Construction

The Global Wildfire Challenge & Learning To Live With Fire

2019-04-05:  Let us imagine, for a moment, that we are in another dimension … The Twilight Zone …

… and that this is a Positive Energy Building, set in a sprawling, diverse, interconnected and flourishing Woodland … an idealized scene … the Sustainability Idyll

Colour photograph proposing, as the Sustainability Idyll, a Positive Energy Building in the midst of a diverse, interconnected and flourishing Woodland.  Climate change is increasing the risk of more frequent and intense Wildfires, threatening this idealized scene.  Click to enlarge.

But … is it … ??

What percentage of the world’s population would ever, ever have the opportunity to live this way ???

And … lurking all around this beautiful scene, is an inherent and growing threat to life, property, and those trees and shrubs … Wildfires !

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The Aim of Sustainable Fire Engineering (SFE) is to dramatically reduce direct and indirect fire losses in the Human Environment (including the social, built, economic, virtual, and institutional environments) … to protect the Natural Environment … and, within Buildings, to ensure that there is an effective level of Fire Safety for All Users/Occupants, not just for Some, during the full building life cycle.

[ Human Environment:  Anywhere there is, or has been, an intrusion by a human being in the Natural Environment.]

So … how do we reduce direct and indirect fire losses in the Human Environment … and improve its Resilience ?

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A recent publication provides a good platform to begin this serious conversation …

December 2018 … the International Union of Forest Research Organizations (IUFRO), which is based in Vienna, published Occasional Paper No. 32: ‘GLOBAL FIRE CHALLENGES IN A WARMING WORLD – Summary Note of a Global Expert Workshop on Fire and Climate Change’ …

IUFRO OC 32 – Cover Page. Click to enlarge.

GLOBAL FIRE CHALLENGES IN A WARMING WORLD – Summary Note of a Global Expert Workshop on Fire and Climate Change   (PDF File, 4.72MB)

Executive Summary

Today, catastrophic wildfires are increasingly common across the globe.  Recent disasters have attracted media attention and strengthened the perception of wildfires as ‘bad’ events, a plague worsened by climate change that has yet to be eradicated.  Although it is true that fire has a destructive potential, the reality of global fire activity depicts a much more complex picture in which fire can be a useful, if not necessary, tool for food security and the preservation of cultural landscapes, as well as a an integral element of many ecosystems and their biodiversity.

Global fire activity is shaped by diverse social, economic, and natural drivers influencing the fire environment.  The culminating complexity of these factors defines, in turn, the likelihood of a landscape to burn and the potential positive or negative outcomes for communities and ecosystems that can result from a blaze.  Although many regions remain understudied, the effects of ongoing climate change associated with other planetary changes are already visible, transforming fire activity in ways that are not well understood but are likely to be dramatic, with potential dire consequences for nature, and society in case of adaptation failure.

Based on the limited available statistics, there is a growing trend in the cost of wildfires.  In addition to human lives that are lost to flames or smoke and the billions of euros imputable to firefighting and insurance coverage, the growing interest in costs linked to healthcare, business stability, or the provision of ecosystem services such as drinking-water indicates negative economic consequences impacting countries’ GDP and social stability.  Attempts to evaluate the future costs of wildfire disasters point at a worsening situation, yet the list of possible social and economic effects is incomplete and the magnitude of envisaged impacts is conservative.

Notwithstanding the difficulties inherent to global climate modelling, there is a scientific consensus on the future increase in the frequency of fire-conducive weather associated with drier ecosystems, a mix that will eventually result in more frequent and intense fire activity.  When combined with an ever-growing world population and unsustainable land uses, the conditions leading to fire disaster will only be intensified.  Although fire governance has historically advocated for fire suppression, a No Fire motto is not an option anymore in the new fire reality.  Current policies aiming at total fire suppression have been shown to be detrimental and are therefore outdated.  The key to wildfire disaster risk reduction in a changing world now lies in learning to live with fire.

Investments in international co-operation, integrated management, local community involvement, cutting-edge technologies, and long-term data collection are critically needed to ensure the future of fire disaster risk mitigation.  Moreover, future land development policies must prioritize the protection and the restoration of natural and cultural landscapes that have been degraded by the inappropriate use of fire or, conversely, by historical fire exclusion; keeping a place for fire in forest resource management and landscape restoration has been shown to be a cost-effective and efficient solution to reduce fire hazard.

Overall, synthesis of globally available scientific evidence revealed the following key issues for landscape management and governance:

  • Climate change, with longer, hotter, and drier fire seasons, in combination with other environmental changes linked to population growth and unsustainable land-use practices, is contributing to extreme wildfire events that exceed existing fire management capacities. The world is entering a ‘new reality’ that demands new approaches to fire governance.
  • Fire is an inherent feature of the Earth System and many ecosystems, including their fauna, are dependent on it for their long-term survival; nevertheless, ongoing changes in global fire activity in terms of location, intensity, severity, and frequency will have immense costs for biodiversity, ecosystem services, human well-being and livelihoods, and national economies – to extents that have yet to be evaluated. Investment in social, economic, and environmental monitoring is therefore urgent, especially in under-studied regions.
  • Integrated fire risk reduction is key to adapting to ongoing changes in global fire risk. Future sustainable fire risk mitigation demands integrated region-specific approaches based on a clear understanding of fires in context, population awareness and preparedness, fire surveillance and early-warning systems, adaptive suppression strategies, fire-regime restoration, landscape-scale fuel management, changes to many land use practices, and active restoration of landscapes.
  • Engagement with local communities, land-owners, businesses and public stakeholders – via multiple tiers of governance – is crucial to restore and maintain landscapes that are biodiverse and functional, respectful of local cultures and identities, economically productive, and above all, fire-resilient.
  • People have historically achieved sustainable co-existence with flammable ecosystems and have often used fire as a land-management tool, thereby shaping many modern and long-standing landscapes around the world. Traditional fire knowledge is thus key to adapting to local changes in fire activity, using known techniques for the reduction of dangerous fuel loads, prescribed burning and sustainable landscape management practices.
  • Building adaptive capacity to confront fires must be based on knowledge of the natural and cultural roles of fire, how they have shaped our modern landscapes, and their importance in the long-term functioning of socio-ecological systems. Further developments in land-system science, geospatial technologies, and computer modelling will enhance our understanding of the long-term ecological and socio-economic drivers of fire through the widespread collection and distribution of harmonized fire data at the global level.  However, creating and sharing such knowledge requires national and international investments in scientific and operational fire science programmes.
  • Catastrophic fires are undeniably part of our future. Current scientific estimates are conservative, meaning that changes in fire activity might be worse than anticipated.  We have to act now to mitigate catastrophic fires and limit the occurrence of disastrous situations.  Given disparities but also similarities in the levels of fire risk around the world, and the capacities to manage it, knowledge and technology transfers through international cooperation will be a paramount factor in learning to live with fire.

