Are Brandt returns to IWMA Scientific Council

IWMA: Are Brandt’s return to the Scientific Council

The International Water Mist Association (IWMA) has reappointed Are Brandt to its Scientific Council.

According to the IWMA, Brandt, who previously served as president from 2018 to 2023, has rejoined the council after stepping down due to term limits.

His expertise in water mist systems and experience in full-scale fire testing are noted contributions.

Brandt was first elected as president in 2018 and re-elected in 2021.

Before his presidency, he was a council member from 2009 to 2018.

Council expansion and global outreach

Under the leadership of Bogdan Raciega, Director of the Fire Laboratory at the Baltic Fire Laboratory, the Scientific Council is set to expand.

Raciega stated: “It is an honour to have Are as a member of the Scientific Council.

His extensive knowledge of water mist systems and years of experience in full-scale fire testing will provide indispensable strength to the Scientific Council team, which is expanding this year to better reach our members worldwide.”

Raciega also extended an invitation to experts from Asia, South America, the Middle East, and Australia to join the council, emphasizing collective strength through collaboration.

Roles and functions of the Scientific Council

The IWMA Scientific Council comprises seasoned fire protection scientists and engineers from various sectors including testing laboratories, regulatory bodies, research institutes, and universities globally.

The council advises IWMA on technical and scientific issues, reviews conference abstracts, evaluates applications for the IWMA Young Talent Award, and guides the water mist industry.

They participate in research initiatives and provide technical guidance to the fire protection sector, particularly in areas related to water mist systems and best practices.

Invitation for new members

The council is actively seeking to broaden its international representation.

Raciega highlighted the need for diverse perspectives from different regions to enhance the council’s effectiveness and reach.

This call for new members aims to fortify the council’s advisory and research capabilities, ensuring a robust response to global fire protection challenges.

Are Brandt returns to IWMA Scientific Council in the UK: Summary

Are Brandt has been reappointed to the IWMA Scientific Council in the UK, following his tenure as president from 2018 to 2023.

The council, chaired by Bogdan Raciega, is expanding to include more international members.

Brandt’s expertise in water mist systems will continue to benefit the council.

The council’s roles include technical advisory services, research participation, and guidance on industry standards.

Raciega invites professionals from Asia, South America, the Middle East, and Australia to join, aiming to strengthen the council’s global influence.

Call for papers issued for the 24th International Water Mist Conference

IWMA issues call for papers for Manchester conference in 2025

The International Water Mist Association (IWMA) has issued a call for papers for the 24th International Water Mist Conference (IWMC2025), which will be held in Manchester, UK, on 24th and 25th September 2025.

Abstract submissions are now open, with a deadline set for 15th April 2025.

According to IWMA, the conference will focus on presenting case studies on the first day and discussions on science and research on the second.

Submissions will also be considered for the Ragnar Wighus Award, recognising the best Ph.D. thesis on water mist.

IWMA CEO Bettina McDowell stated: “We have brought most of the key dates one month forward to be able to publish the programme earlier and thus apply for CPD accreditation.”

Key details for participants and sponsors

In addition to the call for papers, sponsors can begin booking tabletops for the exhibition running alongside the conference.

IWMA noted that all required forms are available on their website.

Ticket sales for the event will open on 15th April 2025, with early bird discounts available until 1st August.

Tickets for the first day only will also be offered.

Ragnar Wighus Award submission deadline

Submissions for the Ragnar Wighus Award are due by 31st March 2025.

The award will be presented to the author of the best Ph.D. thesis on water mist, with the winner invited to present their research at the conference.

The IWMA scientific council, chaired by Bogdan Raciega of the Baltic Fire Laboratory, will evaluate the entries.

Call for papers issued for the 24th International Water Mist Conference: Summary

The IWMA has issued a call for papers for the 24th International Water Mist Conference, to be held in Manchester on 24th and 25th September 2025.

