Consequence differs by asset state
The same perimeter event can have very different meaning around an operating process, maintenance outage or public interface.
High-consequence sites · Reference architecture
Critical Infrastructure Protection Reference Architecture
A multi-sensor operating model for perimeter, low-altitude, inspection and incident coordination around energy, water and public infrastructure.
Operating context
Start with the mission, not a shopping list
Critical sites need reliable detection, but the larger risk is fragmented operations: separate alarms, unclear ownership and evidence that cannot be correlated. A defensible design begins with asset consequence and incident workflow.
The architecture combines site sensors with targeted aerial inspection and a command layer. Cybersecurity, network zones, maintenance access and degraded operation are designed with the physical sensors.
Problem definition
Why this system needs more than a product list
These challenge areas determine the architecture, operating model and acceptance evidence for the site.
Physical and cyber systems converge
Sensors, identities, video, operational networks and maintenance paths create dependencies that need common ownership and controlled interfaces.
Degraded awareness is often hidden
A silent connector, obstructed sensor or lost time source can create false confidence unless health is part of the operating picture.
Layered architecture
Each layer has a defined operational role
Product references show a viable starting point. Interfaces, quantities, ranges and legal availability are confirmed during project engineering.
1
Aerial inspection
VTOL or multirotor aircraft inspect corridors, roofs and difficult-to-access assets.
2
Low-altitude security
Radar, RF and visual sensors build a layered picture around protected airspace.
3
Ground movement monitoring
Non-contact radar or GNSS monitors slopes, structures or foundations where movement risk exists.
4
Unified operations
IRVMS maps events, applies rules and supports acknowledgement, dispatch and evidence retention.
Operating model
How information becomes an accountable decision
The operating model gives every sensing and platform layer a defined input, handoff and output.
- STAGE 01
Map consequence and dependency
Connect assets, services, process states, hazards and existing detection or inspection systems.
Output: Consequence and dependency model
- STAGE 02
Assign sensing roles
Use perimeter, low-altitude, aerial and condition-monitoring layers for defined events.
Output: Coverage and evidence architecture
- STAGE 03
Integrate through controlled boundaries
Freeze protocols, identities, time, network zones and evidence paths.
Output: Reviewed integration baseline
- STAGE 04
Exercise resilience
Run representative incidents and sensor, network, storage or staffing outages.
Output: Operational and recovery acceptance
Implementation sequence
Move from assumptions to acceptance evidence
The sequence is intentionally phased so that site facts, interfaces and operator behavior can change the design before broad deployment.
- 01
Consequence-led design
Map assets, hazards, existing systems and required response times.
- 02
Integration and cyber review
Confirm protocols, identities, network zones, logs and recovery behavior.
- 03
Operational acceptance
Test representative incidents, nuisance alarms, outages and evidence export with site operators.
What a successful project should make possible
- A consistent incident picture across sensor types
- Targeted inspection instead of routine hazardous access
- Documented degraded-mode behavior
- Traceable alerts, acknowledgements and evidence
These are design outcomes, not a claim that a specific result has already been achieved at an unnamed customer site. Project acceptance criteria are agreed for the configured system.
Acceptance matrix
Evidence required before operational handover
| Area | Requirement | Evidence |
|---|---|---|
| Detection and inspection | Priority events and asset conditions produce the required evidence. | Scenario and inspection output |
| Correlation | Sensor events share correct time, asset and incident context. | Cross-system event timeline |
| Cyber-physical boundary | Integration uses approved identities, routes, permissions and logs. | Architecture and access review |
| Resilience | Operators recognize and manage loss of critical sensing or platform functions. | Degraded-mode exercise |
Equipment context
Related reference configurations
Survey and mapping platform
ZJ-G25 VTOL Survey UAV
- Maximum takeoff weight
- 20 kg
- Maximum payload
- 5 kg
- Reference endurance
- Up to 3.5 h, empty configuration
View product
All-weather multirotor
F4 Waterproof Multirotor UAV
- Maximum takeoff weight
- 23 kg
- Standard payload
- 8 kg
- Reference hover time
- 50 min
View product
Low-altitude detection
NI-R5000+ Active Detection Radar
- Sensor type
- Active detection radar
- Deployment
- Fixed or mobile, project-configured
- Output
- Target track and alarm data
View product
Visual confirmation
NI-C3000 Electro-Optical Tracking System
- Sensor role
- Electro-optical confirmation and tracking
- Imaging
- Visible and thermal configurations
- Cueing
- Radar or RF target handoff
View product
Fast-update deformation radar
HAWK-R6 MIMO Slope Monitoring Radar
- Radar type
- MIMO deformation radar
- Signal
- FMCW
- Data refresh
- Second class
View product
Point displacement monitoring
HAWK-G902 GNSS Monitoring Receiver
- Sensor class
- GNSS monitoring receiver
- Deployment
- Fixed monitoring point
- Output
- Time-series position and displacement
View product
Technology pillars
Continue into the product-category guides
Industrial UAV Systems
Compare OMNI UXV VTOL, multirotor and heavy-lift UAV reference configurations for inspection, mapping, logistics and public-safety missions.
Open category guide →Counter-UAS Systems
Compare OMNI UXV radar, RF, electro-optical, jamming and navigation-response components for layered low-altitude security projects.
Open category guide →Deformation Monitoring
Compare OMNI UXV slope radar, structural monitoring, laser scanning and GNSS instruments for mines, slopes, dams and emergency sites.
Open category guide →Integrated Security Platforms
Explore OMNI UXV IRVMS command platforms for site-wide sensor integration, alert verification, mapping and coordinated incident workflows.
Open category guide →Engineering questions
Can OMNI UXV replace the existing VMS?
Replacement is not assumed. The project first evaluates available APIs, event semantics, cybersecurity boundaries and whether coexistence or phased migration is safer.
Is cloud deployment required?
No. Security-platform reference configurations are project-engineered and can be evaluated for on-premises or controlled hybrid use.
How is system acceptance measured?
Use representative event scenarios, sensor-to-platform latency, verification time, nuisance-alarm rate, outage behavior and evidence retrieval.
Evidence base
Authoritative references for project scoping
These sources provide public-sector or research context. The final project still requires destination-specific engineering, policy and legal review.
- Critical Infrastructure Security and Resilience
Cybersecurity and Infrastructure Security Agency
Official resilience, assessment and exercise resources for infrastructure owners.
- Infrastructure Resilience Planning Framework
Cybersecurity and Infrastructure Security Agency
Planning framework for threats, dependencies, adaptation and stakeholder coordination.
ENGINEERING & CONSULTATION
Engineer the Critical Infrastructure Protection system around your site
Share the mission, operating environment, existing systems, destination and required evidence. We will return a traceable architecture and configuration shortlist.
Start a technical inquiry