We’re Tracking the Future of Security

Category: Fire Detection & Automatic Fire Protection

Fire detection, alarm and automatic suppression systems for buildings, industrial sites and critical infrastructure.

  • Johnson Controls Launches Next-Generation Fire and Life Safety Networking Platforms

    Johnson Controls Launches Next-Generation Fire and Life Safety Networking Platforms

    Johnson Controls announced on August 25, 2026, the next generation of its fire and life safety networking and workstation solutions, aimed at giving building operators broader visibility across fire alarm systems in large or mission-critical facilities.

    What was announced

    The company introduced two new fire safety workstations — Simplex Incident Manager and Autocall Fire Site Administrator — built to centralize monitoring and control across large device counts. According to Johnson Controls, the new offerings can monitor and control up to 250,000 devices and connect up to 687 fire alarm control units from multiple manufacturers, which the company says is more than other alternatives currently on the market.

    Target environments

    Johnson Controls positions the new platforms for data centers, campuses, hospitals, sports arenas and other high-traffic, high-density venues where fire and life safety systems must integrate data from many separate control units and support faster emergency decision-making.

    Why it matters

    As data centers, campuses and other mission-critical facilities scale up, fire detection and notification infrastructure has to scale with them — a single facility can now involve hundreds of interconnected fire alarm control panels rather than a handful of standalone systems. Centralized workstations that can aggregate multi-vendor fire alarm data are a response to that growth, and reflect a broader trend across the fire and life safety sector toward networked, software-driven incident management rather than panel-by-panel monitoring.

    Sources

    More coverage like this is available on Technology News.

  • SFPE 2026 Annual Conference Preview: Fire Safety Engineering in Atlanta

    SFPE 2026 Annual Conference Preview: Fire Safety Engineering in Atlanta

    The Society of Fire Protection Engineers will hold its 2026 Annual Conference & Expo in Atlanta. The event is centered on engineering practice and research rather than general emergency response, with education and an expo for fire-protection professionals.

    Event details

    • Dates: 6–8 October 2026
    • Venue: Atlanta Marriott Marquis
    • Location: Atlanta, Georgia, USA

    Published themes and technology areas

    • Industrial fire protection and smoke control
    • Performance-based design and fire dynamics
    • Infrastructure, cladding, car parks and structural fire engineering
    • Data centers, emerging technologies, fire-safety systems and human behavior

    Who should follow the event

    Fire-protection engineers, consultants, authorities having jurisdiction, researchers, designers, facility specialists and manufacturers serving engineered fire-safety projects.

    Why it matters

    The conference gives technical teams a venue to compare research, design methods and system applications. Its published themes address both established engineering problems and newer infrastructure risks.

    Registration and visit planning

    Registration is open on the official SFPE conference site. Attendees should consult the organizer for the latest program, registration terms and hotel information.

    Sources

    Security & Fire Exhibitions

  • Emergency Services Show 2026 Preview: Response Technology at NEC Birmingham

    Emergency Services Show 2026 Preview: Response Technology at NEC Birmingham

    The Emergency Services Show will bring police, fire and rescue, ambulance, search-and-rescue and resilience professionals to NEC Birmingham. Its focus is operational: equipment, vehicles, communications, digital systems and training for agencies that must work together under pressure.

    Event details

    • Dates: 16–17 September 2026
    • Venue: NEC Birmingham
    • Location: Birmingham, United Kingdom

    Published themes and technology areas

    • Fire and rescue operations
    • Emergency communications and digital systems
    • Fleet, vehicles, drones and robotics
    • Resilience, interoperability and frontline safety

    Who should follow the event

    Fire and rescue services, ambulance and police teams, emergency planners, communications specialists, fleet managers, procurement teams and public-safety suppliers.

    Why it matters

    Emergency technology is judged by how it supports people and procedures in live operations. The show’s published themes connect equipment and digital tools with resilience, interoperability and workforce safety.

    Registration and visit planning

    The organizer lists free visitor registration on the official website. Attendees should confirm admission conditions, opening hours and the current conference agenda before travel.