Abstracts must be submitted by 15th April 2025.

The conference will feature case studies, scientific discussions, and an exhibition.

Submissions for the Ragnar Wighus Award, recognising exceptional Ph.D. theses on water mist, are due by 31st March.

Early bird tickets will be available starting 15th April, with discounts ending on 1st August.

Plumis wins gold at Edison Awards in home use category for sprinkler solution

Plumis recognised at Edison Awards for home use product

Fire suppression specialist Plumis has won gold at the 37th Edison Awards in the Products for Home Use category.

As reported by Plumis, the Edison Awards honour excellence in human-centred design, engineering, and new product development.

The award is considered one of the highest accolades in innovation and business success.

This latest win for Plumis’ Automist 13D highlights the company’s innovative approach to fire safety technology.

The Automist 13D has also been named on the TIME Best Inventions 2023 list and won silver at the New York Product Design Awards in November.

The system is designed as a sleek, targeted, wall-mounted alternative to traditional fire sprinklers.

It activates faster and uses ten times less water to tackle domestic fires, connecting directly to the standard water main and eliminating the need for large tanks.

Innovative features of Automist 13D

The Automist 13D reimagines traditional fire sprinklers with a design that blends seamlessly into modern homes.

The system targets the fire at its source, using watermist to cool and suppress the fire zone effectively.

This method uses significantly less water and reduces the damage following an activation, preserving homes and belongings.

Yusuf Muhammad, Co-Founder and Chief Design Officer at Plumis, explained the system’s benefits: “We designed Automist 13D to save more lives from fire and offer the best level of protection for property.

“It is the only home fire safety system that targets the fire at its source, enabling watermist to effectively cool the fire zone and suppress the fire.”

Future plans for Automist 13D

Plumis is preparing to launch the Automist 13D into the US market, marking a significant expansion for the company.

The recognition from the Edison Awards and other accolades demonstrate the technology’s capability on a global stage.

Muhammad expressed pride in the recent achievements: “As we prepare to launch the system into a new market, we’re immensely proud to see it scoop another incredible accolade.

“It marks another successful milestone for our team, and we can’t wait to see the system installed across the US.”

Ghent University graduate wins Ragnar Wighus Award for 2024

Graduate to present thesis at international Water Mist Conference

A Ghent University graduate has won the Ragnar Wighus Award for the second consecutive year.

Cédric van de Vondel was announced as the winner for his master thesis on numerical modelling of water mist.

As reported by the International Water Mist Association (IWMA), van de Vondel will present his thesis at the annual international Water Mist Conference (#IWMC2024) in Antwerp, Belgium, on 18th and 19th September.

Van de Vondel expressed his gratitude: “Winning this award for my thesis on numerical modelling of water mist is a tremendous honour.

“I’m grateful to my supervisor, Prof. Dr. Tarek Beji, and the IMFSE institute for their invaluable knowledge and support.

“I am excited to share my research and its potential impact on the water mist field.”

Ragnar Wighus Award history and significance

The Ragnar Wighus Award, sponsored by the IWMA, recognises outstanding research in the field of water mist technology.

Previously known as the IWMA Young Talent Award, it was renamed in 2023 in memory of the former and late president, Ragnar Wighus.

The award has been given annually since 2016 to promising young researchers.

The IWMA Scientific Council, chaired by Max Lakkonen from IFAB, evaluates the submissions.

The award aims to promote innovative research and development in water mist technology, fostering advancements that could benefit the industry.

Future of the Ragnar Wighus Award

In 2025, the Ragnar Wighus Award will transition to recognising the best Ph.D. thesis in water mist research.

This change aims to encourage and reward higher levels of academic research within the field, furthering the impact and understanding of water mist technology.

The IWMA continues to support young researchers by providing platforms for them to present their work and gain recognition within the industry.

The annual conference in Antwerp will serve as a significant opportunity for networking and knowledge sharing among professionals and researchers.