This Occasional Paper is the result of a large collaborative effort by fire scientists and practitioners who believe that learning to co-exist with changing fire activity is not only possible but necessary if we, as a global society, are to adapt to climate change and keep our natural and cultural landscapes healthy, resilient, and safe for the next generations.  The work presented hereafter was developed during, and as follow-up to, the Global Expert Workshop on Fire and Climate Change hosted in Vienna, Austria, on 2-4 July 2018.  It stresses the diversity and the complexity of the global fire situation, a situation that is evolving, positively or negatively, in unknown proportions due to global environmental changes — with climate change being the most acknowledged manifestation.

Conclusion – Learning To Live With Fire

We live on a flammable planet; although not everything is meant to burn, fire cannot be eliminated.  Ongoing global climate change combined with other planetary changes is leading to more frequent and more extreme fires exposing vulnerable societies, economies, and ecosystems to disaster situations.  The recognition of fire activity as a worsening hazard threatening human security is the necessary first step towards international co-operation for the mitigation of disaster risk situations in fire-prone areas.

However, we are not defenceless.  Fire scientists in many regions of the world have been developing successful strategies and tools based on cutting-edge technologies for several years.  Those are now mature enough to be up-scaled and adapted to other geographic contexts as part of national fire management frameworks.  Additionally, integrating existing and future scientific knowledge on climate change and changing fire regimes, and systematically collecting long-term data on current and past fire uses will foster better informed decisions, models and enhanced efforts towards wildfire disaster risk reduction, as well as contribute to the development of sustainable Anthropocene fire regimes.

We hope this paper will be a catalyst for a paradigm shift, so fires are not seen as an enemy to fight but as natural and necessary phenomena, as well as a useful and necessary tool that can often help protect people and nature.  It is paramount to revise, fund, and fulfil future management, research, and governance needs if we are, as world citizens, to trigger a societal change that will help us better live with fires.

The information and insights contained in this Occasional Paper connect together to promote the use of several existing solutions to the problem: defining national fire risk reduction frameworks, collecting and analyzing relevant traditional knowledge and biophysical fire data, investing in fire detection and prediction technologies, involving and preparing stakeholders, and improving fire use and landscape management in ways that help control the fuel load and the spread of fire, while limiting GHG emissions and protecting the communities and the landscapes they live in and often depend on.

The Status Quo is no longer an option; it is time to make integrated fire management the rule rather than the exception.

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Sustainable Fire Engineering – Recent Dublin Presentations !

2019-03-19:  Two Conference & Exhibition Events were recently held in Dublin’s City West Convention Centre

2019 City West Summits, Dublin – Colour photograph showing the view over the Exhibition Hall.  Click to enlarge.

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I was very pleased to make a Presentation at both events, adapted to suit an Irish context, on … ‘Sustainable Fire Engineering – Necessary Professional Transformation For The 21st Century’ … which continues to evolve.

Sustainable Fire Engineering:  The creative, person-centred and ethical Fire Engineering response, in resilient built form and smart systems, to the concept of Sustainable Human and Social Development … the many aspects of which must receive synchronous and balanced consideration !

Sustainable Fire Engineering
Internet: www.sfe-fire.eu
Twitter: @sfe2016dublin

Presentation Abstract

Annual Fire Losses, both direct and indirect, amount to a very significant percentage of Gross Domestic Product (#GDP) in all economies, whether they are rich or poor … and result in enormous environmental devastation and social disruption.  Some losses have not yet been fully identified, e.g. environmental impact … while others are not yet capable of being fully quantified, e.g. business interruption, brand and reputation damage.  Globally, fire statistics still remain unreliable.  In all cases, however, the waste of valuable human and natural resources caused by preventable fires is unsustainable and no longer acceptable.

From an entirely different perspective … Sustainable Buildings are presenting every society with an innovative and exciting re-interpretation of how a building functions in response to critical energy, environmental, climate change and planetary capacity pressures … an approach which has left the International Fire Engineering and Firefighting Communities far behind in its wake, struggling to develop the necessary ‘creative’ and ‘sustainable’ fire safety strategies.

The Aim of Sustainable Fire Engineering (#SFE) is to dramatically reduce direct and indirect fire losses in the Human Environment (including the social, built, economic, virtual, and institutional environments) … to protect the Natural Environment … and, within buildings, to ensure that there is an effective level of Fire Safety for All Occupants, not just for Some, over the full building life cycle.

The following Priority Themes for SFE lie outside, or beyond, the constrained and limited fire safety objectives of current fire regulations, codes and standards – objectives which do not properly protect society, a fire engineer’s clients, or the facility manager’s organization:

  1. Fire Safety for ALL, not just for Some.  Nobody left behind !
  2. Firefighter Safety.  Everyone goes home !   It is easy to dramatically improve firefighter safety with building design.  So, why haven’t NIST’s 2005 and 2008 WTC 9-11 Critical Recommendations been properly implemented anywhere ?
  3. Property Protection.  Fire damage and post-fire reconstruction/refurbishment are a huge waste of resources.  On the other hand, protection of an organization’s image/brand/reputation is important … and business continuity is essential.  Heritage fire losses can never be replaced.
  4. Environmental Impact. Prevention of a fire is far better than any cure !   But prevention must also begin by specifying ‘clean’ technologies and products.  Low Pressure Water Mist Systems are not only person/environment-friendly and resource efficient … they are absolutely essential in airtight and hyper energy-efficient building types (e.g. LEED, PassivHaus, BREEAM) in order to achieve an effective level of fire safety for all occupants, and firefighters.    [ Note: Environmental Impact Assessment (#EIA) has been superseded by Sustainability Impact Assessment (#SIA).]
  5. Building Innovation, People and Their Interaction.  Fire engineers and firefighters must begin to understand today’s new design strategies.
  6. Sustainable Design and Engineering. Wake up and smell the coffee !   Legislation can only achieve so much.  Spatial planners, building designers and fire engineers must subscribe to a robust Code of Ethics * which is fit for purpose in the Human Environment of the 21st Century.

