September 25, 2026
image
Home Archive by category Vertical Solutions (Page 5)

Vertical Solutions

Panduit Micro Data Center

Definition of Micro Data Center A Micro Data Center (MDC) is a compact, versatile solution that integrates hardware, software, and cabling, serving as a comprehensive network hub. Similar to a telecommunications or network room but on a smaller scale, the key feature of an MDC is that it consolidates the entire data center infrastructure into a single enclosure — including electronic devices, patch panels, cable management, grounding/bonding, power, and copper/fiber cabling — designed to meet the demands of manufacturing environments.

The MDC represents the next phase in the evolution from tower computing systems to rack and cabinet-based deployments in manufacturing. It supports various business applications, such as:

  • Process and event monitoring, process historian, production tracking, and Overall Equipment Effectiveness (OEE) reporting. • Control network management, outer loop control, and recipe downloads. • Quality control, material handling, maintenance, batch tracking, and asset management. • ERP integration (e.g., scheduling, reporting, material consumption).

In addition to serving as a standalone system for these applications, the MDC can also function as a network hub that connects cabling and switches. In large manufacturing complexes or remote locations, it can act as a data collection node that transmits manufacturing data to the enterprise (e.g., Store and Forward). MDCs can also host Virtual Machine (VM) systems, enhancing reliability and optimizing server utilization.

More Meaningful Connections From a logical architectural perspective, the MDC is situated between the manufacturing plant and the enterprise data center, often separated by a demilitarized zone (DMZ) and a firewall to prevent direct traffic between the enterprise and manufacturing networks. This separation protects against viruses and unwanted intrusions while ensuring maximum bandwidth for manufacturing processes. Additionally, it allows each network to operate independently, ensuring that disruptions in one do not affect the other.

The NEMA 12-rated MDC protects Industrial Automation and Control Systems (IACS) by preventing the ingress of solid foreign objects and water. This robust design allows the MDC to be installed directly on the plant floor, eliminating the need for a dedicated control room or telecommunications closet. Placing the MDC near production equipment reduces the number of connections, shortens cable lengths, and facilitates quick access for maintenance, enhancing network reliability and performance. Furthermore, this proximity minimizes potential failure points, reduces network latency, and simplifies troubleshooting and diagnostics.

Physically, the MDC is typically installed in a secure space, such as a control room, production office, or telecommunications closet, located near the production environment but separate from it to protect equipment from dust, moisture, vibrations, and corrosion. This strategic placement shortens cable lengths, improves network performance, and simplifies maintenance access, further ensuring high reliability and quick responsiveness.

Panduit MDCs are a smart choice because they combine industrial durability, rapid deployment, integrated cable management, and compliance with key standards, making them a more reliable, cost-effective, and flexible solution compared to many competing products.

Rondo 1, an Architectural Icon of Warsaw, Protected by ICT

The unique shape of the building, comfortable working conditions and location in the very center of the city make Rondo 1 one of the most prestigious skyscrapers in Central and Eastern Europe.

Rondo 1 is the first AAA class high-rise building built in Warsaw (192 meters height, 41 above-ground storeys, 103 000m2 of total area). It was designed by world-renowned architects from the American studio Skidmore, Owings & Merrill.

The office building consists of two buildings: a 40-storey glazed tower (Building B) located parallel to Jana Pawla II Avenue and a 10-storey Building A, located at Swietokrzyska Street, with a façade made of opaque frosted glass. Rondo 1 offers office and service space that meets the highest standards. Premises for rent can be arranged in any way to fully meet the needs of even the most demanding tenants.

Rondo 1 was the first European skyscraper to receive the LEED® Gold ecological certificate in the “Existing Buildings” category. In 2016, the recertification process was completed, as part of which Rondo 1 received the highest ecological certificate – LEED® Platinum.

The LEED® certificate in the “existing buildings” category is characterized by continuous verification of the building’s operating parameters and requires continuous improvement of the efficiency of its operation in order to meet the newer and more stringent requirements of the certification system. The process evaluated, m.in other things, sustainable location, efficient use of water and energy resources, and materials used.