Innovative study reveals water mist’s potential in preventing LiFePO4 battery thermal runaway

Researchers investigate water mist as a cooling strategy for LiFePO4 batteries

A recent study has delved into the effectiveness of water mist in suppressing thermal runaway events in LiFePO4 batteries, a critical concern for the safety of lithium-ion batteries widely used in electric vehicles and energy storage systems.

The research, conducted by a team from the State GRID Tianjin Electric Power Company and the School of Safety Engineering at China University of Mining and Technology, has been published in the “Crystals” journal, presenting a groundbreaking analysis of water mist as a cooling and suppressive agent against the dangers of thermal runaway in batteries.

Exploring water mist’s impact on battery safety

The study meticulously examined how water mist could inhibit the onset of thermal runaway before it begins, showing a significant improvement in cooling effects once the battery’s safety valve opens.

The research indicated that water mist could dramatically enhance the cooling rate, making it over ten times more effective in certain conditions compared to scenarios where the safety valve remains closed.

However, once thermal runaway initiates, water mist alone cannot prevent its progression but can substantially reduce the overall duration of the thermal runaway and the subsequent cooling time required.

Further analysis in the study observed a confrontational phenomenon between water mist and thermal runaway flames, highlighting two main impacts: cooling the flame’s heat at the top and compressing part of the heat in the confrontation region.

This interaction notably affects the flame’s morphology, particularly 50 cm above the safety valve, where the flame forms a “cone” shape.

Despite the challenges in applying water mist directly onto the battery surface due to this confrontation, the study found that it could still achieve a commendable cooling rate of 0.57 kW.

Read the study here.

IFSJ Comment

The study’s insights into the use of water mist in preventing and managing thermal runaway in LiFePO4 batteries mark a significant step forward in battery safety technology.

By demonstrating the conditions under which water mist can effectively cool and suppress thermal runaway, the research offers valuable guidance for enhancing safety measures in lithium-ion battery applications.

The findings underscore the importance of continued innovation and experimentation in safety strategies to mitigate risks associated with battery technologies, particularly as the demand for electric vehicles and energy storage solutions grows.

BAFSA releases comprehensive guide on water mist fire suppression systems

BAFSA, the British Automatic Fire Sprinkler Association, has released a detailed technical guide titled “Using Water Mist Systems in Buildings and Structures”.

This document, published in November 2023, serves as a comprehensive resource on the application, design, and standards of water mist-based fire suppression systems.

Understanding water mist technology

Water mist systems are unique in their approach to fire suppression. They utilise fine water droplets to control, suppress, or extinguish fires.

The guide explains that unlike traditional sprinkler or gas extinguishing systems, water mist systems are highly specific to the application and the manufacturer’s technology.

Each system must be tailored to the particular hazard or occupancy it is designed to protect, based on the manufacturer’s Design, Installation, Operation, and Maintenance (DIOM) manual.

These systems are performance-based and require specific testing for each potential fire scenario.

The evolution of water mist systems

The guide traces the development of water mist systems, from early maritime applications to their expanded use in various sectors, including residential, commercial, industrial, and heritage buildings.

It outlines the importance of understanding the unique characteristics of water mist technology, particularly in relation to its application and effectiveness in different fire scenarios.

Key components and system types

The BAFSA guide provides detailed insights into the components of water mist systems, including nozzles, pumps, and control systems.

It differentiates between various types of water mist systems like open nozzle, automatic, and electronically controlled systems, each suited to different applications and fire hazards.

The document also addresses the importance of standards and certifications, ensuring that water mist systems meet rigorous safety and performance criteria.

Choosing the right system

A critical aspect of the guide is the emphasis on selecting the right water mist system for specific applications.

It underscores the necessity of following established standards and protocols and considering factors such as the fire hazard, occupancy, and environmental conditions of the intended application area.

