Gateway 2 lessons: Preparing construction projects for Gateway 3 success

Quelfire shares expert insights into the key lessons from Gateway 2, highlighting common compliance challenges and how construction teams can prepare for Gateway 3

In many ways, Gateway 2 has become the new normal. It’s already changing the industry for the better, especially for teams that genuinely want to get things right. That said, the industry isn’t fully there yet.

Some still hold the mindset of “we’ve always done it this way” and approach the Gateway regime as something they have to do, rather than as something that can make a real difference in how we design and construct buildings.

From our perspective at Quelfire, it’s a much-needed change that is pushing the industry toward better decisions and safer buildings – which can only be good things, surely? In early applications, Ishfaq was surprised by the disconnect between the Building Safety Regulator (BSR) teams and the construction industry.

He highlighted that there seemed to be no established process; some BSR teams used staged applications, while others required full submissions.

Some submissions completed in early Stages 3/4 with no contractor details were approved in 12 weeks, whereas other T1 contractors, for instance, provided thorough information on specific parts of the build and waited about 9 months for approval.

Ultimately, this suggests that the BSR was still very much working out its processes during this stage. Because the introduction of the Gateways was such a significant change for the industry, the focus has naturally been on the first stop-and-go gateway, Gateway 2.

However, as the built environment transitions beyond this, the next unknown is Gateway 3, which introduces a new level of uncertainty. Ishfaq raised concerns about potential delays from Gateway 3, especially given the delays experienced with the second Gateway.

He believes it hasn’t been “road tested enough yet” to know what it will entail; the industry is still waiting for feedback.

Where are construction projects still falling short at Gateway 2?

Typically, R5 Consultants will distribute their project schedule to key parties, ready for submission at Gateway 2.

However, upon receiving the completed schedule, the team often finds gaps in expectations and information, with each party often having different ideas about elements of the project.

Ishfaq said, “The challenge with firestopping is that it’s one of the few elements of construction that is genuinely collaborative. The architect will set their position of all these walls, the structural engineer will dictate what size the openings and letterboxes can be and then the M&E engineer needs to tell you what is actually passing through and where and then you can come to a resolution on what the firestopping needs to be.” What Ishfaq and his team are finding is that they’re getting pushback from consultants due to tight deadlines and rising costs, because they haven’t given enough time to Gateway requirements.

Furthermore, Whitty argued that contractors “can’t play the system anymore” and that part of the Gateway regime is about making concrete decisions and following them through on-site.

He said that hidden costs, along with having to redesign a project two or three times, slow development and cost a lot of money to resolve.

What does good Gateway 2 compliance actually look like?

The whole reason for the Building Safety Act 2022 and subsequent Gateways is to improve building safety and protect those in them. Early fire stopping engagement is the only way to ensure this, as it brings all key parties together at the design stage to discuss key deliverables and how they’ll be achieved.

It puts fire safety at the heart of every decision, ensuring the project is designed and then built around available fire stopping tested solutions. Ishfaq said that when looking at the mechanics of what you’re going to submit, it is about design procurement alongside product and system procurement.

If contractors review the information and decide on deliverables, a systematic approach can be taken to articulate it to the regulator.

Further to this, Whitty stated that main contractors need to be clear about and commit to products and systems they want to see in the building. He also raised that you’ve got to make it easy for the regulator to say yes.

You’re taking the BSR on a journey – give examples, show the rationale behind the decisions. This also includes being in dialogue with your regulator spokesperson and finding out what’s required of you: ask the questions.

All panellists agreed that it is better for project teams to take their time at the design stage and focus on getting it right the first time. Multiple redesigns cost time and money, add project pressure and stress and ultimately slow the whole project down.

You might discover that the BSR will ask for additional information after submission. By putting in the effort beforehand, you give yourself an advantage.

Thorough design may take time upfront, but it pays off in the long run for business security and profitability. Not to mention it prioritises building safety!

How can construction teams start preparing for Gateway 3 now?

Both Whitty and Ishfaq agreed that contractors need to improve their QA process. Whitty also went on to say that it’s about the execution of what you set out to do. It’s about evidencing that what you have installed is as per what you submitted at Gateway 2.