Rondo 1 is one of the most characteristic office buildings in the very center of Warsaw. It is chosen by companies that care about reputation, high quality office space and that everything is close by; to the railway station, to fashionable restaurants, shopping mall or cinema.

Integrated Control Technology (ICT) enterprise access control solution, Protege GX helps to control people flow and security for this iconic building. Every morning, thousands of people pass through gates secured by Protege GX. Each gate is equipped not only with entry/exit readers but also with OTIS panels. Thanks to seamless integration between Protege GX and OTIS – each user passing a gate is automatically assigned to one of many elevator cabins – which will allow to reach default destination floor in fastest way. This functionality is crucial to relieve the traffic of thousands of people in the morning hours. ICT readers equipped with secure MIFARE and DESFire technology have also BLE (Bluetooth Low Energy) option to allow flexibility for users to use any type of  access credentials.

ICT certified partner xPro Security Technology, a long-standing partner in Poland  was instrumental to implement the  Protege GX system which includes over:

  • several dozen system controllers
  • hundreds of door expanders
  • dozens of intelligent and monitored power supply’s 4A
  • several hundred of proximity RFID readers

Server-based access control system, Protege GX, uses its native HLI lift integration to talk to a dozen  of OTIS elevators. Another dozen elevators are managed by input-output expanders.

“We are very proud that our solution not only secures this iconic building but also makes it more efficient at managing the flow of employees through the integration with the lift system” says Milos Kohout, Sales Director for Central and Eastern Europe .”This type of projects show the flexibility of our Protege GX  platform and, when combined with the knowledge of our partner xPro Security, it delivers a successful solution, saving time for all users of the building.”

Tenzor Acquires the Operations of COPS@ Intelligent Traffic Signaling Systems

Tenzor has taken over the management and operations of the COPS@ business segments, including the entire portfolio of intelligent traffic signaling solutions. This strategic step enables Tenzor to expand its presence in the field of Intelligent Transport Systems (ITS) and provide both existing and new customers with a broader range of advanced solutions for traffic safety and optimization on roads and in industrial environments.

With over 30 years of experience in integrating technical systems into comprehensive solutions for risk management, safety, and business optimization, Tenzor d.o.o. is well-positioned to leverage advanced technologies and expertise to further enhance traffic safety.

Miha Senčar, CEO of Tenzor d.o.o., stated: “At Tenzor d.o.o., we have extensive experience in integrating technical systems into comprehensive solutions for risk management, safety, and business optimization. By incorporating the COPS@ system into our portfolio, we will continue to develop innovative, high-quality solutions to improve traffic safety and enhance the efficiency of road and industrial traffic management.

The transition will be seamless for existing users. Tenzor d.o.o. remains committed to maintaining the high standards of products and services that COPS@ users have come to expect.”

What is COPS?

COPS@ is an advanced intelligent traffic signaling system designed to enhance safety in road and industrial traffic. By utilizing modern technologies, it detects hazards in real time and alerts drivers to critical situations, significantly contributing to the reduction of traffic accidents. Widely implemented in urban and suburban environments, COPS@ enables efficient traffic flow management while improving overall road safety and traffic fluidity.

More information at www.cops-systems.com.

Protecting Critical Infrastructure with Senstar’s Advanced Security Solutions

In an era where threats to critical infrastructure are increasingly diverse and complex, protecting essential facilities has become paramount for national security and operational resilience. Critical infrastructure includes the vital sectors that keep society functioning—such as energy, water, transportation, healthcare, and IT. Disruptions in these areas can have severe consequences, making effective critical infrastructure protection (CIP) essential.

Critical infrastructure comprises both physical assets and digital systems that support essential services. Given the growing threats from cyberattacks, physical intrusions, insider threats, and natural disasters, CIP requires a comprehensive approach combining physical and cybersecurity measures. Effective CIP involves risk assessments, regulatory compliance, security technologies, and rapid incident response, all designed to protect infrastructure from disruptions and ensure continuity.