Where to access the guide

The full guide can be accessed on BAFSA’s website, providing an invaluable resource for professionals involved in fire safety, including designers, engineers, and building managers.

IFSJ Comment

The release of BAFSA’s comprehensive guide on water mist systems marks a significant milestone in fire suppression technology.

It not only offers detailed technical insights but also addresses the growing need for advanced fire suppression solutions in diverse environments.

The guide’s emphasis on performance-based technology, coupled with specific design considerations, underscores the evolution of fire safety measures. Its detailed analysis and guidelines reflect a proactive approach to fire safety, catering to the unique demands of modern buildings and structures.

This publication could play a crucial role in enhancing the effectiveness and reliability of fire suppression systems, ultimately contributing to greater safety and resilience in our built environment.

Scotland reviews the use of sprinklers in converted historic buildings

The Scottish Government has announced the establishment of an expert working group to evaluate the necessity of installing sprinkler systems in historic buildings that undergo transformation into hotels.

The motivation behind the sprinklers decision

This move follows the tragic Cameron House Hotel fire at Loch Lomond in December 2017.

Two individuals lost their lives in this catastrophe.

An inquiry into these deaths revealed that sprinklers might have “significantly slow the spread of flame and would extend the margin of safety for available escape time”.

The investigation further stated: “It was a real or likely possibility that if sprinklers had been installed and had worked to inhibit the extent and spread of the fire and smoke, Mr Midgley and Mr Dyson would have been able safely to escape the building”.

Subsequent to this inquiry, the Scottish Government initiated a preliminary group to assess the proposed measures.

They have now endorsed the formation of an expert group “to review the mandating of automatic fire suppression systems where historic buildings are being converted into hotels”.

BAFSA’s involvement and perspective on sprinklers

Ali Perry, the Chief Executive of the British Automatic Fire Sprinkler Assocaition (BAFSA), commented on the development: “BAFSA has been engaging with Scottish Building Standards on this issue and we hope to be involved in further discussions going forward”.

Further insights regarding this topic are to be revealed in an upcoming case study titled ‘The Cameron House Hotel Fire – Lessons Learnt’ authored by BAFSA’s Stewart Kidd.

Kidd is also set to present his findings to BAFSA members at their AGM afternoon seminar, scheduled for Thursday, 9th November at The Liverpool Marriott City Centre Hotel.

IFSJ Comment

The devastating Cameron House Hotel fire shed light on a critical gap in fire safety for historic buildings repurposed as hotels.

Ensuring these structures, with their unique architectures and histories, are equipped with modern fire suppression systems like sprinklers can significantly enhance safety margins.

The Scottish Government’s move to convene an expert group for reviewing this is a positive stride towards safeguarding not just the rich heritage these buildings carry, but more importantly, the lives that reside within them.

The discussions and outcomes of this group will likely set a precedent for similar architectural treasures across the globe.

Exclusive: Water mist system design and review

Luciano Nigro, Jensen Hughes Italy and Member of the IWMA Board evaluates the tools assisting fire engineers and authorities in system selection and approval

Water mist technology can now be considered a mature fire suppression technology as it has entered the third decade of installation both in marine and in land-based applications. Initiated more than 30 years ago to support the Halon replacement on board of ships, the technology grew rapidly achieving almost 100% of the marine fire protection market on board passenger ships, protecting all the hazards from the machinery spaces to the accommodation and public spaces.

By the end of millennium, water mist applications for land-based occupancies were developed, based on several fire test protocols published by international organisations including Factory Mutual Approvals, UL, VdS, LPCB and others. Nevertheless, in the land based market the technology has not yet achieved the diffusion that could reach, for various reasons one of which, it is the opinion of the writer, remains the difficulties that fire engineers, designing and/or reviewing water mist system for acceptance, find in the process of selecting the system appropriate for each application and in verifying the adequacy of the design parameters that have been used per each system.