    Sources

    Security & Fire Exhibitions

  • Security Essen 2026 Preview: Integrated Security and Fire Protection

    Security Essen 2026 Preview: Integrated Security and Fire Protection

    Security Essen returns as a broad technology exhibition spanning electronic, physical and digital security. Messe Essen’s published scope includes access control, video surveillance, perimeter protection, fire protection, cybersecurity and civil protection.

    Event details

    • Dates: 22–25 September 2026
    • Venue: Messe Essen
    • Location: Essen, Germany

    Published themes and technology areas

    • Access control and video surveillance
    • Perimeter and site protection
    • Fire protection and warning systems
    • Cybersecurity, civil protection and civil defence

    Who should follow the event

    Security managers, fire-safety professionals, system integrators, installers, consultants, public authorities and buyers evaluating cross-domain protection systems.

    Why it matters

    The exhibition is positioned around systems that increasingly share networks, identity data and operating workflows. That makes it a practical place to compare how suppliers approach integration, resilience and lifecycle support.

    Registration and visit planning

    The organizer’s ticket shop is open. Visitors should use the official site for current opening times, the exhibitor list, program and travel information.

    Sources

    Security & Fire Exhibitions

  • DTS for Tunnels, Cable Routes and Linear Fire Detection

    DTS for Tunnels, Cable Routes and Linear Fire Detection

    Distributed Temperature Sensing provides continuous temperature measurements along optical fiber, making it useful where heat must be monitored over long or difficult-to-access routes.

    How DTS differs from point detection

    Traditional temperature sensors measure specific locations. DTS creates thousands of measurement points along one fiber and can show how heat develops spatially over time.

    Tunnel applications

    In road and rail tunnels, DTS can support linear heat detection and help operators identify the approximate location and development of abnormal temperature conditions.

    Power cables

    High-voltage cables can develop hotspots that limit loading or indicate deteriorating conditions. DTS provides a thermal profile along the route and supports dynamic operational decisions.

    Industrial routes

    Conveyors, cable trays, pipelines and storage areas can benefit from continuous thermal monitoring where point sensors leave gaps.

    Design considerations

    Response time, spatial resolution, fiber type, installation geometry, calibration and integration with the fire or SCADA system should be evaluated together. DTS is strongest when operators can convert temperature data into clear actions.

    Conclusion

    DTS for Tunnels, Cable Routes and Linear Fire Detection should be evaluated as part of a broader operational architecture. The strongest deployments combine suitable sensing technology, resilient communications, clear procedures and measurable performance rather than relying on a single device or headline specification.

  • Smoke Control Engineering for Large Buildings and Tunnels

    Smoke Control Engineering for Large Buildings and Tunnels

    In many fires, smoke creates the greatest immediate threat to occupants. It reduces visibility, carries toxic products of combustion and can make escape routes unusable long before flames reach them. Smoke-control engineering is therefore a central part of fire strategy in atriums, high-rise buildings, shopping centers, transit facilities and tunnels.

    The objective Smoke control is not simply about removing smoke as fast as possible. The engineering objective is to manage smoke movement so evacuation routes remain tenable, firefighting access is supported and smoke does not spread unnecessarily into protected areas.

    Pressure differential systems Stairwells, refuge spaces and selected corridors may be protected by maintaining positive pressure relative to the fire zone. The pressure must be high enough to resist smoke leakage but not so high that occupants cannot open doors.

    Mechanical smoke extraction Large spaces and tunnels often use dedicated exhaust fans, shafts and dampers to remove smoke from a defined zone. Replacement air must be carefully managed; poorly positioned make-up air can disturb the smoke layer and reduce system effectiveness.

    Tunnels require a different approach In road and rail tunnels, longitudinal ventilation may be used to influence the direction of smoke movement. Jet fans, extraction points, fire location and traffic conditions all affect the strategy. The design must consider evacuation paths, cross passages and access for emergency services.

    Detection and controls A smoke-control system depends on reliable fire detection and correctly sequenced controls. Fans, dampers, doors, lifts and building management functions may all need to change state after a confirmed alarm. Cause-and-effect logic must be tested as a complete system, not as isolated components.

