Fire Protection

Argus Spectrum International is pleased to present its new and unique service for the fire detection world. Web Camera + IP connected kit of actual devices is a pioneering virtual classroom for the programming of the "Streletz-PRO" wireless fire detection system. This service allows fire alarm engineers from all around the world to use one of the remote equipment kits to introduce themselves to the "Streletz-PRO" wireless alarm system. The user can control and monitor the equipment kit in the "Streletz-Master" software, while simultaneously observing each device through a live camera feed. The online practical training is simple and easy to use. Streletz-Master software Before the programming session one will need to learn the theory of "Streletz-PRO". They provide one with all the reference materials one needs online: presentations, technical documentation, and videos. In the video tour of the remote equipment kit, they explain how one can use the "Streletz-Master" software to test the system, check the connection strength, read measurements from devices, and change their settings. After learning the theory one will need to pass a simple admission test to confirm ones basic understanding of the "Streletz-PRO" technology. When one passes it, one will be able to select the time and date of ones session. A confirmation letter will be sent to one e-mail address containing instructions on how to connect ones computer to the remote desktop server.  Streletz-PRO system For ones convenience, they have provided an online chat to contact their technical support during the programming session, which will help one to work with the equipment. After practicing work with the "Streletz-PRO" system, one can pass a final test and receive a certificate of completion!  The online practical training is the perfect way to learn "Streletz-PRO". onecan study from home or from any place in the world at any time.

As people continue to balance work, school, and daily living at home, or are employed in the office or out in the field, it is critical that homes and workplaces are electrically safe, secure, and efficient. The National Fire Protection Association (NFPA) actively supports National Electrical Safety Month, an annual campaign sponsored by Electrical Safety Foundation International (ESFI), which raises awareness of potential home electrical hazards, the importance of electrical fire safety, and the safety of electrical and non-electrical workers, each May. This year’s theme, “Connected to Safety,” focuses on emerging technology. From understanding how to charge electrical vehicles at home and use household electrical safety devices to working safely with or around solar panels and temporary power, homeowners and workers can take steps to greatly reduce electrical hazards associated with the latest technological advancements. “Exposure to electricity poses a real injury risk to workers and the public, especially as new technology is introduced in our homes and vocations,” said Lorraine Carli, NFPA vice president of Outreach and Advocacy. “Many people are not aware of electrical dangers and yet each year people are injured or killed from these hazards. National Electrical Safety Month helps better educate people about the true dangers of electricity and ways to prevent related tragedies from happening.” Electrical Safety Month During Electrical Safety Month, homeowners can take these simple steps to reduce risk: Learn the importance of using surge protective devices to protect against damaging power surges that can destroy electrical equipment in the home Use grounded outlets that guard against electric shock Use a smart plug or power strip to turn off power when devices are not in use Residents should have all electrical work done by a qualified electrician, including scheduling electrical inspections when buying or remodeling a home. Even during this time of social distancing, electricians are still working and considered essential businesses in every state. According to NFPA and ESFI, contact with electricity is a leading cause of workplace injuries and fatalities. During National Electrical Safety Month, electrical and non-electrical workers are encouraged to participate in safety training programs that focus on personal protective equipment, safe work practices, and risk assessments to help avoid electrical injuries, deaths, and OSHA violations, as outlined in NFPA 70, National Electrical Code® (NEC®) and NFPA 70E®, Standard for Electrical Safety in the Workplace. 125th Anniversary Conference Series When exposed to electricity, electrical and non-electrical workers need to follow these steps to ensure proper safety procedures on the job: Design and install temporary wiring according to OSHA, the NEC and NFPA 70E® requirements Have a qualified electrician install temporary power at a work site Consider all overhead lines to be live, energized, and dangerous In May, NFPA will launch its 125th Anniversary Conference Series, a year-long virtual event that will replace the 2021 Conference & Expo and feature educational content, industry roundtable discussions, networking opportunities, and more for building and life safety professionals and practitioners. Empowering Electrical Design On May 18, the first program of the series, Empowering Electrical Design, Installation, and Safety, will highlight the latest code requirements, safety practices, and applicable technology developments in the electrical industry. Learn more about the series and register for the full-day electrical program. NFPA recently launched, Faces of Fire/Electrical, a video awareness campaign focused on electrical hazards and created in collaboration with the Phoenix Society for Burn Survivors. The series reminds everyone about the importance of taking action – at home and in the workplace – to stop electrical incidents from happening.

Last week the world’s premier fair trade for Security, Safety & Fire Protection – Intersec-2020 was held in Dubai (UAE). Argus Spectrum International attended the exhibition and presented its flagship - innovative wireless fire detection and security system Streletz-PRO. The 22nd edition of the foremost security, safety, and fire protection trade show welcomed over 1000+ exhibitors from 56 countries and 33,584 industry visitors. The annual exhibition displays up-to-date technologies and attracts major companies from all over the world. This year in addition to technical consultations, live presentations of the unique Streletz-PRO system were made daily and every two hours at the stand of Argus Spectrum International. All the visitors could learn about the advanced possibilities and special features of the innovative wireless fire detection and security system.  Presentation of LPCB certificates  The company passed the rigorous ISO 9001 audit of the two factories and received approvals by LPCB\BRE Group On 20th January an official presentation of LPCB certificates took place at the Argus Spectrum International stand. At the end of the last year, the company passed the rigorous ISO 9001 audit of the two factories - in Finland and in Russia, and received approvals by LPCB\BRE Group. The certificates were presented to Director General Sergey Levchuk and CEO Mikhail Levchuk by the senior managers of BRE Group - the Head of Electronics, Security and Inspection Services Chris Francis and the Business Development Manager Martin McCullagh.  Dubai Civil Defense and the Russian Research Institute Meeting One of the landmark events of the exhibition was the official meeting between the Directorate General of Dubai Civil Defense and the Russian Research Institute of the Ministry of Emergency Situations. During the meeting, the opportunity for cooperation between the two countries in the legal regulation of fire safety was discussed.  wireless fire system Streletz-PRO  Streletz-PRO is an advanced wireless fire detection system that delivers the highest levels of performance and reliability.  Technical summary: A self-healing mesh network: All wireless devices automatically choose a parent repeater  Advanced specifications: 10-year battery life; 3 seconds alarm activation delay; 1200 meters communication range between devices; 2 000 wireless devices in the system Personal wearable bracelets for positioning and paging 'Ariadne’s Thread ™’ wireless directional evacuation: strobe lights, voice and sound alarm

  On the 20th of January, the official presentation of LPCB certificates took place at the Argus Spectrum International stand. At the end of the last year, the company passed the rigorous ISO 9001 audit of the two factories - in Finland and in Russia, and received approvals by LPCB\BRE Group. The certificates were presented to Director General Sergey Levchuk and CEO Mikhail Levchuk by the top managers of BRE Group - the Head of Electronics, Security and Inspection Services Cris Francis and the Development Manager Martin McCullagh.  Like the first day of the exhibition, all guests of Argus Spectrum International stand could attend the presentation of the Streletz-PRO wireless fire system and learn about this unique product.  Visit stand A 12 in hall 4 of the Dubai World Trade Centre.