Sustainable Fire Engineering Solutions are …

  • Adapted to a local context, i.e. climate change/variability/extremes, social need, geography, economy, and culture, etc ;
  • Reliability-based – lessons from real extreme and hybrid events, e.g. 2001 WTC 9-11 Attack, 2008 Mumbai/2015 Paris/2016 Brussels Hive Attacks and the 2011 Fukushima Nuclear Incident, are applied to frontline practice ;
  • Person-centred – real people are placed at the centre of creative endeavours and due consideration is given to their responsible needs, and their health, safety, welfare and security in the Human Environment ;
  • Resilient – functioning must be reliable during normal conditions, and include the ability to withstand, adapt to and absorb unusual disturbance, disruption or damage, and thereafter to quickly return to an enhanced state of function.

* Refer to the 2016 Dublin Code of Ethics: Design, Engineering, Construction & Operation of a Safe, Resilient & Sustainable Built Environment for All (PDF File, 112 kb).

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Noel Manning – Innovative Fire Researcher !

2019-03-18:  Lest we forget him …

Long before the Rest of the World was introduced to the term Fire-Induced Progressive Damage, in the late afternoon of 11 September 2001 (WTC 9-11), with the collapse of World Trade Center Building No.7 in New York City …

(9-11) WTC Building No.7 – Fire-Induced Progressive Damage !

… decades earlier … Noel Manning had intuitively discovered the same Structural Fire Engineering Concept … and had developed and tested a suite of domestic-scale building systems to deal with this very dynamic aspect of fire behaviour …

Noel C Manning – 2017-11-05 RIP

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The International Fire Engineering Community is still shy about discussing this concept, never mind understanding it … and most importantly, solving it !   Which makes me seriously wonder … is there a deep-seated flaw in International Fire Research ?   Are mainstream Fire Researchers more interested in sourcing funding than in actually solving ‘real’ world fire engineering problems ???

And I also wonder … why have the 2005 and 2008 NIST (USA) WTC 9-11 Recommendations on the WTC Building Collapses still not been properly implemented within the USA … and why have they been ignored everywhere else ?????

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After Grenfell: Reliable Design, Supply & Construction Essential !

2017-10-10:  After the Grenfell Tower Fire Tragedy in London, on 14 June 2017, the integrity of the English Regulatory and Technical/Building Control Systems is now so compromised that a complete Systems Transformation is immediately required !   Closer to home, here in Ireland … what nobody is daring to say, even our tame media, is that Our Regulatory System is based very closely on the English System.  And Our Technical/Building Control System is purposefully under-resourced … so it is weak and ineffective.

Let there be no confusion … Priory Hall and Longboat Quay, both in Dublin, are just the tip of an enormous iceberg …

Colour photograph showing the Grenfell Tower Fire, in London … early in the morning, after dawn, on Wednesday, 14 June 2017.  Harsh, tragic Reality !  Click to enlarge.

So where do we start again ?

Reality – Reliability – Redundancy – Resilience !

With regard to Reliable Fire Engineering Related Design, Supply and Construction … this is how we must proceed …

  1. Design of the works is exercised by an independent, appropriately qualified and experienced architect/engineer/fire engineer, with design competence relating to the fire protection of buildings ;
  1. Supply of fire safety related construction products/systems to the works is undertaken by reputable organizations with construction competence, particularly in relation to the fire protection of buildings ;
  1. Installation/fitting of fire safety related construction products/systems is exercised by appropriately qualified and experienced personnel, with construction competence relating to the fire protection of buildings ;
  1. Supervision of the works is exercised by appropriately qualified and experienced personnel from the principal construction organization ;
  1. Regular inspections, by appropriately qualified and experienced personnel familiar with the design, and independent of both the design and construction organizations, are carried out to verify that the works are being executed in accordance with the design.

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2017 Architecture & Building Expo – An Annoying Experience !!

2017-10-09:  On Saturday last, 7 October, I had the great misfortune to attend the Architecture & Building Expo … which was being held, in conjunction with the RIAI’s (Royal Institute of the Architects of Ireland) Annual Conference, at the RDS (Royal Dublin Society) Main Hall in Ballsbridge, Dublin …

Colour photograph showing the Entrance to the RDS Main Hall … and the 2017 Architecture & Building Exhibition.  Click to enlarge.

Colour photograph showing a high level view over the 2017 Architecture & Building Exhibition in the RDS Main Hall.  Click to enlarge.

Colour photograph showing some of the people who attended the 2017 Architecture & Building Exhibition in the RDS Main Hall.  Click to enlarge.

What was annoying … really annoying … and depressing, all at the same time … was having to introduce a senior individual on one Exhibition Stand to Part D of the Irish Building Regulations !   I even had to show that same individual where to find Technical Guidance Document D on the Irish DHPLG (Department of Housing, Planning & Local Government) Website.  And on more than a few other Stands … having to explain what is a CE Mark !!   This is entirely unacceptable.  FUBAR.

And let us all not forget that this Exhibition was being held in conjunction with the RIAI’s 2017 Annual Conference

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SFE Work Programme 2017 – Want To Get Involved & Help ??

2017-01-05:  Happy New Year to All and One !

SUSTAINABLE FIRE ENGINEERING (SFE)

The creative, person-centred and ethical fire engineering response – in resilient built or wrought form, and using smart systems – to the intricate, open, dynamic and continually evolving concept of Sustainable Human & Social Development … the many aspects of which must receive balanced and synchronous consideration.

SFE PRIORITY THEMES

 1.  Fire Safety for ALL – Not Just for SOME People.  Nobody Left Behind !

Do Building Designers and Fire Engineers have any understanding of what it feels like to be left behind in a fire emergency … perhaps to die ?

Do Building Designers and Fire Engineers have any understanding of the ‘real’ people who use their buildings … or their ‘real’ needs ?

