Understanding the Building Safety Act: Building Safety Act for Small M&E Contractors
The Building Safety Act (BSA), which came into force in England and Wales in October 2023, represents a significant overhaul in the construction industry, driven by the findings of the Hackitt report. This legislation aims to enhance safety standards across all construction projects, with a particular focus on higher-risk buildings (HRBs). But how does the Building Safety Act affect Small M&E Contractors? If you need some help understanding this then please consider joining us as a Safety~net member. You can find greater detail on the Act here: https://www.gov.uk/guidance/the-building-safety-act
Note: A higher-risk building (HRB) is defined as a building in England that: is at least 18m in height or has at least 7 storeys; and. contains at least 2 residential units.
What is the Building Safety Act?
The BSA is a comprehensive piece of legislation designed to improve safety in the construction and maintenance of buildings. It introduces stricter regulations and oversight, particularly for HRBs, which are defined as buildings that are at least 18 meters high or have seven or more storeys and include at least two residential units. This category also includes care homes and healthcare facilities that meet the height criteria.
Implications for Mechanical and Electrical Engineers
Mechanical and electrical (M&E) engineers play a crucial role in ensuring the safety and functionality of building systems. Under the BSA, their responsibilities have expanded significantly:
Scope of Work: For new HRBs, all M&E works are within the scope of the BSA. For existing HRBs, a wide range of projects, including plant replacements, fall under the Act’s regulations. It is essential for engineers to clearly understand which works are considered within scope to ensure compliance.
Regulatory Compliance: The BSA mandates that all parties involved in construction projects demonstrate compliance with the legislation upfront. This means that M&E engineers must ensure that their designs and installations meet the new safety standards from the outset.
Cultural Change: The Act encourages a shift in the construction industry’s culture, promoting accountability and transparency. Engineers must adopt a proactive approach to safety, ensuring that all aspects of their work adhere to the highest standards.
Consequences of Non-Compliance: Non-compliance with the BSA can lead to severe consequences, including project delays, civil and criminal prosecution, and significant financial penalties. It is crucial for engineers to stay informed about the latest regulations and ensure that their work complies with the Act.
BSA Key Points Summary:
Here are the key points to highlight from the Building Safety Act and its implications for mechanical and electrical engineers:
Introduction of the Building Safety Act (BSA):
Came into force in October 2023 in England and Wales.
Aims to enhance safety standards in construction, particularly for higher-risk buildings (HRBs).
Definition of Higher-Risk Buildings (HRBs):
Buildings at least 18 meters high or with seven or more storeys.
Includes buildings with at least two residential units, care homes, and healthcare facilities meeting the height criteria.
Expanded Responsibilities for M&E Engineers:
All M&E works for new HRBs fall under the BSA.
Existing HRBs’ projects, including plant replacements, are also within scope.
Engineers must understand which works are considered within scope to ensure compliance.
Regulatory Compliance:
Engineers must demonstrate compliance with the BSA upfront.
Designs and installations must meet new safety standards from the outset.
Cultural Change in the Industry:
The Act promotes accountability and transparency.
Engineers need to adopt a proactive approach to safety.
Consequences of Non-Compliance:
Non-compliance can lead to project delays, civil and criminal prosecution, and financial penalties.
Staying informed about the latest regulations is crucial for compliance.
Conclusion
The Building Safety Act marks a new era in construction safety, with far-reaching implications for mechanical and electrical engineers when working on HRB’s. For those working on smaller projects it’s more a matter of keeping a clear log of your compliant work and ensuring this is updated as changes occur when the project progresses. Working together with other contractors and the Principal Contractor to ensure that a clear record exists of the as-built building and its compliance with legislation and industry best practices.
By understanding and adhering to the new regulations, engineers can contribute to creating safer, more resilient buildings. The Act is here to stay, and its successful implementation depends on the industry’s collective commitment to safety and compliance.