  Streletz-PRO is the first and only wireless fire detection system in the Russian Federation to gain European certification. In December 2019 international certification body IMQ successfully completed the approval program and issued EN 54 product certificates to Argus Spectrum International. Gaining IMQ approval was an important milestone in Argus Spectrum International’s development on the global market. IMQ is a leading certification body with global operations incorporating a network of more than 200 laboratories fully equipped to undertake all aspects of product certification.  The certification process started in September 2018 involving rigorous product testing as well as testing and auditing of product lines. Argus Spectrum International completed all certification stages without incurring any non-conformities. Streletz-PRO wireless products are designed, manufactured, and certified to fully meet the requirements of EN 54 standards.

A new guide that outlines the key updates relating to cable pathways has been launched by Legrand UK & Ireland, following updates to a number of key industry regulations. The guide – Creating Cable Pathways – follows recent updates to the IET wiring regulations, as well as the release of the Dame Judith Hackitt independent review of building regulations and fire safety final report. Current standards landscape It has been launched to provide electrical installers with assistance and recommendations on how to best specify cable containment systems, explaining how to create a cable pathway through a building while navigating the current standards landscape. The guide provides the relevant information key stakeholders such as architects, designers, consultant and electrical contractors need to know. Our paper provides installers with everything they need to know on the updates" Mark Williams, Lead Marketing Manager – Cable Management for Legrand UK & Ireland, said: “Legislative updates can often be a minefield for electrical professionals, but the consequences of not meeting guidelines can be significant. Our paper provides installers with everything they need to know on the updates, to ensure cable pathways are completed effectively and safely.” Minimizing fire spread The short guide provides an overview including fire safety in design, management and use and the Construction Products Regulation (CPR). It also explains the relevant changes to the BS 7671:2018 IET Wiring Regulations 18th Edition, which include: Protection against thermal Locations with risk of fire due to the nature of processed or stored materials. Selection and erection of wiring systems. Wiring systems to minimize the spread of fire. Cable management pathways Mark adds: “Safety excellence in wiring has been heightened in recent years and wiring systems must be adequately supported against their premature collapse in the event of a fire. As the built environment continues to evolve, installers must ensure they have absolute knowledge of the changes to fully equip themselves and their projects against hazards.” In addition to the guide, Legrand has also created a CPD – ‘Creating a Cable Pathway Through a Building’ – which brings relevant updates together to offer guidance on how to create effective cable management pathways. The CPD, which can be delivered online, has been designed for professionals – both experienced and new to the industry - looking to upgrade their skills and refresh their knowledge.