The Evolving Threat Landscape

Today’s critical infrastructure faces several primary threats:

  • Cyber Threats: Increasingly digitized infrastructure is vulnerable to cyberattacks, with hackers targeting industrial control systems (ICS) and SCADA networks. Successful attacks can disrupt essential services, cause financial losses, and jeopardize data security.
  • Physical Intrusion: Facilities like power plants, substations, and data centers are susceptible to physical breaches. Given their often remote locations, traditional security alone may be insufficient to deter or detect intrusions.
  • Insider Threats: Individuals with authorized access, such as employees or contractors, can inadvertently or intentionally compromise security, making insider threat detection essential.
  • Environmental Risks: Natural disasters like hurricanes and earthquakes pose ongoing threats to infrastructure, especially as climate change increases the frequency and severity of these events.

Senstar’s Solutions for Critical Infrastructure Protection

Senstar has over 40 years of experience developing perimeter and physical security systems specifically tailored to the needs of critical infrastructure. Here’s how Senstar’s technology helps safeguard these vital assets.

  1. Perimeter Intrusion Detection Systems (PIDS)

Senstar’s perimeter intrusion detection systems, fence-mounted, buried or above ground, detect intrusions at the perimeter to prevent unauthorized access. Key benefits include:

  • Scalability: Systems can be tailored for small or large facilities.
  • Reliability: These solutions function effectively even in harsh environments, maintaining accuracy in extreme conditions.
  • Minimized False Alarms: Advanced algorithms filter out noise from environmental factors, ensuring accurate detection.
  1. Video Management Systems (VMS)

Senstar’s Symphony Common Operating Platform integrates video surveillance with other security measures to enhance monitoring capabilities:

  • Scalability: Senstar Symphony supports facilities of all sizes, from single sites to multi-location deployments.
  • Intelligent Analytics: AI-driven video analytics, which can detect suspicious behavior, loitering, or potential threats in real time.
  • Centralized Control: Provides security teams with a unified platform to manage multiple sites and respond rapidly to incidents.
  1. PSIM Integration

Senstar’s integration with Physical Security Information Management (PSIM) platforms enables centralized control and coordinated incident response. This provides real-time situational awareness, improving the facility’s ability to respond swiftly and effectively to potential threats.

  1. Cybersecurity for Physical Security Systems

Recognizing the importance of cybersecurity, Senstar embeds secure protocols, user authentication, and encryption in its systems to protect against unauthorized access and cyber threats.

Benefits

Senstar’s solutions offer critical infrastructure operators a comprehensive security system that provides:

  • Early Detection: Proactive identification of potential threats before they escalate.
  • Cost Efficiency: Integrated systems reduce operational costs and improve security effectiveness.
  • Scalability: Modular systems are adaptable for both small and large infrastructure setups.

As threats to critical infrastructure grow, Senstar’s advanced solutions offer essential layers of protection. Senstar supports robust, resilient, and scalable CIP strategies that help safeguard society’s most vital services. Investing in Senstar’s technology not only enhances security but builds infrastructure resilience, ensuring essential services remain uninterrupted.

How LiDAR Contributes to Preserving Our Heritage

Artworks, sculptures, and historical artifacts carry immense cultural significance, embodying our shared heritage and identity. Yet, their vulnerability to theft and vandalism poses a constant challenge for museums and galleries worldwide. The staggering statistics paint a grim picture: The FBI estimates that global art crime generates $6-8 billion in criminal income annually. In the UK alone, the theft of art and antiques amounts to around £300 million each year. 

Priceless artworks face significant risks from human actions, as demonstrated by several high-profile incidents. In 2022, Vincent Van Gogh’s famous ‘Sunflowers’ was vandalised with tomato soup by protesters, and last year Diego Velazquez’s masterpiece, The Toilet of Venus, was attacked with hammers at the National Gallery in London. Even Leonardo da Vinci’s Mona Lisa has been targeted, with multiple incidents of vandalism.

Given the magnitude of the problem, it is imperative to adopt a multi-layered approach to museum security with advanced technologies that balance effective protection with maintaining the visitor experience. These solutions must be capable of tracking multiple intruders and integrating with existing security measures like surveillance systems.

