Midradar\u2019s MR2000 platform is designed to coordinate radar, spectrum-detection, EO\/IR and authorized response devices in a unified operating environment. Confirmed functions include centralized device and user management, map-based track display, multi-source track fusion, radar-to-EO\/IR cueing, video monitoring and playback, alarm-zone management, unattended operation and event recording. Exact API, SDK, third-party protocol and cybersecurity support remains subject to the selected product, software version and project interface review.<\/p>\n
Key Questions This Guide Answers<\/h2>\n\n- How does a radar integrate with a Counter-UAS C2 platform<\/a>?<\/li>\n
- What track fields, coordinates and timestamps should the radar provide?<\/li>\n
- How should coordinate, time, device-control and handoff rules be defined?<\/li>\n
- What should be tested in radar-to-EO\/IR cueing and third-party device integration?<\/li>\n
- Which FAT\/SAT evidence is required before operational acceptance?<\/li>\n<\/ul>\n
Applicability, Assumptions and Limits<\/h2>\n
This guide applies to projects that connect one or more radar, RF and EO\/IR sensors to Midradar MR2000 or to a third-party C2, PSIM or VMS. It is a requirements and acceptance framework, not a universal interface specification. Actual transport protocols, message fields, coordinates, timing, authentication and cybersecurity controls must be locked for the selected model and software release. The guide assumes that the buyer can provide the existing-system topology, interface documents, site geometry and an agreed operational workflow. It does not establish compatibility with a named third-party platform until implementation and interoperability testing are complete.<\/p>\n
1. What C2 Integration Must Accomplish<\/h3>\n
C2 integration is not completed when a radar icon appears on a map. The system must preserve the meaning, timing and quality of sensor data from detection through operator decision. At minimum, it should create a stable track identity, convert positions into a common coordinate frame, account for data age, select an appropriate EO\/IR device, issue a cueing command, receive position and tracking feedback, and combine the resulting track, video and operator action into one auditable event.<\/p>\n
This end-to-end workflow is important because a project can fail even when every individual device works. A coordinate-sign error can point the camera in the wrong direction. Unsynchronized clocks can attach video to the wrong track. A missing device-health message can leave the operator unaware that a sensor is offline. Integration therefore has to be specified as a system behavior, not as a list of product interfaces.<\/p>\n
2. Reference Architecture<\/h3>\n
A practical counter-UAS architecture has five layers. The sensor layer detects and measures targets. The interface and fusion layer adapts messages, unifies coordinates and time, filters tracks and associates observations. The C2 layer presents the operational picture, applies rules, manages permissions and records decisions. The EO\/IR and PTU layer performs visual verification and tracking. The evidence and operations layer stores tracks, alarms, video, screenshots, device status and operator actions.<\/p>\n
Responsibility must be explicit. Midradar can provide the radar sensor layer, MR2000 C2 functions, project-specific interface clarification, geometry review, calibration and integration support. When a third-party C2, PSIM or VMS is used, the platform owner normally remains responsible for its business logic, cybersecurity policy and external-system orchestration unless the contract states otherwise.<\/p>\n
For the full system workflow, review Midradar\u2019s arquitetura integrada contra UAV<\/u><\/a><\/p>\n![\"\"](\"https:\/\/midradar.com\/wp-content\/uploads\/2026\/08\/blog-c2-1.webp\")
llustrative reference architecture; not a protocol compliance statement<\/p><\/div>\n
C2 Integration Acceptance Matrix<\/h4>\n
<\/p>\n
\n\n\nControl Point\u00a0<\/strong><\/td>\nRequired Evidence\u00a0<\/strong><\/td>\nAcceptance Focus\u00a0<\/strong><\/td>\n<\/tr>\n\nTrack data\u00a0<\/strong><\/td>\nVersioned ICD, sample messages and field dictionary<\/td>\n Track-ID lifecycle, units, null values, update rules and reconnect behavior<\/td>\n<\/tr>\n \nCoordinates\u00a0<\/strong><\/td>\nDatum, altitude reference, units, north convention and measured test points<\/td>\n Residual error across range, azimuth and elevation<\/td>\n<\/tr>\n \nTime\u00a0<\/strong><\/td>\nClock architecture and timestamp definition<\/td>\n Clock offset, data age, loss-of-sync alarm and recovery<\/td>\n<\/tr>\n \nCueing loop<\/strong><\/td>\nCommand, acknowledgement, PTU feedback and video evidence<\/td>\n Time to first target-in-frame, pointing error and reacquisition<\/td>\n<\/tr>\n \nHealth and faults\u00a0<\/strong><\/td>\nHeartbeat, fault codes, version and degraded-mode rules<\/td>\n Detection, logging, safe degradation and recovery sequence<\/td>\n<\/tr>\n \nEvent evidence<\/strong><\/td>\nCommon Event ID linking tracks, alarms, video and operator actions<\/td>\n Completeness, time consistency, export and access control<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n3. Minimum Interface Requirements<\/h3>\n
