Command & Control Center
A command control centre is where an organisation's cameras, alarms, doors, fire panels and field teams stop being separate systems and start being one operating picture. Foxnet Securitas designs and builds command and control centres — and the smaller security operations centres that sit inside enterprise campuses — covering the video wall, the operator consoles, the VMS and PSIM layer, the room itself and the shift model that keeps it staffed. Most centres fail not because the technology is weak but because nobody designed for the human sitting in front of it for nine hours. We start with the operator, the alarm load and the escalation path, then specify the hardware that supports them.
What we deliver
- End-to-end command control centre design, from concept layout and sightline studies through electrical, HVAC and acoustic coordination with your architect and MEP consultant, to a fully commissioned operating room.
- Video wall solution design and installation using LCD narrow-bezel arrays or direct-view LED, sized from viewing distance and content type rather than from whatever fits the wall, with the appropriate video wall controller and source management.
- Operator console and workstation design covering desk height and depth, monitor arm geometry, chair specification, cable management and shift ergonomics for 8- and 12-hour rotations.
- VMS integration across mixed and legacy camera estates, plus a PSIM or situational awareness layer that correlates events from video, access control, intrusion, fire and building management into a single actionable alarm queue.
- Standard operating procedures embedded into the system as guided workflows, so an operator handling a rare event at 3am is prompted through the correct sequence rather than relying on memory.
- Redundancy and failover architecture: dual power paths, UPS and generator interface, redundant recording and management servers, network path diversity and a defined degraded mode of operation.
- Room environmental design covering HVAC and heat load from wall and rack equipment, acoustic treatment for speech privacy and noise control, and glare-free lighting tuned to screen luminance.
- Integration with mass notification and public address so that a decision taken in the centre reaches the site immediately, and with radio, telephony and mobile despatch for field response teams.
- Commissioning, operator training, runbook documentation and AMC covering display calibration, controller and server health, and periodic review of alarm rules as the estate grows.
How a Foxnet deployment works
- Site survey and requirement capture. We measure the room, establish viewing distances, structural loading and cable routes, and profile the operational load: how many cameras and alarm points, how many events per shift, how many operators and supervisors, which incidents must escalate and to whom. That profile sizes everything downstream.
- Design and BoQ. You receive a room layout with console positions and sightlines, video wall configuration and mounting detail, a rack elevation, heat load and power calculation, network topology showing redundancy, the VMS and PSIM integration schedule, and a line-item bill of quantities you can take to procurement.
- Installation and commissioning. Wall structure and mounts go in first, then displays, controllers, racks, consoles and cabling. Displays are aligned and colour-calibrated as a single canvas, sources and layouts configured, alarm rules and guided workflows built, and the whole centre proven against scripted incident scenarios rather than a power-on test.
- Handover, training and documentation. Operators are trained on layouts, alarm handling, escalation and shift handover; supervisors on reporting and rule administration. You receive as-built drawings, rack and IP schedules, calibration records, the operator runbook and a documented degraded-mode procedure for when part of the system is down.
- AMC and ongoing support. A typical engagement structure covers display and controller health checks, recalibration as panels age, server and storage monitoring, firmware currency, and a periodic review of alarm thresholds and workflows — because an unreviewed centre drifts into nuisance alarms and operators start ignoring them.
Technical specifications and standards
These are the reference points we design a control centre against. Standards are attributed to the bodies that publish them; the specification applied to your project is confirmed at design stage.
