Saturday, December 2, 2017

Smoke detectors at home under Code

Making Sure you’re home under Code

Smoke detectors are mandatory for new homes at Singapore from June 2018. Confirming this move for the first time since it was flagged by The Straits Times in August, Second Minister for Home Affairs Josephine Teo said the smoke detectors will provide residents with early alerts to smoke or fires. "Residents can take steps to quell the fire and prevent it from spreading, or if that is not possible, to quickly evacuate," said Mrs Teo, who is also Minister in the Prime Minister's Office and Second Minister for Manpower. She was speaking at the Fire Safety Asia Conference Singapore Nov, 2017.

For multi-storey homes, each floor will need at least one device, and floors with combined living and dining room spaces of more than 70sqm will require at least two.
Home owners can install even more smoke detectors - but not in kitchens and toilets, where smoke and steam from cooking or bathing could trigger false alarms.
Existing homes that undergo fire safety works after June, such as renovations involving a fire-rated door, will also have to follow the latest fire code and have smoke detectors installed.

However, the Singapore Civil Defence Force (SCDF) requires them to be compliant with either European, Australian or American standards for fire alarms, it said in a press release yesterday.
The cost of installing the detectors in new homes will be borne by developers, while owners of existing homes will have to pay for them.
To help needy residents, SCDF, HDB and the People's Association will install smoke detectors for about 50,000 households in public rental flats for free, in phases.
Priority will be given to households with at least one elderly person aged 60 and above.
Mrs Teo said the ageing demographic of residents was an "important consideration" when updating the Fire Code, which is currently in its seventh edition.
She encouraged existing home owners to also install smoke detectors, even if they are not required to do so.
"HDB will be installing (smoke detectors) in many of its ongoing public housing projects even though these new projects al-ready have building plans sub-mitted before June 2018. I hope, of course, that many private developers and existing home owners do likewise."
One public housing project, Kampung Admiralty, an integrated development for the elderly, already features fire alarm devices connected to a central alarm system.
We all know that having working fire/smoke detectors, alarms, and fire extinguishers in our homes can prevent tragic loss and irreparable damage.  The same holds true for business facilities.  However, the codes and standards for a commercial space versus a home are different, and they can vary by jurisdictions as well.  According to the NFPA(National Fire Protection Association) codes are the rules and standards are the method by which the rules are applied.  There have been major events in history that have triggered modifications to national fire codes and standards.  The Station Nightclub fire in West Warwick, RI in 2003, and The Cocoanut Grove Nightclub fire of 1942 in Boston, MA are a couple examples of why and how fire codes have changed throughout the years.

If you are a business owner, you know the importance of protecting your facility, employees, and assets/inventory.  How can you be sure your business meets the proper fire safety codes?  In all likelihood, if you’re currently in operation, your building/facility has passed an initial inspection.  However, yearly inspections are required and codes are revised every 3-5 years.  If you are renovating or adding on to a space you will have to schedule a new inspection.  For this reason its best practice to involve an expert from the start of a project to avoid any major hiccups.

You’ll need the proper fire safety equipment which can include smoke detectors, fire alarms, carbon monoxide detectors, and possibly a sprinkler system.  Integrating these features with your alarm system is crucial for a quicker response from emergency services.  Installing a wireless smoke detector that is not connected to your alarm system doesn’t notify local services in the event of an emergency.  The only person that type of detector benefits is someone on site or nearby during an emergency.  What if no one is around? 

Failure to comply with the proper safety and code requirements can lead to inspection rejection and fines.  Some licensed professionals at market. They can ensure the safety and code compliance of your business by installing the proper fire safety equipment as part of a comprehensive business security system.  Please find out authorized team, they can guide you through the process from initial assessment to final installation.  You have enough on your mind already, let us help you avoid mental anguish.