Advanced technologies, like the REDSCAN series with 2D LiDAR technology, offers precise detection and integration capabilities, enhancing overall security effectiveness. Its compact design allows for wall or ceiling mounting, creating an invisible shield that detects any proximity breaches. Outdoors it can protect facades, roofs, patios and skylights, while indoors it can provide 24/7 protection of valuable art displays or restricted areas. Whether intentional or unintentional, the sensor triggers an early warning system, enabling swift intervention to prevent damage or apprehend perpetrators.

Flexibility is a key feature of the REDSCAN series, with area masking allowing for customization of the detection field to accommodate specific exhibit layouts. Doors, windows, skylights, and ventilation openings can be designated as masked areas, ensuring that protection is tailored to the unique requirements of each installation.

Moreover, area allocation enables precise detection within predetermined zones, making it ideal for safeguarding wall-hanging exhibits or clusters of artefacts.

Integration is seamless with the REDSCAN series, as it can be easily configured and linked to third-party security devices and surveillance equipment via onboard analogue and digital outputs. For instance, at the Netherlands National Military Museum, REDSCAN has been integrated with audio systems, enabling alerts if someone gets too close to the artwork. This eliminates the need for constant monitoring and enhances overall system efficiency.

In conclusion, protecting the past requires a concerted effort that combines advanced technology, strategic planning, and a commitment to preserving cultural heritage for future generations. The REDSCAN series offers a robust solution that not only enhances detection and protection but also ensures a seamless visitor experience.

For more information please visit: www.optex-europe.com

Advanced Launches Upgraded MxPro 5 and Axis EN Fire Panels

Advanced, a global leader in fire and life safety systems, is proud to introduce the latest enhancements to its trusted MxPro 5 and Axis EN fire panels. Building on the strong foundation of the existing solution, these updates are designed to improve performance and versatility, ensuring even greater peace of mind for users.

This upgrade brings a significant boost in performance, with faster power-up times and greatly reduced configuration transfer durations. Users will also enjoy enhanced configuration capabilities, supporting more complex cause-and-effect programming. These improvements make it easier than ever to manage larger and more advanced fire safety systems. Powered by a state-of-the-art processor, the enhanced panels deliver eight times the processing power of previous models, allowing for faster response times, improved system reliability, and the ability to handle more complex installations with ease.

A key advancement is the introduction of an upgraded power supply unit, designed to offer easier replacement, improved support for third-party equipment, and extended battery life. This ensures that the panels operate with greater reliability and uninterrupted performance. In addition to these hardware upgrades, Advanced has introduced a new, intuitive programming tool – ConfigTool (PC-Net-022) – which is compatible with next-generation panels. This tool provides a vastly improved user experience, with easier navigation and up to ten times faster configuration transfer times, now typically taking less than 30 seconds.

The MxPro 5’s versatility is further enhanced by its support for a variety of the latest wired and wireless protocols, including leading open protocol providers Apollo, Hochiki, Argus and Nittan, bringing greater system design flexibility to meet the requirements of a wide variety of sites.

These upgrades have undergone rigorous testing and are FM-approved to EN 54 Parts 2 and 4, affirming their compliance with the highest international fire safety standards.

Backward Compatibility for Seamless Upgrades

On top of these extensive improvements, the next-generation MxPro 5 and Axis EN panels are also fully backward compatible with existing models. This ensures that current users can easily and cost-effectively upgrade their systems without disruption. The panels retain their familiar external appearance and part numbers, simplifying the integration process, while the internal design has been refined to accommodate the enhancements.

About Advanced

Advanced is a leading provider of intelligent fire systems and solutions, committed to promoting safety through innovative technology and education. Our extensive portfolio includes fire detection systems including false alarm management, multiprotocol fire panels, evacuation alert systems and emergency lighting, trusted by professionals worldwide.

Advanced is owned by FTSE 100 company Halma PLC – a global group of life-saving technology companies with a clear purpose to grow a safer, cleaner, healthier future for everyone, every day.

For media inquiries, please contact: arobertson@advancedco.com

Aurel: HEXAN-Gas Detection System in Largest Croatian Oil Factory Čepin d.d.

