who needs to know, what decision follows and how quickly a response can be authorised. Anchor architecture to scenarios such as unauthorised surface or subsurface approach, anchor dragging, perimeter intrusion, pollution events or degraded navigation.
The first design question is not which sensor to buy. It is what must be detected, at what range and confidence, who needs to know, what decision follows and how quickly a response can be authorised. Anchor architecture to scenarios such as unauthorised surface or subsurface approach, anchor dragging, perimeter intrusion, pollution events or degraded navigation.
Build the sensor-to-response chain
Build the sensor-to-response chain
Build the sensor-to-response chain
Coverage only matters when detections become usable information. Map the chain from sensing to classification, correlation, alerting, command and control, operator decision and response asset. Identify latency, hand-off and authority points. A gap anywhere in that chain can make additional sensing capacity operationally irrelevant.
Coverage only matters when detections become usable information. Map the chain from sensing to classification, correlation, alerting, command and control, operator decision and response asset. Identify latency, hand-off and authority points. A gap anywhere in that chain can make additional sensing capacity operationally irrelevant.
Coverage only matters when detections become usable information. Map the chain from sensing to classification, correlation, alerting, command and control, operator decision and response asset. Identify latency, hand-off and authority points. A gap anywhere in that chain can make additional sensing capacity operationally irrelevant.
Design for degraded operations
Design for degraded operations
Design for degraded operations
Maritime and offshore environments are harsh on communications, positioning and power. Test what happens when GNSS is degraded, bandwidth falls, a node is lost or an external data feed disappears. Define fallback modes, local processing, manual procedures and minimum viable situational awareness before deployment.
Maritime and offshore environments are harsh on communications, positioning and power. Test what happens when GNSS is degraded, bandwidth falls, a node is lost or an external data feed disappears. Define fallback modes, local processing, manual procedures and minimum viable situational awareness before deployment.
Maritime and offshore environments are harsh on communications, positioning and power. Test what happens when GNSS is degraded, bandwidth falls, a node is lost or an external data feed disappears. Define fallback modes, local processing, manual procedures and minimum viable situational awareness before deployment.
Keep integration open and testable
Keep integration open and testable
Keep integration open and testable
A resilient architecture separates interfaces from vendors. Use documented data models and APIs where possible, define time synchronisation and identity needs, and make assumptions about C2, communications and cybersecurity explicit. The objective is not a perfect diagram; it is an integration concept that can be tested incrementally.
A resilient architecture separates interfaces from vendors. Use documented data models and APIs where possible, define time synchronisation and identity needs, and make assumptions about C2, communications and cybersecurity explicit. The objective is not a perfect diagram; it is an integration concept that can be tested incrementally.
A resilient architecture separates interfaces from vendors. Use documented data models and APIs where possible, define time synchronisation and identity needs, and make assumptions about C2, communications and cybersecurity explicit. The objective is not a perfect diagram; it is an integration concept that can be tested incrementally.
Validate the response, not just the detection
Validate the response, not just the detection
Validate the response, not just the detection
A trial should exercise the complete operational loop. Measure detection quality, false alarms, classification confidence, latency, operator workload, communications resilience and response timing. Record limitations as carefully as successes. The result should be a response matrix and validation evidence that show what the system can support today and what needs to change.
A trial should exercise the complete operational loop. Measure detection quality, false alarms, classification confidence, latency, operator workload, communications resilience and response timing. Record limitations as carefully as successes. The result should be a response matrix and validation evidence that show what the system can support today and what needs to change.
A trial should exercise the complete operational loop. Measure detection quality, false alarms, classification confidence, latency, operator workload, communications resilience and response timing. Record limitations as carefully as successes. The result should be a response matrix and validation evidence that show what the system can support today and what needs to change.