| Area | Reference point | Why it matters |
|---|---|---|
| Control room ergonomics | ISO 11064 (ergonomic design of control centres), covering layout, workstation design, displays, controls and environment | It is the only mature published framework for control room design and it addresses the failure mode that matters most — operator fatigue and missed events. |
| Video wall technology | Narrow-bezel LCD (typically 0.88mm to 3.5mm combined bezel) versus direct-view LED at 0.9mm to 1.5mm pixel pitch | LCD is cost-effective and bright; seamless LED removes bezel lines entirely, which matters when maps and floor plans span multiple tiles. |
| Display sizing | Pixel pitch chosen so the nearest viewer sits beyond the visual acuity distance (roughly pitch in mm × 1 metre as a working minimum); text height checked against furthest operator | A wall that looks impressive in a photograph but is unreadable from the supervisor's desk has failed its actual job. |
| Signal distribution | Hardware video wall controllers or AV-over-IP using SDVoE, Dante AV or JPEG 2000/H.264 encoding over a dedicated 10GbE fabric; HDBaseT for point-to-point runs | AV-over-IP scales to more sources and remote rooms; a hardware controller gives lower latency and fewer dependencies. The choice is a real trade-off. |
| Video management | ONVIF Profile S/G/T camera support, H.265/H.264 decoding, failover recording servers, dedicated decoder appliances for wall feeds | Decoding twenty 4K streams onto a wall is a hardware problem; undersizing it produces the stuttering video every operator complains about. |
| PSIM and correlation | Event correlation across VMS, access control, intrusion, fire and BMS via SDK, REST API, OPC or BACnet; guided SOP workflows with audit trail | Correlation converts hundreds of raw events per shift into a handful of prioritised, actionable alarms. |
| Redundancy and power | Dual-path power with UPS and generator interface, N+1 on critical servers, RAID storage with hot spares, diverse network routing, documented degraded mode | A centre that goes dark during the event it exists to manage is worse than no centre at all, because response depends on it. |
| Room environment | Heat load calculation for wall and rack equipment, redundant precision cooling, ambient lighting around 200–500 lux with indirect fittings, no windows behind or opposite the wall | Heat kills displays and concentration; glare on a video wall makes it useless regardless of what was spent on the panels. |
| Acoustics | Reverberation time typically targeted below 0.6 seconds, background noise around NC 35–40, absorptive ceiling and wall treatment, separate briefing room for calls | Operators are on radio and telephone constantly; a reflective room turns simultaneous conversations into unintelligible noise. |
| Cabling and racks | Cat6A to TIA-568 and ISO/IEC 11801, OM4 or OS2 fibre for building links, 42U racks with front and rear access and hot/cold separation | Rack access and cable discipline determine how quickly a fault is fixed at 2am with the room still operating. |
Operator ergonomics and shift design
Vigilance decays measurably over a long shift, and a control centre design either fights that or accelerates it. Practical measures we build in: consoles positioned so the video wall sits within a comfortable horizontal viewing cone without neck rotation, primary workstation monitors at arm's length with the top edge at or just below eye level, height-adjustable desks so operators can stand during long incidents, and 24/7-rated chairs rather than office chairs that fail in a year. Alarm presentation is prioritised and rate-limited so the operator sees the three things that matter, not a scrolling wall of noise. Shift design matters as much as the furniture: forward-rotating shifts, defined micro-breaks away from screens, a structured handover with a written log, and a separate briefing or rest area so conversations happen outside the operating floor. A supervisor position with sightlines to every operator and to the wall completes the layout.
Where we deploy
Foxnet builds control centres with field teams operating across 15+ Indian cities, including Delhi NCR, Noida and Gurgaon, Mumbai, Pune, Bangalore, Hyderabad, Kolkata, Chennai and Ahmedabad. The pattern we see most often in Indian enterprises is a central security operations centre at head office, monitoring subordinate sites over the WAN, with smaller local rooms at large plants and campuses. Designing that hierarchy properly — deciding what is watched centrally, what stays local, what bandwidth each link needs and what happens to each site when the WAN drops — is the difference between a genuinely integrated command and control centre and an expensive room full of screens.
Requirements vary sharply by vertical. Manufacturing and warehousing centres focus on perimeter, gate and yard movement, contractor control and safety incidents, often merging security with production monitoring on the same wall. BFSI and fintech operations rooms are alarm-driven and audit-heavy, with strict escalation matrices. Government and municipal integrated command and control centres pull in traffic, emergency services and public infrastructure feeds. IT/ITES campuses and healthcare sites tend to run leaner rooms with two or three operators covering access, video and fire supervision together. Room size, wall size and staffing follow from that operational profile, never the other way round.
Our integrated deployments frequently anchor a control room: the Avalara Pune project covering roughly 90,000 sq ft with cloud access control and CCTV shows the systems layer that a centre monitors, and the Sber Bank Bangalore banking-grade security transformation shows the same integration under financial-sector scrutiny. If you are still at the concept stage, our longer article on designing a command and control center that scales works through the architectural decisions — modular wall growth, operator-to-camera ratios and the failure modes that appear at 500 cameras but not at 50 — before any hardware is chosen.