The Čepin oil factory has stood for high quality with local raw materials for 81 years and is the largest producer of crude and refined oils in Croatia. With a processing capacity of 150,000 tonnes and a production capacity of 32 million litres per year, Čepin is an expert in this field. The popular sunflower oil is produced using hexane at a capacity of around 6,000 litres per hour.

What process is hexane used for and why is a gas detection system important?

Three basic processes play a decisive role in the production of crude oils such as sunflower and rapeseed oil: pressing and extraction as well as refining and bottling. Immediately after pressing the raw material, the oil is extracted from the solid oilseed mixture by adding a solvent (hexane). In this way, almost every drop of oil is extracted from the seeds.

As hexane has a lower boiling point than oil at 68.7 °C, it is then removed again by distillation. Thanks to the minimal heat treatment, the oil obtained remains of high quality and retains a high protein content. Despite its efficiency, hexane is highly flammable and can explode, which is why a reliable gas detection system is essential. To ensure safety in the production of sunflower oil, the production facility relies on a reliable gas detection system from MSR-Electronic. A large number of sophisticated gas sensors monitor the relevant area around the clock, thus ensuring continuous, safe production.

ATEX-Solution from MSR-Electronic

The modern gas detection system was equipped with gas detectors from the PolyXeta® PX2 series and the centrepiece of the system – a Digital-Gas-Controller DGC-06.

Two explosion zones (Ex-zones) were defined in the production building:  In Ex-zone 1, gas detectors were installed both inside the shaft and next to the pump of the hexane tanks. With the exception of a few areas, Ex-zone 2 covers the entire building.

The majority of the gas sensors are installed in the main room with the extraction plant to ensure greater safety. All gas sensors meet the requirements for explosion zone 1. The gas sensors are installed at a height of 0.3 to 0.5 metres above the floor, as hexane in its gaseous state is heavier than air (relative vapour density: 2.97, compared to air = 1). The values measured by the gas sensors are transmitted to the DGC-06 controller.

If the controller recognises that the specified limit values have been exceeded, corresponding warning processes are initiated:

1st alarm threshold at 20 % LEL – A flashing light is activated in the control room.

2nd alarm threshold at 40 % LEL – In addition, a warning tone and a monitor display in the control room are activated.

Technical data PolyXeta PX2 with SX1 sensor head

  • ATEX and IECEx certificates for electrical explosion protection
  • SIL2 for the 4-20 mA, RS-485 and relay safety functions
  • Enclosure: Additional FM and CSA certificate for Class I, Div. 1
  • PX2-1 for zone 1 & 2, variant “Ex db” type of protection flameproof enclosure
  • PX2-2 for zone 2, variant “Ex nR” type of protection
  • Continuous self-monitoring
  • X-change technology and simple calibration
  • Alarm and fault signalling relay
  • Protected against reverse polarity and overload
  • Microprocessor with 12-bit converter resolution
  • Optional: SSAX1 sensor head connection as an alternative to SX1 Protection class IP66 with SplashGuard accessory, LC display with status LEDs

The gas detection system was installed and commissioned by MSR-Electronic’s certified partner Aurel d.o.o. from Zagreb.

AUREL MSR: Why Aren’t All Gas Sensors Mounted at the Same Height?

 

Different gas characteristics and complex interactions in the environment mean that not all gases are detected at the same height. The height and positioning of a gas sensor are therefore of crucial importance for detecting dangerous gases and vapours early on.

Why are gas sensors mounted at different heights?

Gas density

Not all gases are detected at the same height, as gases concentrate at different heights due to their density. A gas may be heavier or lighter than the air. Heavy gases tend to sink downward, while lighter gases rise upward. As a result, a heavy gas that remains near the floor will not be detected in higher areas and a light gas that rises upward will not be detected near the floor.

For example, carbon monoxide in the garage is measured at almost the same density as air and at breathing height. Carbon dioxide, on the other hand, has a relative density of 1.53 and is measured near the floor. Methane has a relative density of 0.56, moves quickly to the ceiling and is measured in that area.

Gas distribution

Gas distribution in the environment is also of crucial importance. The way in which a gas is distributed in a room depends on various factors, such as ventilation, temperature and the position of the source.