2.  Firefighter Safety – It’s So Easy to Dramatically Improve Their Safety At A Fire Scene !   A Firefighter’s Protective Clothing and Equipment are not enough !

Conscious awareness of this issue by Building Designers and Fire Engineers is required … and appropriate education/training.

3.  Property Protection – A Minor Code Fire Safety Objective, Insofar As It Is Necessary to Protect the Safety of Building Users … Only !

Fire damage and post-fire reconstruction/refurbishment are a huge waste of resources.  On the other hand, protection of an organization’s image/brand is important … and business continuity is essential.

Heritage Fire Losses cannot be replaced !

To properly protect Society and the interests of a Client/Client Organization … Building Designers and Fire Engineers are ethically bound to clearly explain the limitations of Code and Standard Fire Safety Objectives to their Client/Client Organization.

4.  Environmental Impact – Prevention Is Far, Far Better Than Cure.  Instead of resisting, and erecting ‘professional’ barriers … Spatial Planners, Building Designers and Fire Engineers must begin to properly understand this concept … and act ethically to defend and protect the environment !

Environmental Impact:  Any effect caused by a given activity on the environment, including human health, safety and welfare, flora, fauna, soil, air, water, and especially representative samples of natural ecosystems, climate, landscape and historical monuments or other physical structures, or the interactions among these factors ; it also includes effects on accessibility, cultural heritage or socio-economic conditions resulting from alterations to those factors.

This Planet – Our Common Home – can no longer suffer the scale and extent of total devastation seen after the 2015 Tianjin (China) Regional Fire Disaster !

5.  Building Innovation, People and Their Interaction – Fire Engineers and Firefighters must understand current approaches to more sustainable building design, the ‘real’ people who use the built environment, and the complex interactions between both.

People with Activity Limitations (E) / Personnes à Performances Réduites (F):  Those people, of all ages, who are unable to perform, independently and without aid, basic human activities or tasks – because of a health condition or physical/mental/cognitive/psychological impairment of a permanent or temporary nature.

The above Term, in English and French, includes …

  • people who experience difficulty in walking, with or without a facilitation aid, e.g. stick, crutch, calliper or walking frame ;
  • wheelchair users ;
  • the very young (people under 5 years of age), frail older people, and women in the later stages of pregnancy ;
  • people who are visually and/or hearing impaired ;
  • people who suffer from arthritis, asthma, or a heart condition … or any partial or complete loss of language related abilities, i.e. aphasia … or who have a cognitive impairment disorder, including dementia, amnesia, brain injury, or delirium ;
  • people impaired after the use of alcohol, other ‘social’ drugs e.g. cocaine and heroin, and some medicines … or following exposure to environmental pollution and/or other irresponsible human activity, e.g. war or terrorism ;
  • people who experience a panic attack in a real fire situation or other emergency ;
  • people, including firefighters, who suffer incapacitation as a result of exposure, during a real fire, to smoke and poisonous/toxic substances and/or elevated temperatures.

6.  Sustainable Design & Engineering – Get With The Programme !   The extensive United Nations 2030 Sustainable Development Framework Agenda was overwhelmingly agreed and adopted in 2015.

Sustainability Impact Assessment (SIA):  A continual evaluation and optimization process – informing initial decision-making, design, shaping activity/product/service realization, useful life, and termination or final disposal – of the interrelated positive and negative social, environmental, economic, institutional, political and legal impacts on balanced and equitable implementation of Sustainable Human & Social Development.

‘Carrots and Sticks’ can only achieve so much.  Spatial Planners, Building Designers and Fire Engineers must – individually and as a group – subscribe to a robust Code of Ethics which is fit for purpose in today’s Human Environment.

2016 Dublin-Code-of-Ethics: Design, Engineering, Construction & Operation of a Safe, Resilient & Sustainable Built Environment for All  (PDF File, 112Kb)

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SUSTAINABLE FIRE ENGINEERING (2017)

New CIB W14: ‘Fire Safety’ Research Working Group VI Reflection Document: ‘Sustainable Fire Engineering Design, Construction & Operation’, which will establish a framework for the future development of Sustainable Fire Engineering.

Preparation of this Document will soon begin, and the following issues will be explored:

  • Conceptual Framework for Sustainable Fire Engineering (SFE), with a necessary accompanying Generic SFE Terminology ;
  • Strategy for Future SFE Development ;
  • Implementation of 2005 & 2008 NIST WTC 9-11 Recommendations ;
  • Fresh, New SFE Research Agenda ;
  • Resilient Implementation of SFE Research Agenda.

Would you like to get involved, and help with this work ?

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PRIORITY THEME 1 – FIRE SAFETY FOR ALL (2017)

The Fire Safety Task Group, chaired by CJ Walsh, of ISO Technical Committee 59, Sub-Committee 16, Working Group 1, has already commenced the revision and further development of the fire safety texts in International Standard ISO 21542 (2011): ‘Building Construction – Accessibility & Usability of the Built Environment’.

The main effort, initially, has been focused on developing a coherent Fire Safety for All approach … token consideration, or a post-design graft-on, of the fire safety needs of people with activity limitations do not work, and are unacceptable.

Progress with this work can be followed here: http://www.fire-safety-for-all.sustainable-design.ie/iso-21542/

The next ISO Meeting will take place in Madrid, Spain … towards the end of March 2017.

Would you like to get involved ?

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AND … Would you like to discuss any of the above issues ?   Well … Why not join the LinkedIn SFE Group at: https://www.linkedin.com/groups/8390667 ??

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Sustainable Fire Engineering – 2016 End Of Year Report !

2016-12-28:  Happy New Year to One and All !

SUSTAINABLE FIRE ENGINEERING

‘ The creative, person-centred and ethical Fire Engineering response, in resilient built form and smart systems, to the concept of Sustainable Human and Social Development – the many aspects of which must receive balanced and synchronous consideration.’

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Organized by FireOx International (Ireland, Italy & Turkey), in joint collaboration with Glasgow Caledonian University’s School of Engineering & Built Environment (Scotland) … and having a widely multi-disciplinary attendance from the U.S.A., Hong Kong SAR (China), Spain, Finland, Scotland, Norway, Germany, England, The Netherlands and Ireland … SFE 2016 DUBLIN was a unique, and very successful, two-day gathering within the International Fire Engineering and Fire Service Communities.