You can’t leave it to the last minute to prove how your piling went in, for example, you’ve got to be thinking about all of these things from the get-go.

Ultimately, no one knows what Gateway 3 will fully entail, so if you’re not preparing for it, start now. Willmott Dixon is preparing for Gateway 3 by enhancing its pre-start procedures, working through key deliverables before construction even begins.

The team goes through what they are building, what they will be evidencing and how often and what good looks like. Whitty stated that having these early on-site conversations has been driving value in production and efficiency and that there is generally less conflict on site.

By working closely with supply chain partners, behaviours become apparent. Their willingness to collaborate, but also how they plan, prepare and deliver to make Gateway 3 more achievable.

Are construction projects ready for Gateway 3?

While the built environment’s focus has been on Gateway 2, it highlights one question: Are we ready for what comes next? Gateway 3 is currently the big unknown. The unknown can be scary, but especially for those unprepared.

“We’ll deal with it later” can no longer be an option, as evidence is crucial to demonstrating that what is built is what was designed for Gateway 2. That means thinking ahead now and applying all practices across all projects.

Because, at the end of the day, this is about whole building safety and protecting lives. And sticking to the agreed plan.

This article is based on Quelfire’s London Build 2025 panel discussion, titled Gateway 2: What We Know Now. Craig Wells, Sales Director at Quelfire, was joined by Graeme Whitty, National Product Director at Willmott Dixon and Nasar Ishfaq, Director, Architect and Principal Designer at R5 Consultants, to discuss Gateway 2 and what they have learned since its introduction. However, this article touches on why you should look beyond Gateway 2 to Gateway 3. It also explains how to prepare for it.

Robot dog Spot gets gas detection upgrade through Blackline Safety, MFE collaboration

Blackline Safety Corp. has partnered with MFE Inspection Solutions to integrate Blackline’s cloud-connected portable detector with Boston Dynamics‘ Spot mobile industrial robot dog.

“Gas detection is critical for safety. And teams are no longer limited to collecting that data only when a person enters the area,” said Dylan Duke, CEO of MFE Inspection Solutions. “Robots like Spot are already being used to collect inspection data remotely in hazardous environments. This solution adds real-time gas detection to those workflows, giving operators insight into gas hazards before deciding how and when to send people in.”

Industrial gas monitoring has traditionally relied on personal monitors worn by workers. Connected gas detection gives teams access to gas data from multiple sources (personal gas monitors, area gas monitors, and remote systems like robots or drones) with live, detailed views of atmospheric conditions that help organisations make faster decisions.

“This is about connecting technologies customers are already using and making them more useful together,” said Christine Gillies, Chief Product and Marketing Officer, Blackline Safety. “MFE has built the digital plumbing to connect Spot with Blackline’s connected gas detection platform, adding another layer to worker protection while giving organisations critical exposure data as it happens, not after the fact like with traditional monitors, so they can make informed decisions in the moment.”

The solution lets operators view gas readings and alerts in Blackline Safety’s Blackline Live software, directly on the Spot tablet during operation, providing real-time awareness in the field.

It also triggers automated return-to-home actions when defined gas thresholds, such as rising LEL, are detected, helping teams move Spot out of hazardous conditions and protect site personnel.

Teams can use a range of hot-swappable, configurable, cartridge-based sensors on the robot dog that can be tailored to different environments and applications: 

“Spot’s thermal, acoustic, and visual inspection abilities provide AI-powered predictive insights into facility health,” said Merry Frayne, Senior Director of Product at Boston Dynamics. “Integrating the Blackline Safety portable device gives process manufacturers an even more complete picture of their site while keeping people out of harm’s way.”

How firefighter PPE standards are evolving for modern firefighting challenges

HAIX UK Sales Manager Simon Ash explains how climate change, evolving fire risks and stricter regulations are driving new performance expectations for firefighter PPE and firefighting footwear

In the high-stakes world of firefighting, there are fundamental commonalities that transcend borders and languages. Whether it is a professional crew navigating Europe’s urban density, a wildfire team in the United States, or a volunteer department in a rural village, the mission remains the same: to protect and save lives.