To support the fire engineers in this commitment, the IWMA (International Water Mist Association) has developed, in recent years, a descriptive document called the “Project Water Mist – an Alternate Solution to Sprinkler Protection in Building Fire Protection” published in 2014 and a working tool called THE MATRIX – both available on the IWMA website.

The document is a complete list of all the fire test protocols available on the market at the date of its publication with the description of the occupancies to which they apply and the indication of the organisations that developed and published them.

The MATRIX was then studied and developed by the IWMA Scientific Council, with advice from association members, to become a real working tool for the fire engineers, having a structure more attuned to the design and review activity a fire engineer undertakes, and being updated on a constant basis to be representative of what is state-of-the-art – this is a key focus when designing and installing an advanced technology fire suppression system.

A partial view of the summary of the MATRIX outcome for the Land Based Applications is summarised by the table here below; The complete MATRIX is published both for Marine and Land Based applications which can be accessed at: https://iwma.net/the-matrix/land-based-applications.  

The MATRIX

The MATRIX for Land Based Applications serves as a guideline for fire engineers to understand the complexity and nuances involved in water mist fire suppression systems across various business segments and contains five columns of information.

The first column refers to the business segment of the case under consideration, divided into Residential, Commercial and Industrial. The second column is the most important for the fire engineer – it is the column dedicated to the Applications and is the key point for the correct interpretation of the MATRIX. The selection of the application that more accurately represents the fire hazard related to the “formal” applications for which a test protocol exists, requires considerable judgment from the fire engineer.

Of course, the real world is not so simple, because the applications listed in the Application column of the MATRIX are not easily related to the actual application under consideration; paragraph 4.1.3.2 of the EN 14972-1 states: “Test protocols: one of the greatest challenges to engineering of water mist fire suppression systems lies in determining whether the conditions of a particular and recognised test protocol are representative of the actual conditions in a given application based on an understanding of the dynamics of the interaction of water mist with fire.”

Upon closer examination, certain applications have clear and well-defined relationships, for example the “car garages/parking garages”, but there are also several applications that are not so well defined as for example “residential occupancies” or “data halls”. In all these cases additional information is needed to relate the applications listed in the MATRIX and the real world.

The third column of the MATRIX is the Test Protocol column; third and fourth columns fully identify the test protocol(s) existing for a given application. The list is updated regularly by the Association therefore it can be considered as the most updated list of water mist fire test protocols presently available worldwide.

As mentioned, there are many applications for which more than one protocol is available; how to select the protocol that best fit the actual application under consideration remains with the responsibility of the fire engineer.

The last column identifies the type approval that can be obtained by ‘positively passing’ each test protocol mentioned in the previous columns. This column differentiates between test protocols that result in a formal approval, indicating the organization granting the approval, and protocols that are not intended for formal approval but are instead provided to the market as reference protocols. These reference protocols are intended for use by authorities having jurisdiction, laboratories, verification agencies, manufacturers, and other relevant entities.

For those that are not so much familiar with the type approval process, it is possible to say that the fire test protocols are the procedures issued by the organisations involved in the water mist fire suppression technology to run each of the mentioned test. They list the materials to be used, the procedure to run the tests, and the pass-fail criteria to determine the outcome of the tests.

Approval and Standardisation

To complete these considerations, it should be noted that the organisations issuing fire test protocols for water mist applications are few and can be divided in two groups: the Approval Bodies and the Standardisation Bodies.

Approval Bodies for water mist applications include FM Approvals1, UL2 and VdS3; the Standardisation Bodies include the CEN4 committee on water mist system and the BSI5. As it is possible to see on the MATRIX table, the Approval Bodies always grant a type-approval for the system passing the test protocol for the specific application; the Standardisation Bodies normally do not, except for the residential applications tested according to BS standard 8458 that are approved by the LPCB6.