The organizers are very grateful to our Supporters: CIB, FIDIC, iiSBE, and the UNEP’s Sustainable Buildings and Climate Initiative … and our Sponsor: Rockwool International.

SUSTAINABLE FIRE ENGINEERING fulfils a Critical Role in the realization of a Safe, Resilient and Sustainable Built Environment 4 ALL !

SUSTAINABLE FIRE ENGINEERING facilitates Positive Progress in implementing the United Nation’s 2030 Sustainable Development Agenda, which incorporates 17 Sustainable Development Goals and 169 Performance Targets !

SUSTAINABLE FIRE ENGINEERING fast-tracks Proper Compliance with the 7 Basic Performance Requirements – functional, fully integrated and indivisible – in Annex I of European Union Construction Products Regulation 305/2011 !

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A NECESSARY & LONG OVERDUE TRANSFORMATION !

A Building is a permanent construction, complying with basic performance requirements and capable of being easily adapted … comprising structure, essential electronic, information and communication technologies (EICT’s), and fabric (non-structure) … having a minimum life cycle of 100 years … and providing habitable, functional and flexible interior spaces for people to use.

Building Users have a wide and varied range of abilities and behaviours … some having discernible health conditions and/or physical, mental, cognitive, psychological impairments … while others, e.g. young children, women in the later stages of pregnancy and frail older people, are also particularly vulnerable in user-hostile, inaccessible environments.  Not everyone will self-identify as having an activity limitation because of the high level of social stigma associated with ‘disability’.  Building designers and fire engineers must accept that building users have rights and responsible needs ;  the real individual and group fire safety requirements of vulnerable building users must be given proper consideration by both design disciplines, working collaboratively together.

Real Building Users have a wide and varied range of abilities … and during a Fire Evacuation, they will NOT behave like ‘marbles or liquid in a computer model’ !  People with Disabilities, on their own, account for approximately 20% of populations in developed countries … more in developing and the least developed countries.

NOBODY LEFT BEHIND !

‘Fire Safety for ALL’ in Buildings – Not Just for SOME – A Priority Theme of Sustainable Fire Engineering

Current Revision of International Standard ISO 21542 (2011): ‘Building Construction – Accessibility & Usability of the Built Environment’

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Following the savage 2008 Mumbai Hive Attack in India, and the more recent 2015 and 2016 Attacks in Europe, i.e. Paris, Brussels, Istanbul and Berlin … it is entirely wrong to assume that the main and/or only targets will be specific high-risk buildings types, i.e. Tall/High-Rise, Iconic, Innovative and Critical Function Buildings (refer to 2005 & 2008 NIST WTC 9-11 Recommendations).  All buildings and adjoining/adjacent public spaces must be carefully assessed for the risk of direct or collateral involvement in an Extreme Man-Made Event.

It is a fundamental principle of reliable and resilient structural engineering that horizontal and vertical structural members/elements of construction are robustly connected together.  All buildings must, therefore, be capable of resisting Disproportionate Damage.  The restriction of this requirement, within some jurisdictions, to buildings of more than five storeys in height is purely arbitrary, cannot be substantiated technically … and ethically, must be disregarded.

Fire-Induced Progressive Damage is distinguished from Disproportionate Damage – a related but different structural concept – by the mode of damage initiation, not the final condition of building failure.  This phenomenon is poorly understood.  But, unless it is impeded, or resisted, by building design … Fire-Induced Progressive Damage will result in Disproportionate Damage … and may lead to a Collapse Level Event (CLE), which is entirely unacceptable to the general population of any community or society.  All buildings must, therefore, be capable of resisting Fire-Induced Progressive Damage.

All buildings must also be carefully assessed for the risk of involvement in a Severe Natural Event, e.g. earthquakes, floods, landslides, typhoons and tsunamis.

In all of the above Risk Assessments … the minimum Return Period (also known as Recurrence Interval or Repeat Interval) must never be less than 100 years.

Reacting to surging energy, environmental and planetary capacity pressures … with accelerating climate change … Sustainable Buildings are now presenting society with an innovative and exciting re-interpretation of how a building is designed, constructed and functions … an approach which is leaving the International Fire Engineering and Fire Service Communities far behind in its wake, struggling to keep up.

Colour ‘infographic’ showing the design features of 1 Bligh Street, Sydney CBD, Australia … ‘tall’/skyscraper commercial office building, completed in 2011 … designed by Ingenhoven Architects (Germany) and Architectus (Australia).  Can Fire Engineers understand this new design approach … and then collaborate, actively and creatively, within the Project Design Team ?

Black and white plan drawing of 1 Bligh Street (Level 26), Sydney CBD, Australia … a ‘sustainable’ office building … BUT … Effective ‘Fire Safety for All’ in this building ?  Has Firefighter Safety been considered ??  Property Protection ???  Business Continuity ????  The very harmful Environmental Impacts of Fire ?????

Passive and Active Fire Protection Measures, together with Building Management Systems (whether human and/or intelligent), are never 100% reliable.  Society must depend, therefore, on firefighters to fill this reliability ‘gap’ … and to enter buildings on fire in order to search for remaining or trapped building users.  This is in addition to their regular firefighting function.  Therefore, there is a strong ethical obligation on building designers, including fire engineers, to properly consider Firefighter Safety … should a fire incident occur at any time during the life cycle of a building.

Structural Serviceability, Fire Resistance Performance and ‘Fire Safety for All’ in a building must, therefore, be related directly to the local Fire Service Support Infrastructure … particularly in developing and the least developed countries.  AND … Fire Codes and Standards must always be adapted to a local context !

Colour photograph showing knotted sheets hanging from high-level windows which were used for ‘escape’ by guests … clearly indicating a catastrophic failure of fire protection measures and management within the building. Fire and smoke spread quickly throughout the multi-storey hotel, resulting in 12 dead, and over 100 injured (approximately 1/3 critically).

Colour photograph showing a guest rescue by ladder.  Notice the condition of the ladder and firefighter protection.  Fire safety in a building must be related directly to local Fire Service Support Infrastructure … particularly in developing and the least developed countries.