Reasons For Code Non-Compliance:
·       Egress is not met. This includes corridors, latching mechanisms, and access controls
·       Improper storage of combustible materials
·       Inadequate emergency lighting
·       Outdated fire extinguishers and other safety equipment
·       Electrical issues (i.e. improper use of extension cords)
·       Blocked access to fire hydrants
·       Sprinkler system isn’t labeled correctly

How Hiring A Professional Can Help:
·       They know what types of security equipment will work and comply with fire codes
·       They may already have a relationship with the local fire official
·       They can communicate technical information to contractors, architects, & engineers
·       They know how to integrate fire alarms and smoke detectors in a comprehensive security system
·       They understand the importance of code compliance and fire safety
·       They know how egress can be affected by different access controls
·       They will help you avoid penalties and failed inspections by implementing proper installation

The new code will also make it mandatory for non-residential buildings with large unmanned premises, such as warehouses, to have a video image fire detection system.
This smart system uses video analytics to detect smoke or fire, allowing building owners and fire safety managers to quickly confirm the presence and extent of a fire.

Saturday, November 4, 2017

Upcoming changes NFPA 1 in 2018

Upcoming changes NFPA 1 in 2018 edition, minimum fire prevention inspection frequencies for existing occupancies


Looking back, one part of the Code that I don’t spend a lot of time talking about, but should, is how it is applied and how it is enforced.  Practically speaking, when does one even use a Fire Code?  Who needs to know how to enforce it?  When is it enforced? How often does the fire inspector, responsible for the enforcement of NFPA 1, need to inspect a building for fire safety provisions? These administrative requirements and general provisions, as contained in Chapter 1, Chapter 4 and parts of Chapter 10, provide the fundamental provisions for those responsible for its application and enforcement.  Compliance with these requirements is critical to the effectiveness of NFPA 1.
NFPA 1 is applicable to both new and existing occupancies.  Per Section 10.1.1, every new and existing building or structure shall be constructed, arranged, equipped, maintained, and operated in accordance with this Code so as to provide a reasonable level of life safety, property protection, and public welfare from the actual and potential hazards created by fire, explosion, and other hazardous conditions. I highlight the words constructed and maintained to emphasize how the Code plays a role in a building during both construction of the building as well as maintenance throughout the life of the building. The enforcement of a building does not stop once its construction is complete and a certificate of occupancy is received. 
New to the 2018 edition is Section 10.2.7 which prescribes the minimum fire prevention inspection frequencies for existing occupancies.

This Section was added, in part, to recognize the publication of new NFPA 1730, Standard on Organization and Deployment of Fire Prevention Inspection and Code Enforcement, Plan Review, Investigation, and Public Education Operations, and in addition, to provide guidance to AHJs and inspectors for ensuring existing occupancies remain in compliance with the fire code. Section 10.2.7 reads as follows:

10.2.7 Minimum Fire Prevention Inspection Frequencies for Existing Occupancies.
10.2.7.1 Fire prevention inspections shall occur on existing premises in accordance with the minimum inspection frequency schedule specified in Table 10.2.7.1. [1730: Table 6.7]
10.2.7.2 Where required or permitted by the AHJ, the required fire prevention inspection shall be conducted by an approved party that is qualified in accordance with NFPA 1031.

10.2.7.3 The AHJ shall be permitted to approve alternative qualifications for the approved party specified in 10.2.7.2.

10.2.7.4 The provisions of 10.2.7 shall not apply to detached one- and two-family dwellings or townhomes.
NFPA 1730 contains minimum requirements relating to the organization and deployment of code enforcement, plan review, fire investigation, and public education operations to the public.  The addition of new 10.2.7 incorporates the standard of care, as specified in NFPA 1730, into NFPA 1. The default is that the local AHJ should conduct the inspection. However, if staffing does not permit or if the local jurisdiction does not have a qualified individual, the owner, occupant or operator can retain an AHJ approved NFPA 1031 qualified individual to conduct the inspection. Thereby, fire code compliance is achieved in accordance with the 1730 standard.