The concentration of gases is thus higher near the potential source than it is near the floor or ceiling. Positioning the gas sensor correctly ensures that a hazardous gas concentration will be detected immediately, before it spreads through the room.

Reaction times and sensitivity

Different reaction times and gas sensor sensitivity are also of crucial importance. A gas sensor located near the floor will react to gas that accumulates there faster than a gas sensor near the ceiling.

What else affects the gas sensor height?

Environmental conditions: Environmental conditions in the industry vary. By placing gas sensors at a variety of heights, differences in temperature, air current, or gas distribution, for example, are easier to detect.

Adapting to process requirements: Some processes require gas sensors to be placed in specific locations in order to monitor and control the relevant parameters. This is particularly true of complex production environments such as beverage manufacturing and automatic processing machines. The atmospheres in these areas are often made up of inert gas, which changes the specific density of gases relative to one another. One example of this is measuring oxygen in an argon atmosphere.

Safety standards: Placing gas sensors at different heights helps to ensure safety by monitoring potential hazards or gas leakages on different levels of a building or a plant and triggering an immediate alarm in the event of a hazard. These safety standards may be required by standards. So for example, a sensor height of 1.5-1.8 m is defined in garages for measuring carbon monoxide.

How are the gas sensors mounted?

The gas sensors are mounted in housing that protects them from outside influences. For comprehensive IP protection, the housing is installed with the gas sensor head pointing down. If the gas sensor is mounted at the wrong height, for example, the gas cannot be detected early. If the gas sensor is mounted mechanically incorrectly, the sensor’s IP protection is not guaranteed. It must also be clarified whether there is an air current and whether the gas sensor should be mounted on the ceiling or floor.

In garages, for example, there is a static current. A sensor here can detect the gases within a radius of 7-11 m, corresponding to approx. 400 m².

Which type of connection does MSR-Electronic offer?

MSR-Electronic uses a 3-conductor system for analogue gas sensor connections and a 4-conductor system for bus connections. The 3-conductor connector for the 4-20 mA connection is a stable connection type for an analogue connection. Each individual gas sensor is connected to the controller by means of complex wiring.

With the bus connection, on the other hand, only one cable is placed leading from the controller to the area being monitored. The individual bus users, such as “small light bulbs”, are mounted on a string of lights. The gas sensors are addressed here and communicate digitally with the controller.

Effective Strategies for Managing False Fire Alarms

False fire alarms can lead to substantial financial costs, operational disruptions, reputational harm, and even put lives at risk, Vladimir Zrnic, Regional Sales Manager for Europe at Advanced explains.

False alarms are a persistent issue that cost UK businesses over £1 billion annually. The implications aren’t just financial; repeated false alarms make people complacent, delay reactions in real fire emergencies, and put both lives and property at risk.

European fire services are already under increased pressure from issues such as wildfires, which have burned almost twice as much surface area in Spain, France, Italy, Croatia, and Greece compared to last year, and false alarms can divert them from these real emergencies.

False Alarm Strategies
Effective false alarm management begins with a thorough fire risk assessment and proper fire system design. Two primary approaches are detector technology, which screens false signals, and intelligent fire panels, which analyse sensor data to verify alarms. State-of-the-art systems integrate these methods to significantly reduce false alarms.

Intelligent fire panels

Combining data from detectors with an intelligent fire panel enhances false alarm management. Multi-sensor detectors can switch between heat and smoke modes, and double-knock programming ensures alarms are verified by multiple detectors. Advanced’s AlarmCalm system, featured in panels like MxPro 5, Axis EN, and Go, includes software detector technology that allows time to confirm the presence of fire before triggering a full fire alarm.

Intelligent fire panel applications

Apartments: False alarms often stem from everyday activities like cooking or shower steam. With AlarmCalm, if a verification sounder is activated by cooking smoke, a resident can press the AlarmCalm button to silence the sounder allowing residents to manage these alarms, reducing unnecessary evacuations.