The fire safety objectives of current Fire Codes and Standards are limited, usually flawed … and will rarely satisfy the real needs of clients/client organizations, or properly protect society.  Fire code compliance, in isolation from other aspects of building performance, will involve a consideration of only a fraction of the issues discussed above.  There is once again, therefore, a strong ethical obligation on building designers, including fire engineers, to clearly differentiate between the limited fire safety objectives in Fire Codes and Standards … and Project-Specific Fire Engineering Design Objectives … and to explain these differences to a Client/Client Organization.  Facility Managers must also explain these differences directly to an Organization’s Senior Management … and directly inform the Organization’s Board of Directors … as appropriate.SFE Mission:  To ensure that there is an effective level of Fire Safety for ALL – not just for SOME – in the Built Environment … to dramatically reduce all direct and indirect fire losses in the Human Environment … and to protect the Natural Environment.

4 Key SFE Concepts:  Reality – Reliability – Redundancy – Resilience !

SFE Design Solutions:  Are …

  • Adapted to Local Context & Heritage ;
  • Reliability-Based ;
  • Person-Centred ;   and
  • Resilient.

SFE SUBSIDIARY OBJECTIVES

  1. To transform Conventional Fire Engineering, as practiced today, into an ethical and fully professional Sustainable Design Discipline which is fit for purpose in the 21st Century … meaning … that fire engineers can participate actively and collaboratively in the sustainable design process, and can respond creatively with sustainable fire engineering design solutions which result in Effective Fire Safety for All in a Safe, Resilient and Sustainable Built Environment.
  2. To bring together today’s disparate sectors within the International Fire Engineering (and Science) Community … to encourage better communication between each, and trans-disciplinary collaboration between all.
  3. To initiate discussion and foster mutual understanding between the International Sustainable Development, Climate Change and Urban Resilience Communities … and the International Fire Engineering and Fire Service Communities.

SFE DELIVERABLES

1.  2016 Dublin Code of Ethics: Design, Engineering, Construction & Operation of a Safe, Resilient & Sustainable Built Environment for All.  Download from: http://www.sustainable-firengineering.ie/sfe2016dublin/wp-content/uploads/2016/09/2016_Dublin-Code-of-Ethics.pdf

The realization of a Safe, Inclusive, Resilient & Sustainable Built Environment demands a concerted, collaborative, very creative and widely trans-disciplinary effort at national, local, regional and international levels across the whole planet – Our Common Home.  The informed operation of appropriate legislation, administrative procedures, performance monitoring and targeting, and incentives/disincentives, at all of these levels, will facilitate initial progress towards this objective … but not the quantity, quality or speed of progress necessary.  Our time is running out !

This Code of Ethics applies … for those who subscribe to its values … to policy and decision makers, and the many different individuals and organizations directly and indirectly involved in the design, engineering, construction, and operation (management and maintenance) of a Safe, Resilient & Sustainable Built Environment for All.

The Purpose of this Code of Ethics is to guide the work of competent individuals and organizations in a context where incomplete or inadequate legislation, administrative procedures and incentives/disincentives exist … but, more importantly, where they do not exist at all … and, amid much confusion and obfuscation of the terms, to ensure that implementation is authentically ‘sustainable’, and reliably ‘safe’ and ‘resilient’ for every person in the receiving community, society or culture … before it is too late !

2.  Sustainable Fire Engineering Network … Join the LinkedIn SFE Group at https://www.linkedin.com/groups/8390667.  Interested Individuals and Organizations are all very welcome.

And … Like the Facebook SFE Page at https://www.facebook.com/sfe2016/

3.  New CIB W14: ‘Fire Safety’ Research Working Group VI Reflection Document: ‘Sustainable Fire Engineering Design, Construction & Operation’, which will establish a framework for the future development of Sustainable Fire Engineering.

Preparation of this Document will soon begin, and the following issues will be explored:

  • Conceptual Framework for Sustainable Fire Engineering (SFE), with a necessary accompanying Generic SFE Terminology ;
  • Strategy for Future SFE Development ;
  • Implementation of 2005 & 2008 NIST WTC 9-11 Recommendations ;
  • Fresh, New SFE Research Agenda ;
  • Resilient Implementation of SFE Research Agenda.

4.  SFE Websitehttp://www.sfe-fire.eu

5.  SFE Twitter Accounts … @sfe2016dublin … and … @firesafety4all

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Firefighter Safety & Solar Photovoltaic Panels On Buildings ??

2016-09-14:  Only now are we really catching up with the extremely serious matter of Fire Safety in Sustainable Buildings … serious for building occupants … and firefighters !

‘ In order to achieve sustainable development, environmental protection and energy efficiency/conservation shall constitute integral parts of the development process, and shall not be considered in isolation.’

2016 Dublin Code of Ethics: Design, Engineering, Construction & Operation of a Safe, Resilient & Sustainable Built Environment for All   ( www.sfe-fire.eu )

The Performance Target for New Construction must be Positive Energy Buildings.

So … we will see more and more Solar Photovoltaic Panels installed on more and more buildings … in every country.  Certainly not less !   And, let’s face it, many will not be properly approved, i.e. shown to be ‘fit for their intended use’ …

Colour photograph showing a house fire caused by Solar Photovoltaic Roof Panels.

Colour photograph showing a house fire caused by Solar Photovoltaic Roof Panels.

At the beginning of this decade, a Fire Research Project was carried out by the Underwriters Laboratories Firefighter Research Institute in the USA … and it addressed the issue of firefighter vulnerability to electrical hazards, and serious injury, when fighting a fire involving Solar Photovoltaic (PV) Modules and Support Systems installed on buildings.

Colour photograph showing two firefighters on a roof, one with cutting equipment. Solar Photovoltaic Roof Panels restrict firefighter access to building interior roof spaces.

Colour photograph showing two firefighters on a roof, one with cutting equipment. Solar Photovoltaic Roof Panels restrict firefighter access to building interior roof spaces.