Every year HSE updates its statistics for the UK. All of the information gathered from the wheels and workings of government, the report made under RIDDOR and the information passed back from the NHS come together to form a picture of how we are doing as a nation.
We have a lot to be proud of in the UK in terms of how we protect our colleagues, the culture of care which shines through in almost all of the businesses we see and the NHS looking after those who become ill or injured.
Not every accident or illness can be prevented but we must still strive to make these as small as we can. When you experience these events you understand just what an impact they have on the individual and on so many people around them. Often small changes are all that is needed to catch that situation and turn a tragedy into something far less harmful. People will make mistakes, and situations will sometimes present themselves where an accident could occur but if we have the right attitudes, the best pre-planning, the right protection and can respond quickly to changes we can continue to drive accident rates down and make a difference.
Little things that you do everyday as workers and as safety professionals make small differences. These combine to make changes which might save someone from a life-changing injury or even worse. So keep it up, it might feel that its hard and you might only see those who aren’t quite getting the message but what you do still makes an impact… and you won’t even know as it might never happen, but you might make a huge difference.
See below for the headline statistics and take a minute to share them if you can.
Key figures for Great Britain (2023/24)
1.7 million working people suffering from a work-related illness, of which
776,000 workers suffering work-related stress, depression or anxiety
543,000 workers suffering from a work-related musculoskeletal disorder
2,257 mesothelioma deaths due to past asbestos exposures (2022)
138 workers killed in work-related accidents
604,000 working people sustained an injury at work according to the Labour Force Survey
61,663 injuries to employees reported under RIDDOR
33.7 million working days lost due to work-related illness and workplace injury
£21.6 billion estimated cost of injuries and ill health from current working conditions (2022/23)
Emergency lighting is a critical component of any building’s safety system, ensuring that occupants can safely evacuate during an emergency. Self-test emergency lighting systems take this one step further by automating the testing process, which traditionally required manual intervention. Some lighting units can be difficult to access and most workplaces are busy and these checks can get missed over time. If emergency lighting is faulty you won’t have the protection you need to get out safely should a fire occur so making sure these checks are in place (and automating them if possible) is essential.
When units are installed you have the option to specify self-testing units which carry out all required tests automatically and then report any faults through a sequence of LED flashes. The information below shows a typical matrix for interpreting the LEDs on each unit to show if a test has been completed successfully (note that the number of flashes will vary between units as there is no defined standard):
What Is Self-Test Emergency Lighting?
Self test emergency lighting is designed to automatically conduct regular testing of the emergency lighting system. These tests typically include:
Monthly Function Test: Briefly operates the emergency light to ensure it functions correctly.
Annual Full Duration Test: Runs the emergency light for the full rated duration (often 3 hours) to ensure it can sustain illumination for the required time.
By automating these tests, self-test emergency lighting systems reduce the need for manual testing and ensure that any issues are quickly identified and addressed.
Benefits of Self-Test Emergency Lighting
Increased Safety: Automated testing ensures that emergency lighting is always in working order, improving the safety of building occupants.
Cost-Effective: Reduces the need for manual testing, saving on labour costs.
Compliance: Helps ensure compliance with safety regulations by maintaining a consistent testing schedule.
Real-Time Alerts: Many systems provide real time alerts if any faults are detected, allowing for prompt maintenance.
How It Works
Self-test emergency lighting systems usually include a control module within each light fitting. This module manages the testing schedule and records the results. In the event of a failure, the system can alert building management through indicators on the light fitting or via a centralized monitoring system.
Further guidance from the Construction Leadership Group (CLG) can be found here which contains helpful case studies examining duties and how the CDM Regulations Apply to domestic projects ranging from £50k – £1.5m: Link and also here: https://www.coniac.org.uk/working-groups/supporting-small-employers
See below for extracted guidance from the CLGs Frequently asked questions which might help you decide how to proceed on your CDM project:
The following FAQs should help any builder or contractor to understand the Regulations by expanding on the common terminology and defined roles mentioned throughout the Regulations. Some answers begin with a reference from ‘L153’ otherwise known as the ‘Managing health and safety in construction’ which is the Health and Safety Executive’s guidance document for the Construction (Design and Management) Regulations 2015.