There is a sense in some markets that the paper and pulp industry will decline owing to the digital technologies with which people interact every day. While this might be considered logical, the reality is completely different. In fact, the paper and pulp industry has experienced a steady growth and will continue to do so in 2021. Production of paper increased by more than 450% in the last decades and the demand of paperboard in the world is expected to grow significantly, driven by e-commerce and big retailers increasing their presence in the online sales universe. This sustained growth in production capacity and paper consumption presents several fire risks to companies and exposes communities that develop around paper mills, to the impact of disasters caused by these fire risks. Fire risks in the paper and pulp industry Paper and cardboard are combustible, but this is not the only fire risk found in these types of industries. Raw materials and finished goods storage are sensitive to fire. In addition, the paper making process includes several stages where fires can occur, due to hot surfaces or poor ventilation. The most relevant fire risks on a paper plant are: Storage Areas: As mentioned before, paper and cardboard are combustible. Solid paper blocks and reels have hard surfaces that don’t ignite easily, but usually these reels can suffer minor damages or have loose sheets that significantly increase the fire risk. When paper reels are stacked in columns, gaps in the center can act as chimneys and when fires start in the bottom of the stack, this chimney effect will accelerate smoke and hot air spread, increasing vertical and horizontal flame spread. Wood and Bale storage fire risks Bale storage also presents a high fire risk, as loose materials are always present Raw materials for the paper making process can have two main sources, forestry products (mainly wood) or recycled cardboard and paper. Wood storage presents several challenges, especially due to wood chips that are highly combustible and, in some cases, even explosive. Bale storage also presents a high fire risk, as loose materials are always present. Fire in baled paper is difficult to extinguish and generates heavy smoke. In many recycling facilities, these paper bales are stored outdoors, where paper or rags soaked in flammable liquids, embedded between the paper sheets, can ignite resulting in a fast spreading fire. Chemicals, flammable liquids and gases In addition, it is possible to find different types of chemicals, flammable liquids and gases that are used in the paper making process. These materials have their own fire-related risks that need to be taken in consideration. Production Areas: In pulp factories, there are several long-distance conveyors that transport wood and wood chips. These conveyors constitute a fire risk and the most probable causes of fire are bearing damage, overheating of the conveyor and igniting chips in the environment. IR dryers, a common source of fire After the wood has been transported, chipped and digested, the paper making process becomes extremely humid, due to the large amounts of hot water and steam needed. But, as soon as the pulp fiber sheet starts to dry, the hot surfaces in contact with the paper sheets can be a source of ignition. IR dryers used in the process are also a common source of fire in the paper industry. When the sheet of paper is formed, close contact with reels and bearings moving fast can create static electricity that could ignite loose paper or airborne particles. Problems like these are likely to be more extensive in tissue mills. Paper dust is generated in certain parts of the process, especially where paper shits are slit or cut. Poorly insulated steam pipes lead to fire Poorly insulated steam pipes can ignite paper dust or even their own insulation materials. In addition, paper dust gathers in the ventilation grills of machinery, causing overheating and igniting as well. Heated oil is used in several parts of the process as well and if a malfunction occurs on the Hot Oil Roll systems, leaks might occur, exposing hot surfaces to this oil and causing ignitions. A paper mill has hydraulically operated machinery, where leaks or sprays might ignite as well. Service Areas: As in many other manufacturing facilities, several service areas can be found. Electrical and network equipment rooms have an inherent fire risk due to damaged wires or equipment, overheating or short circuits in high voltage circuits. Transformer and generator areas entail fire risks as well. High fire risk for boiler rooms Flammable gas distribution systems can be ignition sources, in case of leaks or damaged pipes or valves Hot water and steam are key components for the paper making process. For this reason, paper plants use high capacity boilers that can be powered by flammable liquids or gases. A high fire risk can be considered for boiler rooms. Flammable gas distribution systems can be ignition sources, in case of leaks or damaged pipes or valves. In addition to the fire risks mentioned in these areas, many maintenance operations can also pose fire risk, especially when hot works are being performed. Sparks caused by welding or the use of certain tools can ignite paper sheets or dust in the air. Poor housekeeping and buildup of paper dust, for example, increases the risk associated with maintenance and construction works. Prevention, the first line of defense According to the Health and Safety Executive from the United Kingdom, 60% of fires on paper mills are caused by machine faults and poor housekeeping. The first line of defense to avoid fire risks in paper plants is prevention. As mentioned before, a high number of fires in these types of facilities occur because of poor housekeeping and machine malfunction. The key is to identify the risks and possible ignition sources, and apply measures to minimize them. As in many industries, fire protection has two main components: Passive and Active protection. Passive fire protection measures Passive measures include fire rated walls, ceilings, and floors in the most critical areas. Chemical storage areas should be physically separated from other dangerous areas, if this is not possible then the walls separating areas should be fire rated and materials must be stored in a way that minimizes the risk of fire spread by radiation or conduction. Proper compartmentalization and intumescent protection of structural elements should be part of the package as well. Passive measures include proper ventilation and smoke control. As mentioned before, paper dust is a major fire risk, which is why ventilation and cleaning of hoods over the paper machine is important to minimize the possibility of ignition. Fire resisting construction should be designed with the following goals in mind: Protection of escape routes Form compartments to contain fires that might occur Separate areas of higher fire risk Protect load bearing and structural members to minimize risk of collapse Sprinkler systems, gas extinguishing systems and hose reels Active fire protection includes sprinkler systems, gas extinguishing systems and hose reels to support fire brigades Active fire protection includes sprinkler systems, gas extinguishing systems and hose reels to support fire brigades. Finished goods stored indoors should be protected with sprinkler systems and the same should be considered for chemical storage areas and certain raw materials. Paper bales, ideally should be protected by sprinklers that are suitably designed to cope with the height and located, in all cases, 3 meters above the level of bales stacked vertically (which should not exceed 5 meters height). Spark detectors in hoods, pipes and ventilation systems Dangerous sparks could be generated in several parts of the paper making process, which is why spark detectors must be installed in hoods, pipes, and ventilation systems. Water spray and CO2 systems can be used to protect machinery against these risks. Means to fight fires, like extinguishers and hose reels, should be provided to support fire brigades. All the elements should be properly identified and all personnel should be trained and made aware of the location of such devices. Importance of fire alarms Fire alarms are required in all paper mills and fire alarm call points should be provided in all locations, according to international guidelines, such as NFPA 72 or EN54. The spread of flames and smoke in paper, wood and chemical storage might become extremely fast. For this reason, early detection is critical. Many technologies might be applied in the different areas of a paper plant. Nevertheless, there are dusty or humid areas where regular heat or smoke detectors might fail under certain circumstances. For these areas, especially located outdoors, innovative state-of-the-art detection solutions might be applied, like Video Fire Detection (VFD). NFPA 72 standard for flame and smoke detection NFPA 72 provides guidelines to implement this technology for flame and smoke detection NFPA 72 provides guidelines to implement this technology for flame and smoke detection, opening interesting alternatives for designers and fire protection engineers. Many EHS managers and fire protection professionals selected VFD, because it is the only fire detection solution that effectively covered their needs. Many engineers, specialized in fire protection for paper plants, explained that they tested linear heat detection, aspiration smoke detection, IR/UV detectors and even beams, but none of these technologies performed as they needed on the dirtiest or more humid areas. Video Fire Detection (VFD) solutions Outdoor storage areas are often unprotected, because deploying flame or heat detection in large open areas can be costly and mostly ineffective. VFD solutions can detect smoke and flames in outdoor conditions, allowing the monitoring and protection of wood and paper bales in large areas. Fire detection and alarm systems should be designed with the following goals: Minimize risk of fires, including the use of fire detection technology in areas where regular detection technologies cannot be implemented or are not practical. Minimize risk of flame and smoke spread, with state-of-the-art detection algorithms that guarantee fast and effective detection. Also, reliable algorithms minimize the possibility of nuance or unwanted alarms. In case of a fire, fast detection gives occupants life-saving time to reach to a place of safety, before the flames and smoke have spread to dangerous levels. Global production of paper and pulp reached 490 million tons in 2020, with many industries and markets depended on the paper and pulp supply chain. That is why innovative ways to protect this supply chain, are key to sustain the paper market growth in the future.