The Total Global Solar Energy Capacity averaged 40 % annual growth from 2000 to 2010 (source: International Energy Agency).  In the USA, Grid-Connected Solar Photovoltaic Capacity grew 50 % per year for much of that time (source: US Federal Energy Regulatory Commission).  These trends increase the potential of a Fire Service Response to a building having a Photovoltaic Installation, irrespective of the PV being involved with the initiation of the fire event.  As a result, conventional firefighter tactics for suppression, ventilation and overhaul have been complicated, leaving firefighters vulnerable to potentially unrecognized exposure.  Though the electrical and fire hazards associated with electrical generation and distribution systems are well known, PV Systems present unique safety concerns.  A limited body of knowledge and insufficient data exist to understand these risks … to the extent that Fire Services have been unable to develop safety solutions and respond in a safe manner.

This Fire Research Project developed the empirical data needed to quantify the hazards associated with PV Installations … and provided the foundation to modify current or develop new firefighting practices to reduce firefighter deaths and injury.

Colour photograph showing a large array of Solar Photovoltaic Panels on a roof. Extra loading on roof structures must be considered, as well as possible interference with roof fire evacuation routes for able-bodied occupants.

Colour photograph showing a large array of Solar Photovoltaic Panels on a roof. Extra loading on roof structures must be considered, as well as possible interference with roof fire evacuation routes for able-bodied occupants.

The Tactical Considerations addressed during the Project include:

  • Shock hazard due to the presence of water and PV power during fire suppression activities ;
  • Shock hazard due to the direct contact with energized components during firefighting operations ;
  • Emergency disconnect and disruption techniques ;
  • Severing of conductors ;
  • Assessment of PV power during low ambient light, artificial light and light from a fire ;
  • Assessment of potential shock hazard from damaged PV Modules and Systems.

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Office of California’s State Fire Marshal – November 2010

Fire Operations for Photovoltaic Emergencies (CAL FIRE – 2010)  (PDF File, 1.99MB)

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UL Report (2011):  The Following Summarizes the Findings of This Fire Research Project:

  1. The electric shock hazard due to the application of water is dependent on voltage, water conductivity, distance and spray pattern.  A slight adjustment from a solid fire hose stream towards a fog pattern (10 degree cone angle) reduced measured current below perception level.  Salt water should not be used on live electrical equipment.  A distance of 6 m has been determined to reduce potential shock hazard from a 1000 VDC source to a level below 2 mA, considered as safe.  It should be noted that pooled water or foam may become energized due to damage in the PV System.
  1. Outdoor weather exposure-rated electrical enclosures are not resistant to water penetration by fire hose streams.  A typical enclosure will collect water and present an electrical hazard.
  1. Firefighters’ gloves and boots afford limited protection against electrical shock provided the insulating surface is intact and dry.  They should not be considered equivalent to Electrical Personal Protective Equipment (PPE).
  1. Turning off an array is not as simple as opening a disconnect switch.  Depending on the individual system, there may be multiple circuits wired together to a common point such as a combiner box.  All circuits supplying power to this point must be interrupted to partially de-energize the system.  As long as the array is illuminated, parts of the system will remain energized.  Unlike a typical electrical or gas utility … on a PV Array, there is no single point of disconnect.
  1. Tarps offer varying degrees of effectiveness to interrupt the generation of power from a PV Array, independent of cost.  Heavy, densely woven fabric and dark plastic films reduce the power from PV to nearly zero.  As a general guide, if light can be seen through a tarp, it should not be used.  Caution should be exercised during the deployment of tarps on damaged equipment, as a wet tarp may become energized and conduct hazardous current if it contacts live equipment.  Also, firefighting foam should not be relied upon to block light.
  1. When illuminated by artificial light sources, such as Fire Department light trucks or an exposure fire, PV Systems are capable of producing electrical power sufficient to cause a lock-on hazard.
  1. Severely damaged PV Arrays are capable of producing hazardous conditions ranging from perception to electrocution.  Damage to the array may result in the creation of new and unexpected circuit paths.  These paths may include both array components (module frame, mounting racks, conduits, etc) and building components (metal roofs, flashings and gutters).  Care must be exercised during all operations, both interior and exterior.  Contacting a local professional PV Installation Company should be considered to mitigate potential hazards.
  1. Damage to modules from tools may result in both electrical and fire hazards.  The hazard may occur at the point of damage or at other locations depending on the electrical path. Metal roofs present unique challenges in that the surface is conductive unlike other types such as shingle, ballasted or single ply.
  1. Severing of conductors in both metal and plastic conduit results in electrical and fire hazards.  Care must be exercised during ventilation and overhaul.
  1. Responding personnel must stay away from the roofline in the event of modules or sections of an array sliding off the roof.
  1. Fires under an array but above the roof may breach roofing materials and decking … allowing fire to propagate into the attic space of the building.

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Building Materials, Irish Pyrite & Chinese Plasterboard – FUBAR !

2014-07-08:  Why do individuals and institutions wake up to a problem only when extensive damage to property, or horrendous injury to people, has already occurred … and the shit hits the fan … big time ?!?   What way is that to organize a society … or protect its communities ???

The Answer is Simple:  Prevention !   Not Cure … when damage cannot be effectively repaired … some injuries can never be healed … and it becomes very costly to do anything !!

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In Ireland … Part D of the Second Schedule to the Building Regulations, as amended, states the following …

Materials & Workmanship

Legal Requirement D1:  All works to which these Regulations apply shall be carried out with proper materials and in a workmanlike (i.e. competent) manner.

Definition of ‘Proper Materials’

Proper Materials:  Building/construction materials (or products, systems, assemblies, etc.) which are fit for the use for which they are intended and for the conditions/location in which they are to be used.

Reference European Union (EU) Legislation

EU Regulation No.305/2011 of the European Parliament and of the Council, of 9 March 2011, laying down harmonised conditions for the marketing of construction products and repealing Council Directive 89/106/EEC.

[ N.B. The 1989 European Directive on Construction Products (89/106/EEC) was repealed, in 2011, by Article 65 of EU Regulation No.305/2011. ]

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THEREFORE …

It is the duty of a Supplier … any Supplier, e.g. manufacturer, distributor, agent, wholesaler, whatever … of building/construction materials to clearly show that they are ‘proper materials’, i.e. they are fit for the use for which they are intended and for the conditions/location in which they are to be used.

Refer to SDI’s Technical Guidance Noteswww.sustainable-design.ie/arch/tgn.htm

AND …

It is the duty of the Design Professional in Responsible Charge of a construction project (whoever he/she may be – architect, engineer, etc., etc.) to demand of a Supplier … additionally and most particularly, where there are any doubts about any relevant aspect of that material’s performance … that he/she/they clearly show that the building/construction materials they are supplying are ‘proper materials’, i.e. they are fit for the use for which they are intended and for the conditions/location in which they are to be used.