This shared dedication to protecting the public creates a unique global community, one that is united by fire. At the same time, firefighters operate in an increasingly complex environment.

Changing climate conditions, changing fire characteristics and heightened regulatory standards are reshaping the demands placed on both personnel and their equipment.

Despite differences in the environment, geography, cultures and on-the-ground challenges, there remains a critical interdependence across the sector, a nod to shared pressures, demands and passion for keeping society safe.

The concept of excellent PPE across the industry has therefore never been more relevant than today with the desire for high-quality, versatile and comfortable footwear being a universal requirement.

As the industry changes, PPE must meet baseline standards and actively enable strong performance, resilience and long-term wellbeing. PPE manufacturers must support current and future generations of firefighters so they are able to perform to the best of their ability as safely as possible.

The critical role of firefighting footwear in operational safety

Firefighters are inherently practical. They are engineers of emergency who operate in a world defined by physics, dynamic and often unpredictable conditions and split-second decision-making. For this demographic, the mindset is typically a fact-first approach and a need to understand the what, how and why behind decisions, actions and PPE equipment.

There is a strong and important connection between a firefighter and their equipment. The industry often focuses on the heroic narrative of the individual or team, but it is the technical reliability and performance consistency of PPE that underpins operational effectiveness.

If a firefighter is distracted by discomfort or concerned about the integrity of their PPE, such as from their footwear, their focus is split, which can lead to dangerous situations and reduced efficiency. By ensuring that every firefighter has access to the highest quality PPE, operational safety, biomechanical support and performance optimisation are maximised.

For HAIX, the role of advanced PPE is considered in every step. Its 70 years of expertise ensure that every element of manufacturing, design and quality benefits from proven German engineering principles. This expertise is translated into measurable performance outcomes at the point of need, ensuring that in the very instant a firefighter requires reliability most, they are supported by innovative, comfortable and protective footwear.

How climate change Is reshaping firefighter PPE requirements

Within the varied global requirements for adequate protection, the industry is currently facing a period of intense change. This includes regulatory developments, increasingly diverse fire profiles (from wildfires to lithium-ion battery incidents), advancements in material science, stricter safety standards and a growing emphasis on long-term firefighter health, including ergonomics and contamination management.

This changing environment tests the strength of the firefighting world, particularly in relation to consistency of PPE standards, access to innovation and the ability of equipment to perform under increasingly difficult conditions. This is why global brands, such as HAIX, are developing solutions that address international requirements.

Whether responding to large-scale wildfires or tackling emerging urban risks, such as e-mobility-related fires, the needs of the modern firefighter must be met.

Access to comfortable, secure and innovative footwear is a critical component of risk mitigation and performance readiness. Firefighters facing unpredictable climates now require footwear that balances structural protection against heat and penetration hazards with lightweight construction and ergonomic flexibility, enabling mobility and endurance over extended operational periods.

The expectation is for multi-functional PPE solutions that perform across a range of incident types and environmental conditions without compromising on comfort or safety. The need is for a singular boot that is effective in multiple scenarios and environments, while maintaining performance throughout long shifts. Future generations must also be considered in PPE development.

What works for firefighters now must also reflect the needs of the next wave of professionals, whether based on changing operational demands, increased diversity within the service or a greater focus on long-term health outcomes. Manufacturers that prioritise user-led innovation, field testing and continuous product development will play a key role in ensuring the industry remains both connected and future-ready.

The future of firefighter PPE and industry collaboration

The coming years will bring new challenges to the fire and rescue sector. From the impacts of climate change to the complexities of the built environment, the demands on firefighters will only increase.

Every firefighter plays a key role in the global safety puzzle and deserves equipment that meets a standard and sets a new one. The response must be to double down

on the values that have always sustained the service: camaraderie, expertise and a relentless pursuit of quality. For PPE manufacturers, this means investment in innovation and rigorous quality benchmarks.