    Modelling and commissioning Computational fluid dynamics can help engineers study smoke movement in complex geometries, but modelling assumptions must be validated. On site, functional testing should verify airflow, pressure relationships, equipment response and emergency operating modes.

    A successful smoke-control design is therefore a combination of fire science, mechanical engineering, detection, controls and operational planning. Its real purpose is simple: preserve usable space and time for people to escape safely.

  • Predictive Maintenance for Fire Alarm Systems: From Faults to Early Warning

    Predictive Maintenance for Fire Alarm Systems: From Faults to Early Warning

    Fire alarm maintenance has traditionally been calendar-based: inspect devices, test circuits, replace components and respond to faults after they appear. Connected fire systems are changing that model by making condition data available continuously.

    What predictive maintenance means Predictive maintenance uses trends, diagnostics and operating history to estimate when a component may drift out of tolerance or fail. Instead of treating every detector, loop and power supply as identical, the system can highlight devices that show unusual contamination, communication errors, battery degradation or repeated intermittent faults.

    Useful data sources Modern panels and addressable devices can expose sensitivity levels, contamination values, loop quality, voltage conditions, communication statistics and event history. Environmental data can add context. A detector in a dusty production area will age differently from a detector in a clean office.

    AI is not the starting point Good predictive maintenance begins with clean data, accurate asset records and meaningful thresholds. Machine learning may help identify patterns across large estates, but it cannot compensate for poor commissioning or missing maintenance records.

    Benefits for multi-site operators For campuses, hospitals, data centers, retail chains and industrial estates, remote diagnostics can help prioritize technician visits. A maintenance team can arrive with the correct replacement parts and focus on the devices most likely to cause nuisance alarms or service disruption.

    Cybersecurity and governance Connected fire systems should not expose life-safety infrastructure unnecessarily. Remote access, cloud analytics and integration platforms require network segmentation, authentication, logging and clear responsibility between fire, IT and facilities teams.

    Predictive maintenance does not replace statutory inspection and testing. It adds another layer of intelligence. The long-term value is a shift from reacting to faults toward understanding system health continuously, reducing nuisance alarms, improving availability and making maintenance resources more efficient.

  • Thermal Runaway Detection in Lithium-Ion Battery Facilities

    Thermal Runaway Detection in Lithium-Ion Battery Facilities

    Lithium-ion battery facilities require a fire-safety strategy built around the chemistry of the cells themselves. One of the most important hazards is thermal runaway: a self-accelerating process in which internal heat generation drives further chemical reactions and can eventually produce venting, fire or propagation to neighboring cells.

    What can be detected before flames appear? Early indicators may include abnormal cell voltage, temperature rise, pressure changes and the release of volatile gases. Battery management systems provide valuable electrical and temperature data, but they should not be the only source of warning. Independent gas, smoke and thermal sensing can create a second layer of protection.

    Gas detection During cell decomposition, gases can be released before visible smoke or flame. Properly selected gas sensors can therefore provide valuable pre-fire warning. Their performance depends on airflow, sensor location, battery chemistry and alarm thresholds.

    Thermal monitoring Point temperature sensors, distributed temperature sensing and infrared thermal imaging can identify unusual heating. In large installations, the advantage of distributed monitoring is the ability to observe temperature trends across many racks, cables or zones rather than relying on a few isolated measurement points.

    Smoke and aspirating detection Very early warning smoke detection can identify small concentrations of aerosols. Aspirating systems are particularly useful where air movement is controlled and where conventional point detectors might not sample the most relevant airflow path quickly enough.

    From alarm to action Detection is only useful if it drives a defined response. A facility should specify what happens when a battery warning, off-gas alarm, elevated temperature or confirmed fire condition occurs. Possible responses include isolating a rack, stopping charge or discharge, controlling ventilation, initiating suppression, notifying emergency teams and increasing separation from adjacent equipment.

    The most resilient approach is multi-layered. Electrical telemetry sees one part of the problem, gas sensing another, thermal monitoring another and fire detection another. Correlating those signals can provide earlier and more reliable warning than relying on a single technology.