Indicative investment
Command centre cost is dominated by the video wall technology, the number of operator positions and the depth of software integration. The figures below are indicative ranges only — actual pricing depends on site survey, and exclude civil work, interiors and HVAC unless we are asked to deliver those as part of the package.
| Tier | Typical scope | Indicative supply and installation |
|---|---|---|
| Compact monitoring room | 2×2 or 2×3 LCD wall, 1–2 operator consoles, VMS client workstations, single rack | ₹8 lakh – ₹25 lakh |
| Campus security operations centre | 3×3 or 4×3 LCD wall with controller, 4–6 consoles, redundant servers, VMS plus access control integration, UPS | ₹30 lakh – ₹90 lakh |
| Enterprise command and control centre | Direct-view LED wall, 8–12 consoles, PSIM layer, N+1 redundancy, multi-site aggregation, full room build | ₹1 crore – ₹4 crore |
| Integrated multi-agency centre | Large-format LED, multiple agency positions, GIS and traffic feeds, mass notification, disaster recovery room | Project-specific, typically ₹5 crore upwards |
Costs rise with direct-view LED instead of LCD, finer pixel pitch, PSIM licensing and bespoke integration development, N+1 redundancy on every layer, 24/7 furniture and raised flooring, redundant precision cooling, and acoustic and interior fit-out to a design standard. Costs fall where an existing room with adequate power and cooling can be reused, where an LCD wall is genuinely sufficient for the viewing distance, where the VMS already in place can be extended rather than replaced, and where the wall is designed to grow modularly instead of being built for a camera count you will not reach for three years. AMC is quoted separately from capital cost, commonly as a percentage of installed system value in the region of 8–15% per annum, with display calibration and controller support usually the largest components.
Frequently asked questions
What is a command and control centre, and how is it different from a security operations centre?
A command control centre is a staffed room where video, access control, alarms, fire and building systems are monitored together and incidents are directed from a single point. A security operations centre is usually the narrower physical-security subset of that. In practice the terms overlap, and the meaningful question is scope: which systems feed the room, who is on shift, and what decisions the room is authorised to make.
Should I choose an LCD video wall or direct-view LED?
Narrow-bezel LCD remains the cost-effective choice for most rooms and handles multiple camera tiles well, since each tile has its own frame anyway. Direct-view LED is the better answer when content spans the whole canvas — maps, floor plans, dashboards — because there are no bezel lines, and when viewing distances are long. Pixel pitch and nearest viewing distance should decide it, not budget alone.
How much does a command control centre cost in India?
A compact monitoring room with a small LCD wall and one or two consoles typically falls between ₹8 lakh and ₹25 lakh, a campus security operations centre between ₹30 lakh and ₹90 lakh, and an enterprise centre with direct-view LED and a PSIM layer from ₹1 crore upwards. Civil work, interiors and HVAC are usually separate. These are indicative ranges only, confirmed after a site survey.
How many cameras can one operator realistically monitor?
Sustained attention to live video degrades quickly, so headcount should be driven by alarm and event volume rather than camera count. Well-designed centres use analytics and correlation to push exceptions to the operator and keep the wall for situational context, with routine review handled retrospectively. Staffing is then sized from events per shift, average handling time and the escalation matrix you need to support.
What redundancy should a control centre have?
At minimum: UPS-backed power with a generator interface, redundant recording and management servers, RAID storage with hot spares, diverse network paths to critical sites, and spare display tiles held on site. Just as important is a written degraded-mode procedure covering how operators work when the wall, the PSIM or the WAN is down, tested during commissioning rather than discovered during an incident.
Can Foxnet integrate our existing VMS and access control into a new centre?
Usually yes. We audit the existing platforms, confirm what APIs, SDKs or ONVIF support they expose, and design the integration around what can genuinely be correlated rather than what a datasheet claims. Where a legacy system cannot integrate cleanly, we say so at design stage and price the alternatives, instead of discovering the limitation during commissioning.
Related services
- Surveillance & Monitoring — the camera estate and VMS that supply the centre's video.
- Access Control — door, turnstile and credential events that drive a large share of the alarm queue.
- Fire Alarm Systems — panel supervision and alarm interfacing into the operating picture.
- Public Addressing — zoned mass notification so a decision made in the centre reaches the site.
- IT Infrastructure — racks, structured cabling and the network fabric the centre depends on.