The approval issued by an Approval Body is a very useful information document also for the above-mentioned matter concerning the correlation between the test protocol and the actual application under consideration. An example is the chapter 1.2 of the FM standard 55607 where all the 16 applications for which FM Approvals has issued a test protocol are described in detail with all the applicable limitations and/or extensions.

The same does not apply to the test protocols issued by the Standardisation Bodies that also include a paragraph per each protocol describing the scenarios to which the protocol can be applied, but this information is “embedded” in the test protocol text and is not easily available to the fire engineer.

The above is a complete description of the MATRIX content. All the information included in the MATRIX is carefully verified and checked by the IWMA Scientific Council that includes some of the most relevant professionals dealing with water mist technology world widely.

However, there are some comments and recommendations that need to be considered in order to improve the content and make it even more useful for fire engineers.

Considerations for fire engineers

The correlation between the fire test protocol and the actual application under consideration poses challenges for fire engineers. Test protocols issued by Approval Bodies are expected to provide all the necessary information for their correct use and hold liability for their indications. However, achieving a clear correlation is less straightforward when dealing with Standardisation Body protocols.

The second and most important comment is related to the real availability of the system on the market. With the MATRIX it is only possible to say that, for a given application, one or more test protocols exist and whether they lead to a type approval or not, but no information is given about the availability of one or more manufacturers that can provide a water mist system designed and installed in accordance to the test protocol under consideration.

The identification of the manufacturer(s) holding an approval or having carried out a fire test according to one of the test procedures issued by the Standardisation bodies remains a responsibility of the fire engineer in charge for the design of the system.

Future steps

Ensuring the continuous update and maintenance of the MATRIX is of utmost importance for both the tool itself and the IWMA. This commitment aims to provide tangible support to fire engineers engaged in the design, installation, or verification of water mist systems in land-based applications. By keeping the MATRIX up to date, it serves as a valuable resource for professionals in this field.

Two possible enhancements could significantly aid in selecting the correct protocol for a given application. Firstly, adding a new column alongside the existing ones to provide a detailed description of the specific application to which the protocol is applicable would offer valuable assistance. Alternatively, introducing a supplementary page in the summary section where each protocol line is accompanied by a comprehensive description of the applicable scenarios mentioned within the protocol itself would also prove beneficial in facilitating protocol selection.

Finally, the availability of water mist systems on the market: this is an issue going above the scope of the Association.

The MATRIX provides the list of occupancies and protocols, but the demonstration that a company has successfully passed a protocol remains with the fire engineer responsibility to ascertain. As stated in the last sentence of the introduction to EN 14972-1: Water mist is a specific application solution which needs to be proven for each individual application and/or occupancy.

Bibliography

This article was informed by a range of resources, including the SFPE Handbook of Fire Protection Engineering, FM Approvals, UL’s water mist system testing, VdS’s fire protection content, and CEN/TC191/WG10’s material on Water Mist Fire Fighting Systems. Also referenced are the EN 14972 series, standards by BS, the LPCB’s Red Book, and the FM Class Number 5560’s January 2021 edition on Water Mist Systems.

This exclusive article was originally published in the June 2023 issue of International Fire & Safety Journal. To read your FREE digital copy, click here.

Martin Thielens wins IWMA’s Young Talent Award 2023

IWMA recognises advancements in water mist technology

The International Water Mist Association (IWMA) has awarded its prestigious Young Talent Award for 2023 to Martin Thielens.

Thielens honoured for PhD work from Ghent University

Thielens, a graduate of Ghent University in October 2022, received the award for his PhD thesis titled, “Advanced Computational Fluid Dynamics Modelling of Water Sprays in Fire-Driven Flows.”

The award will be presented in Copenhagen, Denmark, on 12th October during the 22nd International Water Mist Conference.

In a letter of support from his supervisors, it stated: “The main goal was to improve the current capabilities of Computational Fluid Dynamics (CFD) in the prediction of water spray dynamics and their interaction with fire-driven flows.”