Shopping Centres: In environments like supermarkets, where bakery ovens and other heat sources are common, if smoke from an oven activates a multi-sensor detector a verification countdown timer can begin. If the smoke clears and no heat is detected the system will return to normal, avoiding unnecessary shop evacuations.

Manufacturing: High temperatures, dust, and chemicals in manufacturing plants can trigger false alarms. Here, verification delays help ensure that alarms are genuine, if no further detectors are activated the system will reset, reducing disruption and maintaining productivity.

Offices: Varied occupancy offices can also benefit from flexible programming. With AlarmCalm, virtual building areas can be created independent of traditional fire zones, false alarm management can be tailored to specific needs to enhance safety and efficiency.

False alarms are more than just a nuisance—they compromise safety and incur substantial costs. Robust solutions like AlarmCalm combine advanced detection and intelligent fire panel technology to significantly reduce false alarms across diverse settings. By implementing such systems, businesses can protect their operations, reputation, and most importantly, their people.

For more information on Advanced’s AlarmCalm, visit: https://www.advancedco.com/solution/alarm-calm/

Mobile Children’s Heart Hospital Receives Bespoke Advanced Fire Protection

A mobile children’s heart hospital, built in El Salvador, was recently equipped with an Advanced wireless fire safety system, ensuring top protection for children undergoing heart surgery, their doctors, and staff.

Run by Kinderherzen, the mission of the hospital is to ensure that children born with serious heart conditions receive the treatment they need to go on and enjoy healthy lives. Kinderherzen operates in Germany and mobilises doctors to provide critical care for young patients in areas of the world with limited medical services.

Working alongside fellow Halma company Crowcon, Advanced was approached to devise a reliable fire safety system that would be easy to install, uninstall, and reinstall as the mobile hospital moved between locations across Europe.

For speed and ease of setup, Advanced’s innovative solution was to create a bespoke, wireless fire alarm system. At the centre of the installation is an Axis EN single-loop panel paired with a translator and 19 devices including point detectors, sounder-beacon bases, and call points covering various rooms within the hospital.

The system was pre-programmed at Advanced’s headquarters in Newcastle upon Tyne (UK) and shipped to El Salvador, ready for immediate fitting to minimise on-site setup time.

The wireless nature of the system not only simplifies the installation process but also provides flexibility for future expansions or reconfigurations of the hospital layout. This adaptability is particularly important for a mobile facility that may need to adjust its setup based on the specific needs of each location it serves. The ability to quickly and efficiently adapt the fire protection system without extensive rewiring or hardware changes ensures that high safety standards are maintained at all times.

Despite logistical challenges, the installation process was incredibly efficient thanks to the use of special mounting plates for the control panel, translators, detectors, and sounders, which reduced setup time to less than half an hour.

Speaking about the project, Paul Duffy, Technical Services Manager at Advanced, said: “We are extremely proud to support Kinderherzen in their mission to provide critical medical care to children in need. Given the temporary nature of the hospital, the fire alarm system needed to be robust but highly versatile. The reliability and ease of use of Advanced equipment make it perfect for this unusual brief, ensuring the ideal combination of mobility, performance, and safety.”

This Axis EN wireless installation ensures Kinderherzen staff can carry out their essential work with peace of mind that their team, facilities, and patients are protected by the highest standards of fire safety.

To learn more about Axis EN, visit: www.advancedco.com

For more information please contact:

Vladimir Zrnic

vzrnic@advancedco.com

+44 (0)345 894 7000

ISSUES

Global Security d.o.o.

Hasiba Brankovića c, 71000 Sarajevo, Bosna i Hercegovina
Tel: +387 (0)33/788-985
Fax: +387 (0)33/788-986
Web site: www.asadria.com
Marketing: marketing@asadria.com
Subscription: pretplata@asadria.com
VAT no: 201142740001
ID no: 4201142740001
ISSN 1986-5

a&s Adria – professional security magazine for providing total security solutions is a monthly circulating publication and a licenced representative of Messe Frankfurt New Era Business Media for Adriatic region, which consists of following countries: Bosnia and Herzegovina, Croatia, Kosovo, Montenegro, FYR Macedonia, Slovenia and Serbia.