  • BESS Fire Detection: Early Warning for Battery Energy Storage Systems

    BESS Fire Detection: Early Warning for Battery Energy Storage Systems

    Battery energy storage systems are expanding rapidly because they help stabilize grids, support renewable energy and provide backup power. Their fire-safety challenge is different from that of conventional buildings: lithium-ion cells can fail internally, generate heat and flammable gases, and progress into thermal runaway before visible flames appear.

    Why early warning matters A traditional smoke detector may only respond after decomposition has advanced. BESS protection therefore benefits from layered detection. Battery management systems can track abnormal voltage, current and temperature. Gas sensors can identify characteristic off-gassing. Aspirating smoke detection can reveal very small combustion aerosols, while thermal sensors and infrared monitoring can highlight localized heating.

    Thermal runaway is a process, not a single event Thermal runaway occurs when heat generation inside a cell exceeds its ability to dissipate heat. The rising temperature can accelerate chemical reactions, release gases and transfer heat to neighboring cells. A key engineering objective is to detect abnormal conditions early enough to isolate equipment, reduce propagation risk and give operators useful time to respond.

    Detection architecture A robust BESS design combines cell- and rack-level telemetry with room or container-level fire detection. Alarm thresholds should be coordinated so operators can distinguish equipment warnings, confirmed fire conditions and emergency states. Integration with ventilation, shutdown logic, suppression systems and remote monitoring is essential.

    Avoiding a single-sensor strategy No single sensing technology provides a complete picture. Temperature alone can miss early off-gassing; gas detection can be affected by airflow; smoke detection may respond later than internal battery diagnostics. Combining independent indicators reduces blind spots and improves confidence.

    Commissioning and maintenance Detector placement, airflow modelling, sensor calibration and alarm verification are critical. Battery layouts change, firmware evolves and ventilation patterns can be modified during maintenance. Fire detection should therefore be reviewed whenever the storage system is reconfigured.

    The direction of the industry is toward integrated battery intelligence: BMS data, gas detection, thermal monitoring and fire systems feeding a common operational view. In BESS safety, the most valuable alarm is usually the one that arrives before a visible fire begins.

  • Clean-Agent Fire Suppression for Data Centers: Design Guide

    Clean-Agent Fire Suppression for Data Centers: Design Guide

    Data centers concentrate electrical equipment, energy, cooling infrastructure and business-critical services into spaces where even a small fire can create disproportionate operational loss. Clean-agent suppression is designed for environments where rapid extinguishment and minimal residue are priorities.

    What is a clean agent? Clean agents are gaseous fire-suppression media that leave little or no residue after discharge. Depending on the technology, suppression may be achieved through heat absorption, chemical interaction with the flame process, or reduction of oxygen concentration within safe design limits.

    Why data centers use them Water remains an essential fire-protection tool, but uncontrolled water exposure can damage servers, storage and electrical distribution. Clean-agent systems can suppress a developing fire without coating equipment in powder or liquid residue. They are therefore commonly considered for server rooms, network rooms, control rooms and other high-value electronic spaces.

    Detection matters as much as suppression The most effective design starts with early detection. Aspirating smoke detection can identify incipient smoke before conditions become severe. A staged alarm sequence can verify the event, alert operators, stop selected ventilation systems and initiate the discharge logic.

    Room integrity and pressure relief A gaseous system only performs as intended if the protected enclosure can retain the required concentration for the specified period. Door gaps, cable penetrations and ventilation openings can reduce performance. Enclosure integrity testing and pressure-relief design are therefore critical parts of commissioning.

    Not a substitute for an overall fire strategy Clean-agent systems should sit inside a broader architecture that includes detection, compartmentation, emergency power procedures, portable extinguishers, possible sprinkler protection and documented recovery plans.

    For data-center owners, the engineering objective is not simply to extinguish fire. It is to limit downtime, protect people, preserve critical infrastructure and make recovery predictable. The best clean-agent design is therefore one that integrates suppression with detection, HVAC control, electrical isolation and business-continuity planning.