SO …

When Pyrite, for example, shows up in the hardcore under a finished concrete floor, or in the blockwork of a completed wall, in an Irish building … we know who has ignored his or her legal/professional duty concerning proper and satisfactory compliance with Legal Requirement D1 … and who is liable.

For bureaucrats and the legal profession, this is the end of the story.

BUT …

At this stage – when building occupants are hurt and extremely annoyed following, perhaps years, of inconvenience and discomfort – it’s too late !   The damage cannot be effectively repaired … and such limited repairs which can, in practical terms, be carried out will be very expensive.

PLAY IT AGAIN, SAM …

In Ireland, have we properly learned any lessons from Priory Hall, Pyrite, or Chinese Plasterboard ?   No !

Could these or similar problems occur AGAIN on an Irish building site ?   Yes !

Because … aided and abetted by the professional institutes … a ‘blind eye’ is being turned to the greatest lesson of all … that self-regulation/self-certification does NOT work !!

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And Other E.U. Member States ???

The wording in national/local legislation may be slightly different … the language certainly will be different … but the legal intent is the same.

Legal/professional duties are similar.

Self-regulation/self-certification doesn’t work there either !

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Sustainable Fire Engineering Design – Targeting & MRV !

2014-04-20:  Traditional/Conventional Fire Engineering Practice is slowly, but inevitably, being transformed … in order to meet the regional and local challenges of rapid urbanization and climate change, the pressing need for a far more efficient and resilient building stock, and a growing social awareness that ‘sustainability’ demands much greater human creativity …

Design Target:  A Safe, Resilient and Sustainable Built Environment for All

Design Key Words:  Reality – Reliability – Redundancy – Resilience

Essential Construction & Occupancy Start-Up Processes:  Careful Monitoring & Reporting – Independent Verification of Performance (MRV)

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Sustainable Fire Engineering Design Solutions:

Are Reliability-Based …
The design process is based on competence, practical experience, and an understanding of ‘real’ building performance and resilience during Extreme Man-Made Events, e.g. 2001 WTC 9-11 Attack & 2008 Mumbai Hive Attacks, and Hybrid Disasters, e.g. 2011 Fukushima Nuclear Incident … rather than theory alone.

Are Person-Centred …
‘Real’ people are placed at the centre of creative design endeavours and proper consideration is given to their responsible needs … their health, safety, welfare and security … in the Human Environment, which includes the social, built, economic and virtual environments.

Are Adapted to Local Context & Heritage *
Geography, orientation, climate (including change, variability and severity swings), social need, culture, traditions, economy, building crafts and materials, etc., etc.
[* refer to the 2013 UNESCO Hangzhou Declaration]

In Sustainable Design … there are NO Universal Solutions !

Design Objectives:

To protect society, the best interests of the client/client organization and building user health and safety, and to maintain functionality under the dynamic, complex conditions of fire … Project-Specific Fire Engineering Design Objectives shall cover the following spectrum of issues …

  • Protection of the Health and Safety of All Building Users … including people with activity limitations (2001 WHO ICF), visitors to the building who will be unfamiliar with its layout, and contractors or product/service suppliers temporarily engaged in work or business transactions on site ;
  • Protection of Property from Loss or Damage … including the building, its contents, and adjoining or adjacent properties ;
  • Safety of Firefighters, Rescue Teams and Other Emergency Response Personnel ;
  • Ease and Reasonable Cost of ‘Effective’ Reconstruction, Refurbishment or Repair Works after a Fire ;
  • Sustainability of the Human Environment – including the fitness for intended use and life cycle costing of fire engineering related products, systems, etc … fixed, installed or otherwise incorporated in the building ;
  • Protection of the Natural Environment from Harm, i.e. adverse impacts.

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More Specifically … with Regard to Resilient Building Performance during a Fire Incident and the ‘Cooling Phase’ after Fire Extinguishment:

1.   The Building shall be designed to comply with the Recommendations in the 2005 & 2008 NIST(USA) Final Reports on the World Trade Center(WTC) 1, 2 & 7 Building Collapses.

In one major respect, the 2005 NIST Report is flawed, i.e. its treatment of ‘disability and building users with activity limitations is entirely inadequate.  The Building shall, therefore, be designed to comply with International Standard ISO 21542: ‘Building Construction – Accessibility & Usability of the Built Environment’, which was published in December 2011.

2.   The Building shall remain Serviceable, not just Structurally Stable(!) … until all buildings users (including those users with activity limitations waiting in ‘areas of rescue assistance’) have been evacuated/rescued to an accessible ‘place of safety’ which is remote from the building, and have been identified … and all firefighters, rescue teams and other emergency response personnel have been removed/rescued from the building and its vicinity.

The Building shall be designed to resist Fire-Induced Progressive Damage and Disproportionate Damage.  These requirements shall apply to all building types, of any height.

Under no reasonably foreseeable circumstances shall the Building be permitted to collapse !

3.   The Building shall be designed to comfortably accommodate and resist a Maximum Credible Fire Scenario and a Maximum Credible User Scenario.

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Concerted International Research is Needed …

To creatively resolve the direct conflict which exists between Sustainable Building Design Strategies and Traditional/Conventional Fire Engineering.

An example … for cooling, heating and/or ventilation purposes in a sustainable building, it is necessary to take advantage of natural patterns of uninterrupted air movement in that building. On the other hand, fire consultants in private practice, and fire prevention officers in authorities having jurisdiction, will demand that building spaces be strictly compartmented in order to limit the spread of fire and smoke … thereby dramatically interfering with those natural patterns of air movement. The result is that the sustainability performance of the building is seriously compromised.

If, however, adequate independent technical control is absent on the site of a sustainable building … it is the fire safety and protection which will be seriously compromised !

To effectively deal with the fire safety problems (fatal, in the case of firefighters) which result from the installation of Innovative Building/Energy/EICT Systems and Products in Sustainable Buildings.

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These are appropriate tasks for a new CIB W14 Research Working Group VI: ‘Sustainable Fire Engineering Design & Construction’ !

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