Fire Eagle 3.0

HAIX’s latest innovation, the Fire Eagle 3.0, will be unveiled at this year’s INTERSCHUTZ. Characterised by speed, weight and feel, the third iteration in the best-selling series is a picture of technology influenced by real-life firefighter research and input. It is a refinement of the quality, craftsmanship and excellence ingrained in HAIX’s 70-year legacy.

Effective procurement  

To ensure the delivery of high-performance PPE that meets the specific demands of the fire sector, the
following strategies are recommendedfor procurement and supplier teams:
End-user engagement: Involve frontline personnel early as their insight is critical to defining meaningful requirements and identifying improvements for safety and comfort
Feature prioritisation: Distinguish between mandatory and desirable criteria to ensure a balance between innovation and technical possibility
Standards compliance: Clearly define requirements that comply with the most recent and relevant
safety standards
Continuous communication: Maintain open dialogue between procurement officers and suppliers to ensure clarity at every stage of the process
Quality focus: Ensure that safety, quality and compliance are prioritised throughout the process and valued above the price point

Greece launches world’s first national wildfire satellite system

OroraTech has launched and deployment of the Hellenic Fire System, the world’s first national wildfire satellite system in Greece. The system is a four-satellite constellation dedicated to wildfire monitoring and represents the first national satellite network designed exclusively for wildfire detection and tracking. The satellites were launched aboard a SpaceX mission from Vandenberg Space Force Base in California.

The system was developed in collaboration with the Greek Ministry of Digital Governance and Artificial Intelligence, the Hellenic Space Center, and the European Space Agency (ESA). It provides continuous, real-time wildfire intelligence covering 100% of Greek territory, enabling rapid detection and tracking of wildfire activity nationwide.

“Today marks a major step forward in strengthening Greece’s national resilience against wildfires,” said Dimitris Papastergiou, Minister of Digital Governance & Artificial Intelligence. “By integrating space-based capabilities into our emergency response systems, we are equipping our fire services with the tools they need to respond faster, act more effectively, and protect lives, property, and the environment.”

“The deployment of this system demonstrates how European collaboration can deliver tangible impact for citizens,” said Simonetta Cheli, Director of Earth Observation Programmes at the European Space Agency. “By combining advanced space technologies with operational services on the ground, we are enabling faster, more informed responses to natural disasters and strengthening Europe’s leadership in Earth observation.”

“This is a defining moment not just for Greece, but also for how the world approaches wildfire management,” said Martin Langer, CEO of OroraTech. “For the first time, an entire country is protected by a dedicated satellite constellation built to detect and track wildfires in real time. This is the blueprint for how nations can use space technology to safeguard their people, ecosystems, and economies.”

Wildfire satellite system equipped with thermal infrared sensors

The Hellenic Fire System includes four satellites equipped with thermal infrared sensors, a ground station in Greece, and OroraTech’s Wildfire Solution platform integrated into national emergency response systems. Data is delivered through the Ministry of Digital Governance, enabling near real-time wildfire detection with latency measured in minutes and hotspot identification as small as 4 by 4 meters.

In 2025, Europe experienced its most severe wildfire activity in over 20 years, with significant impact in Greece and across the Mediterranean region due to rising temperatures and prolonged drought conditions. The new system is designed to address gaps in traditional monitoring by providing continuous coverage and rapid detection during peak fire conditions.

The project is being implemented under an ESA Contract within the framework of the Greek National Satellite Space Project. The Project: Small-Satellites (Measure ID 16855) is implemented by the Hellenic Ministry of Digital Governance and Artificial Intelligence with the European Space Agency (ESA) Assistance in the Management and Implementation. It is part of the National Recovery and Resilience Plan ‘Greece 2.0’, funded by the Recovery and Resilience Facility (RRF), a core programme of the European Union-NextGenerationEU.

BSR gateway 2 approvals rise to 71%

The Building Safety Regulator (BSR) made 323 gateway 2 decisions in the 12 weeks to 1 May 2026, with 71% of applications approved, according to its latest building control update.

Of all decisions made during the period, 62% related to London projects.