How do I know if the project/works will require a Principal Designer? Any project or works involving more than one contractor, requires the client to appoint (in writing) a principal designer and make sure they carry out their duties
How do I know if the project/works will require a Principal Contractor? Any project or works involving more than one contractor, requires the client to appoint (in writing) a principal contractor and make sure they carry out their duties
Is the pre-construction phase the period of time before construction starts on site? L153 – Regulation 2 Interpretation – ‘pre-construction phase’ “means any period of time during which design or preparatory work is carried out for a project and may continue during the construction stage”
In simple terms: Pre-construction is everything that happens on a construction project before you do any construction work. You might refer to this as the planning phase or project preparation, but in CDM, it’s known as pre-construction.
Comment – Some projects have distinct design and construction stages, but design work often continues in parallel with construction activities. A wide variety of design activities take place on a typical project, some of them by contractors (e.g. Building services). The principal designer role is to manage ‘pre-construction’ activities, the principal contractor has to manage the ‘construction’ activities. The greater the overlap of activities, the greater the need for the PD and PC functions to work together. This is particularly relevant where advanced works (often referred to as ‘enabling works’) are carried out before main works packages are let.
Who needs to take on the Principal Designer role and why? L153 – Regulation 5(1) – “A designer with control over the pre-construction phase”
In simple terms: The Principal Designer is a designer which may be an organisation or an individual (on smaller projects) who is appointed by the client to take control of the pre-construction phase of any project involving more than one contractor to plan, manage, monitor and coordinate health and safety in the pre-construction phase.
Comment – Depending on the nature and complexity of the project, the client, lead designer or another ‘person’ (who is a designer) with control over the pre-construction activities is the most suitable to take on the function. In legal terms the ‘person’ can be an individual or an organisation. Every project client must consider what is the best arrangement and this should be done as part of developing the Client Brief. The preceding case studies demonstrate the variety of ways in which the requirements of the Regulations can be satisfied.
Do designers have to identify all risks? L153 Paragraph 102 – “Identifying insignificant risks is not an effective way of alerting other duty holders to important design issues they need to know about. Designers should be able to demonstrate they have addressed only significant risks. These are defined as “not necessarily those that involve the greatest risks, but those (including health risks) that are not likely to be obvious, are unusual, or likely to be difficult to manage effectively”.
In simple terms: A significant risk is anything that is not trivial, during the work or planning the work that may expose someone to danger and cause them harm for their physical health or their safety, and these should be considered by the Designer. The Designer should then put in place means to make people safe (control and manage the risks effectively).
Comment – every project team should focus, from the outset, on those areas of the project that could represent a threat to the wellbeing of the workforce and the wider population. The major causes of accidents and ill-health are well recognised in the Construction sector; falls from height, entrapment due to collapse or overturning; being struck by a flying object or vehicle, slips, trips and falls on the same level and manual handling are the most common and these require to be managed effectively.
Remember, it is important that designers must consider and eliminate/reduce risks during end use, maintenance, and eventual demolition of the building, not just risks which are present during the construction phase. Refer also to Schedule 3 in the Appendix.
What is the principal designer’s role during the construction phase? L153 – Regulation 11 (7) – “The principal designer must liaise with the principal contractor for the duration of the principal designer’s appointment and share with the principal contractor information relevant to the planning, management and monitoring of the construction phase and the coordination of health and safety matters during the construction phase”
In simple terms: A principal contractor is the contractor with control over the construction phase of a project involving more than one contractor. They are appointed in writing by the client (commercial or domestic) to plan, manage, monitor and coordinate health and safety during this phase.