The UK’s demand for sustainable heat and power sources is increasing rapidly. This is seeing a growing dependence on renewable energy sources for electricity, and, as we’re facing a landscape of constrained power generation, consistency of this power source is becoming a key concern. Fire is an evolving risk for power stations. It can cause prolonged outages, which are damaging to sites’ personnel, equipment, and fuels. However, these fires are very common. James Mountain, Sales, and Marketing Director, Fire Shield Systems, looks at the current system underlying fire safety for power stations, exploring why a new approach is needed.   Traditional Fire Safety guidance  Over the past ten years, The National Fire Protection Association’s NFPA 850 Recommended practice for electric generating plants and high voltage direct current converter stations has been seen as the exemplar internationally for fire safety at power generation sites. These recommendations sit alongside a complex mix of regulations managing the fire protection across sites that create power from combustible feedstocks. Those feedstocks can either be derived from organic sources, including wood and agriculture or refuse sources, including household waste. The exploration of alternative systems is limited, but different fuels and processes need different suppression, detection, and monitoring systems to remain effective. However, chapter nine of the guidance dedicates only four of its 70 pages to the fire risks specifically pertaining to the handling and storage of alternative fuels, a rising concern for the power generation industry. Practical experience of advising on the fire safety for sites handling these fuels has revealed a conflicting array of approaches to risk mitigation, many of which are guided by the owner, led by the insurance industry. For the insurance industry, the main concern is protecting fuels, assets, and equipment. However, insurers often rely on more traditional methods to offer that protection, such as sprinkler systems, despite these not always being suitable in protecting certain types of feedstocks. The exploration of alternative systems is limited, but different fuels and processes need different suppression, detection, and monitoring systems to remain effective. To better address, the growing challenges faced, best practice legislation and guidance for power generation sites needs to reflect real work scenarios, including the myriad incidents which have occurred throughout the past decade.   What are the risks When Dealing with alternative fuel?  When it comes to dealing with alternative fuels, storage, movement, processing, and transportation all present significant fire risks. These risks become more complex with alternative fuels compared with others as, to protect the site effectively, there’s a need to understand their unique properties, consistencies, ingress of hazardous materials, and their reactions on contact with water and foams. When it comes to dealing with alternative fuels, storage, movement, processing, and transportation all present significant fire risks The myriad risks, from carbon monoxide (CO) emissions to large explosions, are guided by an equally complicated set of fire safety guidance. Research into the safe handling and storage of these fuels, and the most suitable mitigation measures to offset the risks, is ongoing. Detecting and monitoring heat within alternative fuels when stored is also challenging, as the material is also an insulator. This means fire and heat are often difficult to identify in their early stages, prior to a blaze taking hold. Some types of alternative fuels are also prone to self-combustion if not monitored carefully. The risk of fires burning slowly within these materials is the topic of a major study from Emerging Risks from Smouldering Fires (EMRIS) between 2015 and 2020. The need for new best practice guidance in fire safety As methods for generating renewable power mature, and new technologies and research emerge, fire safety guidance needs to be updated to reflect this. This is not only a UK-wide challenge, but it’s also recognized across global and European standards. Regulations need to take into account a range of factors to ensure protection systems are effective in practice. The development of renewable power sources requires revision of fire safety guidance. Now, a decade on from when the NFPA 850 was first published, it’s time to revisit its guidance and focus on building a more resilient, fire-safe future for all of the UK’s 78 biomass and 48 waste to energy sites. This involves greater clarity pertaining to the specific risks associated with alternative fuels, such as waste and biomass-derived fuels. The approach needs to be comprehensive, looking at every aspect of designing, installing, and maintaining systems.While the power generation industry remains reliant on outdated and complex guidance, with conflicting approaches to best practice protection, the potential for systems to fail is clear. That robust approach relies on multiple stakeholders working together – including the regulators, government, academics, technology partners, and fire safety professionals. Collaboration is key to build long-term confidence in the safety of sustainable fuels in powering our homes, transport, and industries in the future.

Mathew Baxter is the Founder and CEO of the echelon group with responsibility for the management of echelon Consultancy, Pretium Frameworks and echelon Improvement Partnerships. Mathew has spent most of his working life in the construction sector. The devastating Grenfell Tower fire has prompted what the government has referred to as ‘the biggest change in building safety for a generation’. So what do the Building Safety and the Fire Safety Bills mean in terms of emergent legislation and is the housing industry prepared for substantive change on this scale?  Fire Safety Bill Let’s start with the new Fire Safety Bill, which has been designed to give clear definitive guidance principally around areas of responsibility for fire safety. One way of looking at the new Fire Safety Bill is as a piece of legislation designed to beef up the existing legislation, focused specifically around the envelope of the building.   The Fire Safety Bill makes it clear that the person designated as responsible has undertaken a fire safety survey around exterior walls (including cladding, balconies and windows) and individual flat walls entrance doors, where they open onto common parts to make sure they are compliant and if not, then to take any necessary remedial action and precautions to make that building safe. We suspect that demand for fire experts may rapidly outstrip supply. Building Safety Bill The Building Safety Bill proposes a significant amount of consultation is going to be required with residents The Building Safety Bill proposes a significant amount of consultation is going to be required with residents. Every ‘higher risk’ property has to have a strategy around the program of change that it will need. Resident consultation exercises will result in organic documents that will live as long as that building is occupied.  Ideally all stakeholders (for example repairs contractors) coming in and out of properties should be encouraged and trained to take a holistic view of that property, and to be prepared to raise an alert, if they see something that is not right, for example, a fire door that has been propped open.  Checking and replacing old appliances Many fires are caused by residents’ own appliances. Some local authorities are checking tenants’ appliances and if they seem unsafe, either removing or disconnecting them and in some cases, they are also providing free replacements.  Housing associations and landlords will need to demonstrate a comprehensive understanding of their property and stock. For example, if you have a cladded building, you need to know exactly what the specification of that cladding is. Not all cladding is equal and risk profiles vary. Intrusive surveys may be required to ascertain the exact construction and product used. There is still a clear issue that many building owners/managers are unsure of what their building is clad in and how the cladding is fixed for the building. Effectively, this is something landlords need to get a comprehensive understanding of immediately, for fear of very rapid enforcement action from the Local Authority.    Adherence to fire safety regulation compliance Local Authorities are entirely within their rights to approach housing associations and ask for copies of the fire safety regulation compliance of these buildings and if it has not been done then they can take action and that can include decanting the whole building and ordering remedial works As previously mentioned, two new roles are also specified within the Building Safety Bill, that of the Accountable Person within an organization for fire safety and the Building Safety Manager. It is anticipated that the role of the Accountable Person role will need to be fulfilled by a senior member of staff within the client organization and the Building Safety Manager will have a high level of responsibility and accountability for maintaining the safety of the building.  Competency frameworks and resident engagement strategies The Building Safety Bill may have a grace period, before it comes into force on existing buildings The Building Safety Bill may have a grace period, before it comes into force on existing buildings and elements that are likely to be included are already being discussed, for example competency frameworks, resident engagement strategies and two separate roles, namely Building Safety Managers and Accountable Person. One of the most significant changes that the Building Safety Bill will create is a new definition of buildings as ‘higher risk’ buildings. This category will obviously include high rise, but also student accommodation and supported living accommodation.  High risk buildings Any building over 18 meters, or more than six floors high is immediately defined as high risk. The Bill also makes it clear that the new Building Safety Regulator (created under the Bill) can also add other buildings to the category at their discretion. The Bill places a lot more responsibility on landlords and owners of those buildings. In fact, the Accountable Person has legal responsibility for those buildings, as long as they are occupied.  Assessment of fire safety risks Responsibilities include the assessment of fire safety risks, co-operation with any remedial action in terms of fire safety, the registration of high-rise buildings, building safety information and the appointment of the building safety manager.  The Accountable Person has a duty to report the name and details of the Building Safety Manager to the Building Safety Regulator. This individual’s contact details have to be available to everyone in the building, a safety case report has to be undertaken and managed along with a risk assessment and an ongoing strategy for the safety of the building and information provided to the new regulator.  If the Building Safety Manager is found to be non-compliant then she/he risks a prison sentence.  Many of the clients are appointing Building Safety Managers directly with a salary between £60,000 – £70,000. The guidance is that they should not look after more than five buildings each, as the responsibility carries too much weight for more and as such, this represents a significant resource for many landlords with a large portfolio of ‘higher risk’ buildings. Undefined transition period for Act rollout The new Building Safety Regulator will become the Building Control Authority for higher risk building There is expected to be an as yet undefined transition period before the Act applies to existing buildings. As well as the changes that will be necessary to existing buildings, it is essential that consideration is given to the design and thought process behind new developments and new builds. There is a whole new regime for the design and construction phase.  The new Building Safety Regulator will become the Building Control Authority for higher risk buildings. Developers are no longer able to choose their building control authority at will. This imposes strict competency requirements on all duty holders working on higher risk buildings, including the client, the principal designer and principal contractor. Impact of the two safety bills The impact on these two Bills will have an enormous impact on leaseholders and indeed everyone involved in construction and building maintenance. The administrative burden and personal responsibility on those accountable will be equally enormous but, in our view, in the light of Grenfell, absolutely necessary.  Our advice to all our clients is to start planning ahead and to develop a strategy of how they will deliver all the aspects of the Building Safety Bill once it becomes legislation.