The interface specification should define transport and network behavior, track-message fields, coordinate reference, timestamps, device status, command acknowledgement, error handling, logging and version control. A useful radar track normally needs a source sensor ID, track ID, measurement or update time, position, velocity, track state and quality indicator. Projects may also require classification, RCS estimate, confidence, threat priority and covariance or accuracy information, but these fields should not be assumed unless they are documented and tested.<\/p>\n
Time synchronization deserves separate attention. Radar, C2, PTU, camera and recorder clocks must be compared during integration. The project should define the synchronization method, acceptable clock offset, loss-of-sync alarm and recovery behavior. NTP may be appropriate for some installations, while higher-precision or isolated systems may require a different project-specific approach.<\/p>\n
![\"\"](\"https:\/\/midradar.com\/wp-content\/uploads\/2026\/08\/blog-c2-2.webp\")
Requisitos da Interface C2 de Counter-UAS: Dados de Rastreio, Sincroniza\u00e7\u00e3o de Tempo e Indica\u00e7\u00e3o EO\/IR<\/p><\/div>\n
4. Radar-to-EO\/IR Cueing<\/h3>\n
Radar-to-EO\/IR cueing is an end-to-end system function. The radar first establishes and updates a target track. The integration layer converts the target into the coordinate frame required by the PTU and predicts the line of sight when network and processing delay are significant. The C2 then issues an absolute pan\/tilt command or target-coordinate command. The PTU reports position and motion status, while the EO\/IR payload provides video, tracking state and optional recognition results.<\/p>\n
Acquisition performance depends on radar accuracy and update behavior, coordinate conversion, timestamp consistency, network latency, PTU absolute positioning<\/u><\/a>, boresight calibration, focal length, structural deflection, wind load and target motion. For this reason, a brochure claim such as \u201cautomatic linkage\u201d should be converted into measurable acceptance points: track-establishment time, command latency, time to first target-in-frame, target-in-frame error, tracking retention and recovery after track loss.<\/p>\nProjects focused on detection and visual confirmation can review Midradar\u2019s sistemas de fus\u00e3o de vis\u00e3o por radar<\/u><\/a>.<\/p>\n
Applicability, Assumptions and Limits<\/h2>\n
This guide applies to projects that connect one or more radar, RF and EO\/IR sensors to Midradar MR2000 or to a third-party C2, PSIM or VMS. It is a requirements and acceptance framework, not a universal interface specification. Actual transport protocols, message fields, coordinates, timing, authentication and cybersecurity controls must be locked for the selected model and software release. The guide assumes that the buyer can provide the existing-system topology, interface documents, site geometry and an agreed operational workflow. It does not establish compatibility with a named third-party platform until implementation and interoperability testing are complete.<\/p>\n
1. What C2 Integration Must Accomplish<\/h3>\n
C2 integration is not completed when a radar icon appears on a map. The system must preserve the meaning, timing and quality of sensor data from detection through operator decision. At minimum, it should create a stable track identity, convert positions into a common coordinate frame, account for data age, select an appropriate EO\/IR device, issue a cueing command, receive position and tracking feedback, and combine the resulting track, video and operator action into one auditable event.<\/p>\n
This end-to-end workflow is important because a project can fail even when every individual device works. A coordinate-sign error can point the camera in the wrong direction. Unsynchronized clocks can attach video to the wrong track. A missing device-health message can leave the operator unaware that a sensor is offline. Integration therefore has to be specified as a system behavior, not as a list of product interfaces.<\/p>\n
2. Reference Architecture<\/h3>\n