Comment – although the principal designer and principal contractor duties are different, a collaborative relationship will allow both parties to benefit from the knowledge and experience of the other and discharge their duties more effectively. The greater the volume of design work to be carried out after the commencement of construction works, the more vital that the two major duty- holders form an integrated team.
What should the health and safety file contain and who should produce it? L153 – Reg. 12(5) – “During the pre-construction phase, the principal designer must prepare a health and safety file appropriate to the characteristics of the project which must contain information relating to the project which is likely to be needed during any subsequent project to ensure the health and safety of any person. Reg 12(8) If the principal designer’s appointment concludes before the end of the project, the principal designer must pass the health and safety file to the principal contractor”
In simple terms: A Health and Safety File is a collection of health and safety information that serves as a legal record, benefiting both clients and end users – from initial construction through use, cleaning, maintenance, alterations and refurbishment, and demolition. Its purpose is to ensure that, at the end of the project, the client has information that anyone carrying out subsequent construction work on the building will need to know about in order to be able to plan and carry out the work safely and without risks to health.
Comment – the purpose, form and required content of a health and safety file should be addressed as part of the development of the Client Brief. Appendix 4 of L153 provides guidance as to the range of information which project teams should consider for inclusion – but the list is not exhaustive. Only information that will assist future project teams in planning work so that health and safety is ensured should be provided, ‘in a convenient form, clear concise and easily understandable.’ If this approach is agreed at the outset of the project, all parties can contribute appropriate information and avoid unnecessary bureaucracy.
When and who may need to take on the client duties on a domestic project? L153 – Regulation 7 (1) – “Where the client is a domestic client the duties in regulations 4(1) to (7) and regulation 6 must be carried out by—
(a) the contractor for a project where there is only one contractor. (b) the principal contractor for a project where there is more than one contractor: or (c) the principal designer where there is a written agreement that the principal designer will fulfil those duties.
7(2) If a domestic client fails to make the appointments required by regulation 5—
(a) the designer in control of the pre-construction phase of the project is the principal designer; (b) the contractor in control of the construction phase of the project is the principal contractor.
In simple terms: A domestic client is any individual who has construction work carried out on their home, or the home of a family member, that is not done as part of any business.
Comment – the guidance to Reg 7 in L153 makes clear that in the normal course of events ‘the builder’ (either the contractor or principal contractor) would be expected to take on the duties normally required of a domestic client:
• allowing sufficient time and resource • notifying the HSE if the project is notifiable • arranging construction work so it can be carried out safely • ensuring adequate welfare facilities are provided • providing pre-construction information.
For domestic projects where there are no complex design issues, this approach should work well. However, where the design development needs to take account of challenging site conditions the lead designer may feel it is in the best interests of both the client and the project team to take on what is effectively the project management role (L153 para 55). Refer to the ‘How CDM 2015 Applies to Domestic Clients’ flowchart (see guidance link above).
Any designer contemplating taking this route should be aware that in doing so they would attract additional legal responsibilities so should be confident that they have the capability and resources to discharge their legal and professional duties. The contractor or principal contractor would still be responsible for site safety, provision of welfare facilities etc. The Client Brief setting out these arrangements should be shared with the domestic client, who can influence the site culture, even without taking on the project management role.
Comment – unlike a commercial client, if a domestic client does not make an appointment in writing, they do not take on the duties themselves. Any designer taking on a commission for a domestic project should clarify with the client whether they have or intend to make a written appointment. The Client Brief template can be used in the same way as with a commercial client to clarify the management arrangements and ensure all parties are clear where the legal responsibility for managing risk lies.
In the construction industry, the well-being of workers is paramount. The Health and Safety Executive (HSE) in the UK provides comprehensive guidance to ensure that welfare facilities are adequately provided on construction sites. This blog post will outline the key aspects of these guidelines, helping contractors and clients understand their responsibilities and the importance of proper welfare provisions.