Fire and EMS departments are eligible for reimbursement from the Federal Emergency Management Association (FEMA) of their costs, related to the COVID-19 pandemic. A streamlined project application process eases the burden of applying for the program, but support documentation is required. Tracking costs For COVID-19 recovery Many departments do not apply for the money because they perceive reporting requirements as too difficult, and record-keeping as too big a challenge. To help, the U.S. Fire Administration (USFA) provides simple Excel worksheets for tracking costs related to COVID-19 response and recovery. Customizable worksheets capture common reimbursable costs as they are spent.  Departments seeking reimbursement should submit a project application online at the FEMA Public Assistance Grants Portal (no paper submissions are accepted). FEMA’s Public Assistance Program The mission of FEMA’s Public Assistance Program is to provide assistance to State, Local, Territorial, and Tribal governments The mission of FEMA’s Public Assistance Program is to provide assistance to State, Local, Territorial, and Tribal (SLTT) governments, and certain types of private nonprofit (PNP) organizations so that communities can respond quickly to and recover from major disasters or emergencies declared by the President. A submission request for public assistance must provide complete and accurate documentation of expenses and usage, including standardized Incident Command System (ICS) forms, Public Assistance Grant forms, verifiable receipts, personnel costs sheets and apparatus sheets. Applications submitted via jurisdiction serviced Applications are submitted through the jurisdiction serviced. Additional documents include supporting plans, assignments, activities and shift records (payroll), pay policy receipts for purchases and rental equipment, and a copy of the service agreement/contract with the jurisdiction. Some activities may be eligible for funding through both FEMA and other federal agency funding sources for COVID-19, including the U.S. Department of Health and Human Services’ Centers for Disease Control and Prevention (CDC) and Office of the Assistant Secretary for Preparedness and Response (ASPR). Public assistance cannot duplicate funding from another federal source. Public Assistance program Some activities may be completed through direct federal assistance. If an applicant does not have the capacity to directly complete the activity or oversee activity completion through contract or mutual aid, the Applicant may request that FEMA or another federal agency directly conduct the activity. The assistance FEMA provides through its Public Assistance program is subject to a cost share, with the federal share not less than 75% of eligible costs.

Hundreds of sensors and devices operating across an entire city – all connected via the Internet of Things (IoT) – combine to provide useful and actionable information for a variety of functions – including public safety and fire protection. Even as IoT sensors and devices monitor buildings to provide vital information, computer systems transform sensor data into intelligence. Communication advances are ensuring that intelligence is shared when and how it is needed. The National Fire Protection Association (NFPA) divides smart firefighting technology into three categories – environmental (smart buildings or robotics), operational (communications), and personnel (PPE sensors or biometrics). Fire departments in smart cities can fuse and apply data captured from various smart sensors, computing technologies, building control systems, municipal grids, firefighting equipment, mapping information, and apparatus systems to inform budgeting, planning, operations, tactics, and outreach, says NFPA. Here are some ways that smart cities can provide information and insights to enhance fire safety and protection for residents. Perpetual monitoring of building conditions, including temperature sensors, to alert to possible fire dangers Intelligent building platforms can use artificial intelligence algorithms to analyze building systemsIntelligent building platforms can use artificial intelligence (AI) algorithms to analyze building systems, track fire inspections, gather pre-incident data, etc. Smart building intelligence (SBI) platforms can also share and analyze municipal data records for new construction project permits, fire hydrant malfunction, street closures, and event planning, among other information. Faster notification of fire events, which contributes to faster response IoT devices that monitor buildings in smart cities can detect fires more quickly, compared to traditional smoke detectors. Heat-proof sensors communicate where and when a fire starts, its intensity, nature, and patterns of spread. Providing more information to enable firefighters to be more effective Improved information flow enhances the capabilities of incident command centers, expands computer-aided dispatch, and provides better situational awareness for firefighters working on the scene. Knowledge of what’s happening on the ground enables streamlined approaches to firefighting and evacuation, enabling “Know Before You Go” smart firefighting. Routing traffic to clear the way for fire and emergency personnel Correlating response plan information with intelligent traffic management systems and collision avoidance technology can help prevent accidents involving emergency and civilian vehicles. For example, all civilian vehicles in a given area may be rerouted to avoid traffic mishaps. Protection and monitoring of fire personnel, including in dangerous environments  Integration with personal safety devices and fire suit technology enables tracking of firefighters to provide incident commanders better visibility into where individual firefighters are working to battle a blaze. Radio-frequency identification tracks firefighters’ locations in real-time. Acoustic transmitters provide locations of firefighters who have not moved for a predetermined period of time. Sensors may soon provide additional information, such as oxygen and carbon dioxide pressure, volume flow rate, heart rate, gas pressure, body temperature, etc. Smarter fire prevention equipment, such as smart sprinklers, that can facilitate fire response Sensors interface with a sprinkler device and wirelessly transmit status information to a database used by facility managers and inspectors to identify problems. Sensors even enable sprinklers to spray high-pressure mist into flames at the hottest point in a room. Measuring the volume of water that has been flowing through a sprinkler system reflects real-time progress in fighting a fire and informs when and how to send in fire personnel. Automating fire response, including use of drones A drone could be launched as soon as an incident response is dispatched, and then fly to an incident site to provide real-time situational awareness via video streaming from the sky. Communicating vital intelligence to firefighters, when & how they need it Fire safety and protection is just one aspect of the many uses that can benefit from the connectivity and intelligence of smart citiesInnovations in technology such as Next Generation 911 and the First Responder Network Authority (FirstNet) public safety network ensure effective communication among firefighters. Low-power Wide Area Networks (WANs) and wireless networks transmit a wide range of data to firefighters as needed, using mobile data terminals, tablets, smartphones, or computers. Systems provide more data-rich information in real-time, such as closed-caption video streams or data from IoT devices. Public safety answering points (PSAPs) provide access to cloud-based computer-aided design (CAD) platforms, advanced location information, and data from devices such as phones, wearables, connected cars and homes, and transportation apps. Fire safety and protection is just one aspect of the many uses that can benefit from the connectivity and intelligence of smart cities, although its impact on saving lives is among the most profound.