Applications covering 17,046 residential units were determined during the 12-week period, including approvals for 12,299 housing units. BSR said 36,984 units remain in live cases.

The regulator also reported receiving new applications covering up to 17,626 residential units over the same period.

BSR’s Innovation Unit, which manages more complex higher-risk building applications, made 33 decisions in the 12 weeks to 1 May, approving 24 applications, equivalent to a 73% approval rate.

Fourteen of those approvals were for London projects. BSR said all 14 Innovation Unit decisions in London during the period were approved.

The regulator said all-time Innovation Unit approvals now total 33, with a median approval time of 22 weeks. The unit is currently handling 143 live applications representing 27,900 residential units.

Gateway 2 approvals continue to rise

BSR also published updated figures on remediation applications. The number of legacy remediation cases submitted in 2024 has fallen to 20, down from 42 at the start of 2026, with a further 12 applications expected to be determined by mid-May.

The regulator said remediation approval rates are nearing its 2026 target of 65%.

Under BSR’s batching process, where applications are grouped for external assessment, the median time from a case being issued to a supplier to a full assessment being returned was four weeks across new build, remediation and refurbishment categories.

The regulator said 254 new build cases, 408 remediation cases and 758 refurbishment cases have been issued through batching so far.

Median times from issue to supplier through to decision were nine weeks for new build cases, 10 weeks for remediation cases and 11 weeks for refurbishment cases.

BSR said the number of long-term legacy cases has been reduced to eight, which are being managed separately as complex cases.

Transitional cases have risen to 43 after BSR took over higher-risk building projects previously managed by Assent Building Control following the company’s closure in November 2025.

Charlie Pugsley, acting chief executive officer of BSR, said the regulator was continuing to process new build and remediation applications while maintaining building safety requirements.

How Often Should Fire Extinguishers Be Inspected?

Fire extinguishers should be inspected every month, professionally serviced once a year, and undergo deeper internal maintenance at six-year and twelve-year intervals, depending on the model.

These inspections ensure that extinguishers are ready to use and fully compliant with international fire safety standards.

Without routine checks, even a brand new extinguisher can fail when needed most.

Understanding how often these inspections must happen, why they matter, and what takes place during a fire extinguisher inspection is essential for anyone responsible for fire safety, including homeowners, employers, facility managers, and building supervisors.

Fire extinguishers are simple devices in appearance, but they have strict performance and safety expectations for effective fire suppression.

This article explains those expectations clearly and thoroughly so readers can feel confident that their equipment is reliable.

Key Takeaways

  • Fire extinguishers must be checked monthly, serviced annually, and maintained internally at six and twelve year intervals.
  • NFPA 10 is the governing standard for inspection, maintenance, and testing requirements.
  • Regular inspections ensure safety, legal compliance, and extinguisher reliability.
  • All major extinguisher types require periodic inspection, although their servicing needs vary.
  • Accurate documentation is required for compliance, insurance, and audit purposes.

Why Fire Extinguishers Need Inspecting

Fire Extinguisher Inspector

A fire extinguisher is only effective if it works the moment it’s needed.

Over time, these devices can deteriorate in ways that are not immediately obvious to the casual observer.

Pressure can slowly drop inside the cylinder, hoses can become brittle, and internal components can corrode.

Even something as simple as a missing safety pin or a partially obstructed nozzle can prevent an extinguisher from operating during a fire emergency.

Environmental factors play a major role in extinguisher degradation.

Heat, cold, humidity, mechanical impact, and chemical exposure can all affect the condition of a cylinder.

Extinguishers in busy workplaces, such as warehouses or kitchens, may be bumped, moved, or even used without being reported.

Without scheduled inspections, damage often goes unnoticed.

Another important reason for routine inspection is human behavior.

An extinguisher might appear untouched for years, yet a previous user may have partially discharged it, leaving just enough pressure to make the gauge appear normal while still rendering the extinguisher ineffective.

Regular checks catch these issues long before a fire reveals them.

In short, inspections ensure that extinguishers remain safe, functional, and capable of performing exactly as designed.