Why Welfare Matters
Welfare facilities are not just a legal requirement; they are essential for maintaining the health, safety, and morale of workers. Proper facilities help protect workers from hazardous substances and provide a comfortable environment that can enhance productivity and job satisfaction.
Key Welfare Requirements
According to the HSE, the following welfare facilities must be provided on all construction sites:
Toilets and Washing Facilities:
Adequate toilets must be available, with separate facilities for men and women if necessary.
Washing facilities should include hot and cold (or warm) running water, soap, and towels or other means of drying.
Changing Rooms and Lockers:
If workers need to change into protective clothing, suitable changing rooms must be provided.
Lockers or other secure storage should be available for workers to store their personal clothing and belongings.
Rest Areas and Eating Facilities:
Rest areas should be provided where workers can take breaks and eat meals.
These areas should be clean, have adequate seating, and be protected from the weather.
Facilities for heating food and making hot drinks should also be available.
Drinking Water:
An adequate supply of drinking water must be readily accessible to all workers.
Planning and Implementation
The responsibility for providing these facilities lies with both contractors and clients. Here are some key points to consider:
Early Planning: Welfare facilities should be planned at the early stages of the project. This ensures that they are in place from the start and can be adjusted as the project progresses.
Location and Accessibility: Facilities should be conveniently located to minimize the time workers spend away from their tasks. For large or remote sites, additional facilities may be necessary.
Maintenance: Regular maintenance and cleaning of welfare facilities are crucial to ensure they remain in good condition and hygienic.
Special Considerations
Certain types of construction work may require additional welfare provisions:
Hazardous Substances: If workers are exposed to hazardous substances like cement or lead, additional washing facilities, such as showers, may be necessary.
Remote Sites: For transient or remote sites, mobile welfare units can be used. These should still meet the minimum standards set out by the HSE.
Conclusion
Providing adequate welfare facilities is a fundamental aspect of managing health and safety in construction. By following the HSE guidelines, contractors and clients can ensure that their workers are well-cared for, which in turn can lead to a more productive and positive working environment.
When it comes to fire safety, knowing which type of fire extinguisher to use is crucial, especially for electrical equipment fires. Electrical fires can be particularly dangerous due to the risk of electric shock and the potential for rapid escalation. In this blog post, we’ll explore the best fire extinguishers for tackling electrical fires and why they are effective.
Understanding Electrical Fires
Electrical fires are classified as Class C fires. These fires involve electrical equipment such as computers, servers, and other devices that are plugged into an electrical source. The primary danger with electrical fires is the live current, which can cause severe injuries if not handled properly.
The Best Fire Extinguishers for Electrical Fires
Carbon Dioxide (CO2) Extinguishers
How They Work: CO2 extinguishers work by displacing the oxygen around the fire, effectively suffocating it. Since CO2 is a non-conductive gas, it is safe to use on live electrical equipment.
Advantages: Leaves no residue, minimizing damage to electrical equipment. Effective for Class B fires (flammable liquids) as well.
Disadvantages: Limited cooling properties, which means there’s a risk of re-ignition if the equipment remains hot.
Dry Powder Extinguishers
How They Work: These extinguishers release a fine powder that smothers the fire by creating a barrier between the fuel and the oxygen.
Advantages: Versatile and can be used on Class A (combustible materials), Class B, and Class C fires. Effective in a wide range of temperatures.
Disadvantages: Can leave a residue that may damage sensitive electrical equipment and require extensive cleanup.
Water Mist Extinguishers
How They Work: Water mist extinguishers release a fine mist of de-ionized water, which cools the fire and reduces the oxygen supply.
Advantages: Safe for use on electrical fires up to 1,000 volts. Leaves minimal residue and is environmentally friendly.
Disadvantages: Generally more expensive and may not be as effective on larger fires.