Drone usage by public safety agencies is at its highest level to date, with nearly 4,000 agencies now having drones or drone programs. Leading the implementation of drones in law enforcement with 42%, followed by fire service at 37%, emergency management with 12%, and the remainder by other categories such as search-and-rescue and EMS. Some of the primary fire missions for drones are structural fires, wildfires, hazmat responses, fire forensic investigations, swift water rescues, floods, tornadoes, search for lost persons, and hurricane damage assessment. Using Thermal imaging A thermal image camera is a key payload for drones in the fire service as it supplies heat signatures that provide valuable information as to fire spread, structural integrity, and location of firefighters while operating around the fire. Thermal images see through smoke to direct elevated streams effectively onto the fire and identify hotspots Thermal images see through smoke to direct elevated streams effectively onto the fire and identify hotspots from a lightning strike, hotspots during overhaul, hotspots from wildfires, and liquid levels in hazmat tanks. Applications of drones Drones in hazmat can be deployed to do remote monitoring, substance identification, pre-entry evaluation, overwatch during the hazmat operation, and drop needed tools nearby. They can also identify spills and direction of flow, pollutants on or in waterways, and more. For wildfires, drones can quickly identify the direction of fire spread, the distance between the fire and firefighters, hotspots remaining, and can drop incendiary devices to start backfire operations. Drones are also used before and after the fire to determine the fuel load present. Pre-fire analysis of the fuel load can be used to mitigate and/or minimize hazardous situations before the fire. fire-service training The fire service is also using drones for training. Roof operations and other training can be observed and captured to review later. Also, drones can capture facility pre-fire plans as well as complex building projects. Every fire department will deploy a drone to enhance safety, operational effectiveness, and real-time awareness “As fire service (and public safety) leadership fully understand the potential of what drones offer, every department will be deploying a drone (or two) for significant incidents as a part of the initial response to enhance safety, increase operational effectiveness, and real-time situational awareness,” says Chief Charles L. Werner (Emeritus-RET), Director, DroneResponders Public Safety Alliance.  Non-profit Program The DroneResponders Alliance is the largest and an award-winning non-profit program to advance the use of drones in public safety (for all disciplines). While focused on the United States, DroneResponders has more than 3,800 members and representation from 47 countries. On its website, DroneResponders hosts the largest Online Resource Center (more than 600 documents – standard operating procedures, policy manuals, Certificate of Authorization/Waiver Guidance, etc.) and has a discussion forum with many topic threads. Increasing drone programs Drone programs (free flight and/or tethered) will continue to increase exponentially for the fire service. There were over 17 public safety use cases identified on the DroneResponders Spring 2020 Research Study, and even these case studies can be broken down even more. “One thing that we have found is that if a single agency has a drone program, they usually fly other missions as well as their primary mission set,” says Werner. “So if a fire department is the only agency flying, they will usually cover fire missions, police missions, and emergency management missions. The same is true if it were a single police agency flying.” Having real-time awareness “Real-time 360 situational awareness is a game-changer with visual optics, thermal imaging, and streaming video on structure fires, wildfires, hazmat incidents, lost person searches, floods/swift-water rescues, hurricanes, tornadoes, earthquakes and more,” says Werner.  “I ask agency leaders if they would ever make command decisions with their eyes closed because, without that aerial view, many hazards or critical information are not known,” adds Werner. “I do believe as the numbers of drones increase, prices will fall and there will be a more competitive marketplace.” Limitations of drones One of the main obstacles of the drone is the current length of flight is limited by battery life The main obstacles that remain are regulatory limits on Beyond Visual Line of Sight (which are changing) and one remote pilot operating multiple drones. Other obstacles include a need for competitively priced drones with comparable payloads, and the current length of flights is limited by battery life. In France during the Notre Dame Cathedral fire, a drone was used to identify the best position to attack the fire to prevent further spread to the remainder of the cathedral. Initiatives taken by DroneResponders Other DroneResponders initiatives include: Monthly Public Safety UAS Webinars in partnership with the FAA; Monthly Podcasts that highlight Public Safety UAS programs, successes, emerging technologies; A Major Cities Working Group (cities over 500K) headed up by Capt. Michael Leo (Fire Department of New York); A Drone as a First Responder Working Group headed up by Capt. Don Redmond (Chula Vista [Calif.] Police Department); Legal/Policy Working Group led by Dawn Zoldi, Founder and CEO of P3 Tech Consulting; Public Safety/Media Working Group led by Mickey Osterreicher (National Press Photographers Association); Training Curriculum Standard Working Group facilitated by Katie Thielmeyer (Woodlawn [Ohio} Fire Department); National Public Safety UAS Database Project headed up by Charles Werner in partnership with NASA Ames Research Center; and National Public Safety UAS Database Mapping Project headed up by Brandon Karr (Pearland Police Department) in partnership with Esri [mapping and software provider].

C-TEC’s new CAST ZFP fire alarm system is protecting an exciting new hospitality venture in Cheshire, United Kingdom. Situated in the beautiful village of Tattenhall, The Bear and Ragged Staff has been radically transformed from a derelict shell into a high-end pub, restaurant and hotel, by a team of talented professionals, including Brian Mellor, an award-winning chef, and Martin Hilton, an industry-renowned beer sommelier. Featuring a fabulous bar/restaurant, eight en-suite bedrooms, and a first-floor function room, the magnificent venue is prominently positioned on the High Street and set not only to become a focal point in the village but also attract clientele from far and wide for celebratory and corporate events. CAST ZFP fire panel and detectors installed At the heart of the building’s life-safety systems is a C-TEC CAST ZFP fire panel connected to over 100 CAST detectors At the heart of the building’s life-safety systems is a C-TEC CAST ZFP fire panel connected to over 100 CAST detectors, sounders, VADs, and ancillary devices, spanning over four floors. The master 2-loop ZFP panel is located in a storeroom but relays key system information to a state-of-the-art Compact Controller, which is prominently displayed in the elegant reception area. With its bright easy-to-use touchscreen-control interface, the controller is stylish, highly visible and can be easily accessed by the fire and rescue service, and authorized personnel if required. L2 BS 5839-1 fire safety system John Westerman, Director of Wrexham-based Allied Fire Alarms Ltd, the company that specified, installed, and commissioned the system, said “We chose CAST ZFP as the cornerstone of The Bear’s L2 BS 5839-1 system, as it is powerful, intuitive, and has the capacity to connect to multiple intelligent devices. Our client also had some specific requirements for fire detection in certain areas which were facilitated using CAST’s innovative software and extensive programming capabilities.” John Westerman adds, “We were delighted to be involved with this project. As an NICEIC-approved specialist fire company, we pride ourselves on delivering top-quality life-safety systems to our client’s satisfaction and the CAST system we designed and installed has certainly exceeded everyone’s expectations.” CAST intelligent fire alarm system CAST is C-TEC’s own UK-designed and manufactured ‘distributed intelligence’ addressable fire detection and alarm system. Certified to all relevant EN54 product standards, including EN54-13, CAST is also fully compatible with ENVISION, C-TEC’s powerful new remote access, data management, and system testing software.