Why Fire Extinguisher Inspections are Important

The most immediate reason inspections matter is the protection of human life.

A properly functioning extinguisher can stop a small incident from turning into a devastating fire. 

Early action often prevents injuries, property damage, business interruption, and even fatalities.

Inspections are also required by law.

Many countries follow the National Fire Protection Association’s NFPA 10 standard, which outlines exactly how and when fire extinguishers must be inspected, tested, and maintained. 

Building codes, insurance policies, workplace safety regulations, and fire authorities all rely on NFPA 10 to determine compliance.

Failing to meet these requirements can result in financial penalties, legal liability, and increased insurance costs.

Beyond safety and compliance, regular inspections save money over time.

Extinguishers that are monitored and maintained tend to last longer, reducing the need for costly replacements.

A well managed inspection program creates predictable maintenance schedules rather than emergency repairs.

How Frequently Should Fire Extinguishers Be Inspected?

The inspection schedule for fire extinguishers is structured into several levels.

Each level serves a different purpose and is timed according to how extinguishers age and how their components degrade.

Monthly Visual Inspection

The monthly inspection is a simple but essential check performed by a responsible person within the building.

It verifies that the extinguisher is present, clearly visible, unobstructed, and in good physical condition.

The individual performing the check ensures the pressure gauge is still in the operable range, that the safety pin is intact, and that there are no signs of leakage or corrosion.

This inspection is deliberately straightforward so it can be completed regularly without the need for technical expertise.

Its purpose is early detection of visible problems.

Annual Maintenance and Inspection

Once a year, extinguishers must be examined by a certified fire protection technician.

This process is far more detailed than the monthly inspection.

The extinguisher is checked internally and externally for mechanical damage, chemical deterioration, clogged nozzles, weakened hoses, and incorrect pressure levels.

The technician verifies that the extinguisher is appropriate for the hazards present in the environment, that it meets current standards, and that all labeling remains clear and legible.

An annual inspection ensures the extinguisher meets operational and regulatory expectations.

Six Year Maintenance and Inspection

Certain extinguishers, particularly stored-pressure dry chemical models, require internal maintenance every six years.

During this procedure, the extinguisher is fully discharged, opened, and inspected from the inside.

Any degraded components are replaced, the interior is cleaned, and fresh extinguishing agent is added.

After reassembly, the extinguisher is pressure tested and tagged as having undergone six-year maintenance.

This level of servicing addresses aging components that cannot be evaluated through external inspection alone.

Twelve Year Maintenance and Inspection

Many types of extinguishers require hydrostatic testing at twelve years.

Hydrostatic testing ensures the cylinder can safely withstand the pressures required during operation.

The extinguisher is emptied and filled with water under controlled pressure while a technician monitors for deformation, leaks, or structural weakness.

If it passes the test, it can be safely returned to service; if it fails, it must be removed permanently.

Hydrostatic testing is essential for preventing catastrophic cylinder failure.

Reactive Maintenance and Inspection

Any extinguisher that has been used, dropped, damaged, exposed to corrosive conditions, or found to be leaking must be serviced immediately, regardless of the scheduled interval.

This unscheduled maintenance ensures extinguishers remain reliable after incidents or unexpected deterioration.

What Happens During a Fire Extinguisher Inspection

Fire Extinguisher Inspection

A professional fire extinguisher inspection involves several methodical steps designed to evaluate the condition and performance of the extinguisher.

Visual Inspection

The technician examines the entire extinguisher body, including the handle, hose, nozzle, carrying bracket, pressure gauge, and labeling.

The goal is to identify signs of physical damage, vandalism, rust, or tampering.

Placement, accessibility, and suitability for the environment are also assessed.

Hydrostatic Testing

Hydrostatic testing ensures that the cylinder walls are strong enough to contain the internal pressure during discharge.

It involves filling the cylinder with water under pressure and observing any structural changes. 

This test protects users from rare but dangerous cylinder ruptures.

NFPA 10 Compliance

NFPA 10 defines where extinguishers must be mounted, how high they can be positioned, how often they require inspection, and which extinguisher types are permitted for specific hazards. 