A practical counter-UAS architecture has five layers. The sensor layer detects and measures targets. The interface and fusion layer adapts messages, unifies coordinates and time, filters tracks and associates observations. The C2 layer presents the operational picture, applies rules, manages permissions and records decisions. The EO\/IR and PTU layer performs visual verification and tracking. The evidence and operations layer stores tracks, alarms, video, screenshots, device status and operator actions.<\/p>\n
Responsibility must be explicit. Midradar can provide the radar sensor layer, MR2000 C2 functions, project-specific interface clarification, geometry review, calibration and integration support. When a third-party C2, PSIM or VMS is used, the platform owner normally remains responsible for its business logic, cybersecurity policy and external-system orchestration unless the contract states otherwise.<\/p>\n
For the full system workflow, review Midradar\u2019s arquitetura integrada contra UAV<\/u><\/a><\/p>\n llustrative reference architecture; not a protocol compliance statement<\/p><\/div>\n <\/p>\n The interface specification should define transport and network behavior, track-message fields, coordinate reference, timestamps, device status, command acknowledgement, error handling, logging and version control. A useful radar track normally needs a source sensor ID, track ID, measurement or update time, position, velocity, track state and quality indicator. Projects may also require classification, RCS estimate, confidence, threat priority and covariance or accuracy information, but these fields should not be assumed unless they are documented and tested.<\/p>\n Time synchronization deserves separate attention. Radar, C2, PTU, camera and recorder clocks must be compared during integration. The project should define the synchronization method, acceptable clock offset, loss-of-sync alarm and recovery behavior. NTP may be appropriate for some installations, while higher-precision or isolated systems may require a different project-specific approach.<\/p>\n Requisitos da Interface C2 de Counter-UAS: Dados de Rastreio, Sincroniza\u00e7\u00e3o de Tempo e Indica\u00e7\u00e3o EO\/IR<\/p><\/div>\n Radar-to-EO\/IR cueing is an end-to-end system function. The radar first establishes and updates a target track. The integration layer converts the target into the coordinate frame required by the PTU and predicts the line of sight when network and processing delay are significant. The C2 then issues an absolute pan\/tilt command or target-coordinate command. The PTU reports position and motion status, while the EO\/IR payload provides video, tracking state and optional recognition results.<\/p>\n Acquisition performance depends on radar accuracy and update behavior, coordinate conversion, timestamp consistency, network latency, PTU absolute positioning<\/u><\/a>, boresight calibration, focal length, structural deflection, wind load and target motion. For this reason, a brochure claim such as \u201cautomatic linkage\u201d should be converted into measurable acceptance points: track-establishment time, command latency, time to first target-in-frame, target-in-frame error, tracking retention and recovery after track loss.<\/p>\n Projects focused on detection and visual confirmation can review Midradar\u2019s sistemas de fus\u00e3o de vis\u00e3o por radar<\/u><\/a>.<\/p>\nC2 Integration Acceptance Matrix<\/h4>\n
\n\n
\n Control Point\u00a0<\/strong><\/td>\n Required Evidence\u00a0<\/strong><\/td>\n Acceptance Focus\u00a0<\/strong><\/td>\n<\/tr>\n \n Track data\u00a0<\/strong><\/td>\n Versioned ICD, sample messages and field dictionary<\/td>\n Track-ID lifecycle, units, null values, update rules and reconnect behavior<\/td>\n<\/tr>\n \n Coordinates\u00a0<\/strong><\/td>\n Datum, altitude reference, units, north convention and measured test points<\/td>\n Residual error across range, azimuth and elevation<\/td>\n<\/tr>\n \n Time\u00a0<\/strong><\/td>\n Clock architecture and timestamp definition<\/td>\n Clock offset, data age, loss-of-sync alarm and recovery<\/td>\n<\/tr>\n \n Cueing loop<\/strong><\/td>\n Command, acknowledgement, PTU feedback and video evidence<\/td>\n Time to first target-in-frame, pointing error and reacquisition<\/td>\n<\/tr>\n \n Health and faults\u00a0<\/strong><\/td>\n Heartbeat, fault codes, version and degraded-mode rules<\/td>\n Detection, logging, safe degradation and recovery sequence<\/td>\n<\/tr>\n \n Event evidence<\/strong><\/td>\n Common Event ID linking tracks, alarms, video and operator actions<\/td>\n Completeness, time consistency, export and access control<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n 3. Minimum Interface Requirements<\/h3>\n
4. Radar-to-EO\/IR Cueing<\/h3>\n
![\"\"](\"https:\/\/midradar.com\/wp-content\/uploads\/2026\/08\/blog-c2-3.webp\")