Safety Tips for Using Fire Extinguishers on Electrical Fires
Cut the Power: If safe to do so, disconnect the electrical power source before attempting to extinguish the fire.
Maintain Distance: Use the extinguisher from a safe distance to avoid electric shock.
Follow the PASS Technique: Pull the pin, Aim the nozzle at the base of the fire, Squeeze the handle, and Sweep from side to side.
Conclusion
Choosing the right fire extinguisher for electrical fires is essential for ensuring safety and minimizing damage. CO2, dry powder, and water mist extinguishers are all effective options, each with its own set of advantages and disadvantages. Always ensure that you are trained in the proper use of fire extinguishers and conduct regular fire safety assessments to keep your environment safe.
Navigating the Risks of Metal Powders in Selective Laser Sintering (SLS) Printing
We have supported metal Additive Manufacture safety since its very early days in the 2010’s and worked extensively with the UK’s largest installed base of 3D printers for a major Blue Chip company. We worked onsite multiple days per week for over 6 years for this business to drive safety systems and have detailed knowledge of all aspects of 3D metal additive from biological and air monitoring through to the ATEX and DSEAR requirements in print, depowdering and post processing. If you need support on safety in additive manufacturing, please contact Roger Hart directly.
Selective Laser Sintering (SLS) is a cutting-edge 3D printing technology that uses a laser to sinter powdered materials, creating complex and high-strength parts. However, when using metal powders in SLS printing, there are significant dangers that must be managed to ensure safe operations. Here are the key risks associated with metal powders in SLS printing and how to mitigate them:
1. Fire and Explosion Hazards of Metal Powders
Metal powders like aluminium, titanium, and steel are highly flammable and can pose severe fire and explosion risks. These powders can ignite easily when exposed to sparks, open flames, or even static electricity.
Mitigation Strategies:
Proper Ventilation: Ensure the printing area is well-ventilated to prevent the accumulation of combustible dust.
Static Control: Implement anti-static measures, such as grounding and using anti-static mats and clothing.
Controlled Environment: Use inert gas atmospheres, like argon or nitrogen, to reduce the risk of ignition during the printing process.
2. Health Risks from Inhalation
Inhalation of metal powder particles can lead to serious health issues, including respiratory problems, lung diseases, and metal poisoning. The fine particles can become airborne during handling, posing an inhalation hazard.
Mitigation Strategies:
Personal Protective Equipment (PPE): Workers should wear appropriate PPE, including respirators, gloves, and protective clothing.
Dust Collection Systems: Install dust collection and filtration systems to capture airborne particles at the source.
Proper Training: Ensure all personnel are trained in safe handling procedures and the use of PPE.
3. Chemical Reactions and Toxicity
Some metal powders can react with moisture or other chemicals, leading to the release of toxic gases. For example, titanium and aluminium powders can react with water to produce hydrogen gas, which is highly flammable.
Mitigation Strategies:
Humidity Control: Maintain a low-humidity environment to prevent moisture from interacting with metal powders.
Chemical Storage: Store metal powders in airtight, moisture-free containers and keep them away from incompatible substances.
4. Environmental Contamination
Improper disposal of metal powders can lead to environmental contamination, affecting soil and water quality. Metal powders must be handled and disposed of in accordance with environmental regulations.
Mitigation Strategies:
Waste Management: Implement proper waste disposal protocols for metal powders and used containers.
Environmental Monitoring: Regularly monitor the environment around the printing facility for signs of contamination.
5. Mechanical Risks
Handling and processing metal powders can pose mechanical risks, such as cuts, abrasions, and injuries from heavy equipment. These powders can also cause machinery to wear out more quickly, leading to mechanical failures.
Mitigation Strategies:
Safety Protocols: Develop and enforce strict safety protocols for handling equipment and materials.
Regular Maintenance: Perform regular maintenance and inspections on all equipment used in the SLS printing process to ensure safe operation.