An intelligent network of 20 Axis EN fire panels from fire and life safety systems manufacturer, Advanced, has been installed at HaDo Centrosa Garden in the heart of Ho Chi Minh City, Vietnam. HaDo Centrosa Garden is a 70,000 m2 development of eight 30-storey luxury residential towers and 115 townhouses located in the heart of Vietnam’s Ho Chi Minh City. The upscale condominium complex’s facilities will include a swimming pool, tennis and basketball courts, fitness centre, rooftop gardens, a park, school, library and commercial center. A network of 20 Axis EN panels from Advanced now protect HaDo Centrosa Garden high-speed networking capabilities A key requirement for this large-scale complex was a system with high-speed networking capabilities to enable instantaneous sharing of communications between panels. To meet this need, fire protection companies Vietsafe and KP Technology chose 20 Advanced Axis EN fire alarm control panels, alongside 3,000 addressable devices, for installation in the eight residential towers. With many successful installations of Advanced products undertaken by both companies, Vietsafe and KP Technology were confident in Axis EN’s ability to deliver the seamless networking needed, while its ease of installation, testing, commissioning and operation would ensure minimal issues once the panels were on site. Mr. Le Manh Dung, Director of Vietsafe, said: “An Axis EN fire system was the clear choice for a project of this nature. Advanced is well respected in the fire industry, and its solutions are straightforward in terms of installation and operation thanks to features such as built-in isolators for sequence addressing which considerably reduces installation time.” ease of installation Axis EN is EN54 parts 2, 4 and 13 approved and its panels can be used in single-loop, single-panel format or easily configured into high-speed, multi-loop networks of up to 200 nodes covering huge areas. Advanced’s reputation for ease of installation and configuration as well as its wide peripheral range make its products customisable to almost any application.  Mr. Pham Thanh Phong, Director of KP Technology, said: “As a key partner to KP Technology, Advanced is a fire system supplier we can trust to deliver high-performing, high-quality solutions that are easy to install and to use." Having the ability to refine and configure protection so specifically, and according to the requirements of specific areas" “Features such as Axis EN’s false alarm management and reduction capabilities are extremely useful in high-rise residential sites, such as HaDo Centrosa Garden. Repeated false alarms are not only intrusive, they can also lead to complacency and delayed reactions to real fire alarms. Having the ability to refine and configure protection so specifically, and according to the requirements of specific areas within a building, helps to keep unwanted alarms to a minimum and reduces disruption and risk for residents.” AlarmCalm software AlarmCalm software comes as standard with any Axis EN and MxPro 5 fire system, taking advantage of Advanced’s high-speed robust panels and networks to offer a best-in-class solution for managing verification and investigation delays to outputs. It allows the false alarm management strategy for a site to be refined precisely and to take account of occupants’ needs and area usage. It also includes the optional AlarmCalm button - a loop device that allows residents or trained staff to indicate whether they believe a signal in their area is due to a false alarm. Tin Le Than, Advanced’s sales and business development manager for South East Asia, said: “As a modern, vibrant complex for thousands of people living and working in the centre of Ho Chi Minh, the fire protection for the HaDo Centrosa Garden development is a key priority. As an industry-leading solution, our Axis EN fire system will deliver complete peace of mind to the building owners and residents of the complex. I am pleased to have been able to support our fantastic partners at Vietsafe and KP Technology with the equipment needed to fulfil their requirements.”

The Vizcaya Provincial Council in Spain, has invested seven million euros in its fire prevention, firefighting and rescue services. Almost 25 percent of the existing fleet will be replaced by new trucks, which will enhance efficiency and improve rapid response. The 15 new vehicles include six heavy-duty urban fire trucks, three heavy-duty large-tank pumpers, three first-response trucks and three automatic turntable ladders, all fitted with Allison fully automatic transmissions. Heavy-duty urban fire trucks VEICAR built the bodywork for nine of these vehicles, including the six heavy-duty urban fire trucks, which have already been delivered. The bodywork is mounted on a SCANIA P 410 B chassis with 4x4 traction and Allison 4000 Series transmissions with retarders. These trucks have water and foam tank capacities of 4,200 and 200 liters respectively. They are equipped with roof boxes that can be accessed from the ground, eliminating the need to enter the truck to access tools. An LED lighting mast provides supplementary lighting and a further feature is a monitor that provides a joystick-controlled flow rate of 4,000 liters per minute from the pump cabinet. Large-tank pumpers The Vizcaya Provincial Council’s order of three large-tank pumpers is also based on the SCANIA P 410 B chassis The Vizcaya Provincial Council’s order of three large-tank pumpers is also based on the SCANIA P 410 B chassis. The vehicles share the same features as the six heavy-duty urban fire trucks, including Allison 4000 Series transmissions with retarders. They have larger water and foam tank capacities of 9,000 and 300 liters respectively. Like many other vehicle bodybuilders, VEICAR has full confidence in the benefits of Allison fully automatic transmissions. The company has worked in close cooperation with Allison since 2009. Allison fully automatic transmission Rather than using the automated manual transmissions that come as standard in this SCANIA model, VEICAR opted for a fully automatic transmission with torque converter, in this case, an Allison 4000 Series model with retarder (GA866R in SCANIA nomenclature). “The vast majority of our fire trucks are equipped with Allison automatic transmissions. We consider them an indispensable firefighting tool as they maximize vehicle performance, and greatly improve acceleration, reliability and safety,” said Carlos Prieto-Puga González, CEO at VEICAR. Faster acceleration and increased torque Carlos Prieto-Puga González adds, “In addition, their superior acceleration and maneuverability are beyond question, which is vital when there is not a second to be wasted. Most urban firefighters prefer them because they provide greater safety. And if that weren't enough, the vehicles reach the final years of their service life in better condition.” Allison transmissions are designed to offer increased torque and up to 35 percent faster acceleration. When fire trucks respond to emergencies, they are heavily loaded, so the optional retarder has been incorporated to provide high braking capacity, enabling the vehicles to slow down quickly at intersections. Optimum maneuverability on varied terrains Allison transmissions have demonstrated exceptional reliability and durability in the most demanding conditions" “Allison transmissions have demonstrated exceptional reliability and durability in the most demanding conditions and are the transmission of choice for firefighting fleets around the world. As regular users of these transmissions, we have no doubts whatsoever. As bodybuilders, we are always much happier when vehicles are equipped with Allison,” said Prieto-Puga González. Allison automatic transmissions provide optimum maneuverability on soft ground and in tight spaces, greater control on steep grades, smoother driving, better starting capacity, and faster acceleration. This makes it possible to reach higher average speeds and save fuel. Prieto-Puga Gonzalez adds, “A two- or three-minute head start can be crucial. Not losing power during gear shifts means smoother, more continuous and consequently more effective acceleration. It also improves maneuverability and saves time, which, along with the reliability of the transmission, means greater safety for firefighters. These great benefits are even more extraordinary when we consider that Allison transmissions reduce fleet maintenance costs.” Featuring Chelsea 870 power take-off “The easy maneuverability of the vehicles simplifies the drivers' work. They don't have to shift gears and can concentrate fully on the job and the road when traveling at high speed. And with Allison, vehicles can include up to two power take-offs (PTOs) to keep hydraulic equipment working correctly, even while the vehicle is in motion,” said Trond Johansen, European Key Fleets and Market Development Manager at Allison Transmission. “The Chelsea 870 power take-off incorporated into the transmissions has allowed us to fine-tune the entire unit to achieve the best possible onsite fire pump performance,” concludes Prieto-Puga González.