During an inspection, technicians verify that each extinguisher matches the hazard classification of the area, meets mounting and visibility requirements, and carries all required labeling and tags.

Inspection Report

Once all checks and tests are complete, the technician prepares an inspection report that becomes part of the fire safety record.

This document outlines findings, maintenance performed, test results, and recommendations.

In many jurisdictions, these reports must be kept on file for audits, insurance verification, and code compliance.

What Records Are Taken During Fire Extinguisher Inspections

Fire extinguisher records must be kept accurately and include the technician’s name, the inspection date, detailed notes about the extinguisher’s condition, any corrective actions taken, and the date when the next inspection is due.

These records help track the history of each extinguisher, verify compliance during legal or insurance reviews, and identify patterns that may indicate environmental damage or misuse. 

Proper record-keeping protects the building owner legally and helps ensure consistent fire safety management.

Types of Fire Extinguishers Requiring Inspection

Every type of extinguisher must be inspected, yet most have different maintenance requirements:

Water Fire Extinguishers (Class A)

Water Fire Extinguisher

Water extinguishers rely on simple, reliable mechanics but still require pressure checks, inspections for internal corrosion, and periodic hydrostatic testing.

Foam Fire Extinguishers (Class A and B)

Foam Fire Extinguisher

Foam extinguishers contain agents that can degrade over time.

They require both internal and external checks to ensure their chemical mixture remains effective.

Powder Fire Extinguishers (Class ABC)

Dry Powder Fire Extinguisher

Powder extinguishers are versatile and widely used but require internal maintenance every six years to prevent compacted powder, moisture intrusion, or internal corrosion.

CO2 Fire Extinguishers (Class B and C)

CO2 Fire Extinguisher

CO2 extinguishers operate at high pressure, so their cylinders must undergo rigorous hydrostatic testing.

Weight checks are essential because CO2 extinguishers have no pressure gauge.

Wet Chemical Fire Extinguishers

Wet Chemical Fire Extinguisher

These are typically used in commercial kitchens for cooking oil fires.

Because their agents must remain chemically stable, annual inspections and prompt servicing after use are mandatory.

Final Thoughts

Fire extinguishers are among the most important safety tools in any building, yet they are often overlooked until needed.

Regular inspections ensure these devices function correctly, comply with safety standards, and remain ready to save lives.

By understanding how often inspections should occur, what happens during them, and why they matter, building owners and occupants can create safer environments and meet their legal and ethical responsibilities.

Swiss bar fire investigation finds no safety inspections for five years

An investigation into the Swiss bar fire has found that no safety inspections were carried out at the venue for five years prior to the deadly incident, which broke out on NewYear’s day and killed more than 40 people.

Nicolas Féraud, the mayor of the Swiss municipality of Crans-Montana, confirmed that Le Constellation bar had not undergone any safety inspections between 2020 and 2025.

Authorities said the blaze may have been caused by sparkler candles attached to champagne bottles coming into contact with the venue’s sound-proof ceiling, raising concerns about fire safety compliance.

Speaking at a press conference, Féraud said the last full inspection of the bar took place in 2019, following an earlier review in 2018 after the merger of neighbouring municipalities Chermignon, Montana, Randogne and Mollens into the newly formed Crans-Montana authority.

The 2018 inspection resulted in the installation of a panic handle on the main entrance door, while inspectors reported no issues with the acoustic lining.

A follow-up inspection on May 13, 2019, confirmed the correction of the door handle and again raised no concerns regarding sound-proofing materials.

Both inspection reports set the venue’s maximum capacity at 100 people in the basement and 100 on the ground floor.

Courts to determine responsibility for Swiss bar fire

The inspection carried out in mid-2019 was the last before the fatal incident last week. Féraud said the failure to carry out inspections in the following years was unexplainable.

Speaking during a press conference, he said the Municipal Council had only become aware of the gap between inspections when “consulting the documents submitted to the Public Prosecutor this weekend.”

“We bitterly regret this,” Féraud said, adding that “the courts will determine the influence such a failure had in the chain of causality that led to the tragedy.”