Impact on the design of active fire suppression systems

The research is set to revolutionise the field by encouraging the use of CFD as a more reliable tool in the design of active fire suppression systems like sprinklers or water mist.

Next year’s award is slated to go to the author of the best master’s thesis, with the deadline for submissions being 30th April 2024.

About the International Water Mist Association (IWMA)

The IWMA is a leading authority in water mist technology for fire-fighting, renowned for promoting research and development in the field. Since 2016, its scientific council has been recognising exceptional academic work through the Young Talent Award, which alternates yearly between the best master’s and PhD theses.

IFSJ Comment

This award is significant as it continues to push forward the boundaries of our understanding in fire safety. Thielens’ research could potentially change the way we design active fire suppression systems, making them more reliable and effective. We look forward to the developments that this research will bring.

Innovators of water mist fire suppression technology honoured by NFPA

Technology Leaders To Receive Accolades at the Annual NFPA Conference & Expo

The National Fire Protection Association (NFPA) has announced the winners of the 2023 Philip J. DiNenno Prize. Four individuals have been recognised for their instrumental roles in the creation and application of the groundbreaking Water Mist Fire Suppression Technology.

The recipients of this esteemed award are Göran Sundholm, Gerard (Jerry) Back, Jack Mawhinney, and Magnus Arvidson.

Disruptive Technology for Fire Suppression

First introduced approximately three decades ago, the water mist fire suppression technology was a revolutionary response to the demand for a safer, effective and environmentally responsible fire suppression system. This technology was a substitute to the ozone-depleting halon gas systems, which were previously widely used.

Originally intended for utilisation on marine vessels, this innovative technology has now become an indispensable asset for securing spaces susceptible to water damage by traditional fire suppression systems such as places of cultural importance, art galleries, passenger railway carriages, and commercial computer and data storage rooms.

Honouring Visionaries

Each of this year’s DiNenno Prize winners have contributed significantly to the development and advancement of this technology.

Göran Sundholm, founder of the MariGroup companies, was praised for his “visionary leadership”. Sundholm boasts an impressive portfolio of patents covering the design, manufacturing, testing, and installation of numerous systems. He is particularly noted for developing and patenting the Hi-Fog water mist technology.

Gerard (Jerry) Back, a seasoned fire protection engineer at Jensen Hughes, was recognised for his leadership and research in water mist technology applications, particularly for military vessels. His remarkable achievements include the invention of the “Navy” water mist nozzle, adopted by the US Navy for machinery space protection.

Jack Mawhinney, a retired fire suppression research engineer, was lauded for his research and for designing fine water mist suppression systems for challenging oil-field processing locations in the Alaskan North Slope.

Lastly, Magnus Arvidson, a fire protection engineer at the Research Institutes of Sweden (RISE), has made noteworthy contributions to water mist and sprinkler testing and research. Arvidson’s work has greatly influenced the development and application of water mist fire suppression systems.

Celebrating Achievements at the Annual NFPA Conference & Expo

The esteemed Philip J. DiNenno Prize is a notable honour that recognises innovative strides that significantly impact building, fire, and electrical safety. The prize includes a monetary award of $50,000 and honours the late Philip J. DiNenno, former CEO of Hughes Associates, for his exceptional contributions to fire safety.

This year’s winners will receive their awards at the “Stars at Night” ceremony during the NFPA Conference & Expo in Las Vegas on Sunday, 18 June.

Moreover, the Conference & Expo will host a special panel on the morning of 19 June, which will focus on the pivotal role fire mist systems play in fire protection. The panel will feature all four award winners as panelists.

About the National Fire Protection Association (NFPA)

The NFPA is a global, self-funded, non-profit organisation established in 1896. It is committed to eliminating death, injury, property, and economic loss due to fire, electrical, and related hazards. The association disseminates information and knowledge through over 300 consensus codes and standards, research, training, education, outreach, and advocacy. For more information visit www.nfpa.org.