Marioff has signed a contract with the Satakunta Hospital District in Finland to provide a HI-FOG® high-pressure water mist suppression system to the psychiatric hospital in Pori.  The HI-FOG system will protect the building from fire, which spans 20,000 square meters. The system includes a HI-FOG Land Pump Unit (LPU) and 3,500 sprinklers. Installations are scheduled to start in the fall. Marioff, a pioneering developer of water mist fire protection technology, is a part of Carrier Global Corporation, the pioneering global provider of healthy, safe and sustainable building and cold chain solutions. “The whole team is proud to achieve such a significant win,” said Timo Suuronen, Manager, Marioff Finland. “As the pioneer in water mist fire protection, Marioff possesses the expertise combined with solid after-market services that gained the customer’s trust.” This Satakunta Hospital District project is the latest example showcasing Marioff’s HI-FOG system as a proven fire protection solution, efficiently and effectively protecting important healthcare facilities around the world.

FlamePro, a renowned British manufacturing specialist of life safety garments and Personal Protective Equipment (PPE) for firefighters, has been awarded a £4 million contract by Capita, to provide its firefighting PPE for the UK’s Ministry of Defence (MOD), across the next decade. Firefighting PPE tender The competitive tender, part of Capita’s contract with the MOD, saw four different PPE providers bid for the contract, with FlamePro being appointed to provide its full ensemble of Personal Protective Equipment, alongside a total garment care package. FlamePro was awarded the Ministry Of Defence’s PPE contract, due to its high-quality products FlamePro was awarded the Ministry Of Defence’s PPE contract, due to its high-quality products and the company’s dedication to providing support and expertise on Personal Protective Equipment care, use and maintenance. The contract includes a multi-million pounds initial roll out, with a total value of £4 million over 10 years duration. New fabric technologies and designs Nathan Bricknell, the General Manager at FlamePro, said “We’re absolutely thrilled to have been awarded this contract with Capita. It marks a key milestone for the company. Over recent months, we’ve worked with our partners to develop brand new fabric technologies and designs, including a 3D woven structure and new moisture barrier membrane, to ensure our PPE is the most advanced on the market.”  Nathan Bricknell adds, “Our brand new structural fire suit has set a new benchmark across the whole industry. This, teamed with our shorter-than-average lead times, stands us in great stead to deliver top-quality products and service on this contract.”

Marioff announced it has signed a contract with Rauma Marine Constructions (RMC) in Rauma, Finland, to deliver HI-FOG® high pressure water mist fire suppression systems to four new Pohjanmaa-class multipurpose corvettes, part of the Finnish Navy’s Squadron 2020 project. RMC, one of the foremost shipbuilding companies in Europe, is building the ships for the Finnish Navy. Marioff, a foremost developer of water mist fire protection technology, is a part of Carrier Global Corporation, the foremost global provider of healthy, safe, and sustainable building, and cold chain solutions. Fire Protection Solution “We are very proud to be selected as the fire protection solution provider for the Pohjanmaa-class vessels and provide our extensive experience in water mist fire protection technology for the benefit of this project,” said Juha Ilvonen, Managing Director, Marioff. “The HI-FOG system is a perfect solution for naval vessels, and we are delighted to continue our long-term relationship with Rauma Marine Constructions and the Finnish Navy.” Operational Safety EPU HD is designed to meet very demanding specifications and extreme operational conditions The operational safety of the Pohjanmaa-class corvettes will be ensured with Marioff’s Heavy Duty Electric Pump Unit (EPU HD) based HI-FOG system. The EPU HD is designed to meet very demanding specifications and extreme operational conditions. Throughout this project, Marioff is closely cooperating with all stakeholders to provide a tailored solution based on its long experience in protecting surface and subsurface vessels and their crews from fire. Corvettes Squadron 2020 is a Finnish naval project to replace aging war ships with four new corvettes. The new multipurpose corvettes will be capable of engaging in warfare with surface combatants and submarines, taking anti-aircraft measures, and commanding maritime operations. The ice-breaking warships are expected to be delivered to the Finnish Navy by 2026 and operating by 2028.

The COVID-19 pandemic has had ramifications for almost every industry, some more than others. With the pandemic stretching well into a second year, the non-medical consequences continue, and many are wondering about which of the required changes might become permanent. As regards the fire sector, we asked our Expert Panel Roundtable: What impact has COVID-19 had on the fire industry?

New tools and technologies are emerging that augment the efforts of the fire market to prevent and fight fires. Modern firefighting is benefiting from an ongoing sea change in technological capabilities, spanning equipment, electronic components, greater connectivity and firefighter monitoring, to name just a few. We asked our Expert Panel Roundtable: What technologies will have the greatest impact on the fire industry in 2021? 

Equipment is an important element in fighting fires, and in keeping firefighters safe. But what new needs are driving the development of equipment? How can equipment expand its role in fighting fires, or in managing building occupancy and traffic flow for that matter? We asked our Expert Panel Roundtable: What are the new trends and opportunities in firefighting equipment?