Conclusion
While SLS printing with metal powders offers numerous advantages in terms of manufacturing flexibility and material properties, it also comes with significant risks. Fire and explosion hazards, health risks from inhalation, chemical reactions, environmental contamination, and mechanical risks all need to be carefully managed. By implementing proper safety measures, providing adequate training, and adhering to regulatory guidelines, businesses can harness the power of SLS printing while ensuring the safety of their employees and the environment. Prioritising safety not only protects people and property but also enhances the overall efficiency and reliability of the SLS printing process.
When it comes to emergency lighting, understanding the difference between maintained and non-maintained systems is crucial for ensuring safety and compliance. Here’s a breakdown to help you decide which type is best for your building.
Maintained Emergency Lighting
Maintained emergency lights are designed to be on at all times. These lights are integrated into the regular lighting system and remain illuminated during normal operation. In the event of a power failure, they continue to provide light, powered by a backup battery. This type of lighting is commonly used in public venues such as cinemas, theatres, and shopping centres, where the lights need to be visible even when the main lighting is dimmed.
Key Features:
Always on, even during normal operation.
Provides continuous illumination during power failures.
Ideal for public spaces where lighting is often dimmed.
Non-Maintained Emergency Lighting
Non-maintained emergency lights, on the other hand, are designed to activate only when the main power supply fails. These lights are powered by a battery that is kept charged by a trickle of mains power. They are typically used in workplaces, offices, and schools, where the building is usually well-lit during occupancy.
Key Features:
Activates only during power failures.
Battery-powered with a trickle charge from mains power.
Suitable for workplaces and buildings with consistent lighting.
Dual-Mode Emergency Lighting
Some emergency light fittings can operate in both maintained and non-maintained modes. These switchable units offer flexibility, allowing a single type of light to be used in various settings. This is particularly useful for buildings with multiple uses, ensuring compliance with safety regulations without the need for different types of lighting.
Making the Right Choice
Choosing between maintained and non-maintained emergency lighting depends on the specific needs of your building and its occupants. Conducting a fire risk assessment with a competent person can help determine the most suitable option. This assessment will ensure that your emergency lighting system meets current regulations and provides adequate safety for all occupants.
By understanding the differences and applications of maintained and non-maintained emergency lighting, you can make an informed decision that enhances safety and compliance in your building.
Emergency lighting is crucial for ensuring the safety of building occupants during power failures or emergencies, regular testing and maintenance of these systems are essential to ensure they function correctly when needed.
Legal Requirements
In the UK, it is a legal requirement under both Building Regulations and the Regulatory Reform (Fire Safety) Order 2005 for all business premises to have emergency escape lighting. This includes offices, factories, schools, hospitals, and entertainment venues.
Testing Frequency
The frequency of testing emergency lighting can vary depending on the type of system, but general guidelines include:
Monthly Tests: Known as “flick tests,” these are short functional tests that simulate a mains power failure to ensure the emergency lights switch on and illuminate correctly. These tests should be conducted using a secure device key, often referred to as a fish key, rather than switching off the mains power, which could be hazardous.
Annual Tests: A full-duration test should be conducted annually, where the primary lighting circuit is switched off, and the emergency lights are left on for three hours. This ensures the system can sustain illumination for the required duration in an actual emergency.
Record Keeping
It is important to keep a record of all tests, including any faults found and the remedial actions taken. This helps ensure that the emergency lighting system remains reliable and effective.
Competent Personnel
All tests should be carried out by a competent person due to the critical nature of the system in ensuring occupant safety.
By adhering to these guidelines, businesses can ensure their emergency lighting systems are always ready to provide safe evacuation routes during emergencies.
For more information about what to look for and what to do when you come across asbestos you can download HSE’s updated quick guide for trades (.pdf).
HSE also ran a free webinar on 15 May 2024. If you missed it, you haven’t missed out; the webinar was recorded and can be watched again by registering here.