The frequencies of the fire prevention inspection are based on the occupancy risk classification.  Table 10.2.7.1 includes four classifications: high, moderate, low and critical infrastructure with frequencies ranging from annual to triennially or per the AHJ.  What is a high risk occupancy? What is critical infrastructure? The 2018 edition of the Code also added the corresponding definitions from NFPA 1730 to Chapter 3 to assist with the application of the new table.  For example, a low risk occupancy is “an occupancy that has a history of low frequency of fires and minimal potential for loss of life or economic loss.  Examples of low-risk occupancies are storage, mercantile, and business.

How does your jurisdiction manage fire prevention inspections for existing buildings?  Do you use the provisions in NFPA 1730?  What issues have you faced with existing building inspection?


Sunday, October 22, 2017

Process of Commissioning & Servicing for Fire Blankets

Process of Commissioning & Servicing for Fire Blankets

A fire blanket is a safety device designed to extinguish small incipient (starting) fires. It consists of a sheet of fire retardant material which is placed over a fire in order to smother it.


Small fire blankets, for use in kitchens and around the home, are usually made of either fibreglass or woven-nylon coated with silicone-based flame retardant and folded in to a quick-release container for ease of storage.

Visual Inspection by the Responsible Person

  1. The responsible person should carry out visual inspections of all fire blankets regularly. These visual inspections should be carried out at least monthly. When circumstances require, inspections should be carried out more frequently.
  2. When carrying out these visual inspections, it should be ensured that:
  3. each fire blanket is correctly located in the designated place;
  4. each fire blanket is unobstructed and visible
  5. the operating instructions of each fire blanket are clean and legible and face outwards;
  6. each fire blanket container is not obviously damaged and that the hand hold devices are visible and undamaged
  7. the tamper indicators of each fire blanket, where fitted, are not broken or missing.
  8. The responsible person should record the results of these visual inspections and arrange for corrective action, where necessary, by a service provider. In the event of doubt the responsible person should arrange for a service provider to examine the fire blanket.

Mounting

Fire Blankets should be mounted so as to position the hand hold devices approximately 1.5 m from the floor.
The positioning of kitchen furniture and/or equipment should not preclude access to the blanket.

Process of Commissioning

The commissioning of a fire blanket should be carried out by a Person with the training and experience, with access to the relevant tools, equipment and information, manuals and knowledge of any special procedures recommended by the manufacturer of the fire blanket, to carry out the relevant maintenance procedures. Upon removal from its packaging and transit protection, and immediately prior to placing in its designated place, the fire blanket should undergo this sequence of commissioning service actions:
1
External examination of container
Examine the container for serious damage that could impair the safe operation of the fire blanket or the life of the blanket held inside.
2
Operating instructions
Check the operating instructions for correctness and legibility, ensuring that the text is in English.
3
Wall-mounting
1. Wall mount the fire blanket securely, ensuring that the hand hold devices are readily accessible, as designed.


2. Most blankets require to be wall-mounted in the container to allow the blanket to be easily deployed when required.
4
Deployment
Check that the blanket is able to be easily released from the container as the manufacturer intended, by following the operating instructions.
5
Visual inspection
Check that the fire blanket has not been used; is not obviously damaged or has any hand hold devices missing or unsatisfactorily affixed to the blanket. Check the manufacturers label
6
Reassembly
Reassemble the fire blanket in accordance with the folding instructions of the blanket manufacturer. Replace with new any safety element designed to show whether the blanket has been deployed. Ensure the blanket is clean and dust free
7
Affix maintenance label
Affix the maintenance label to the blanket in an appropriate position on the container, and complete the details on the maintenance label.

Basic servicing

A)    The responsible person should ensure that basic service be carried out at 12 monthly intervals. The maintenance intervals given for basic service have for practical purposes a tolerance of ±1 month. Intervals should be taken from the date of installation or the last basic service. Intervals may be shortened, on the recommendation of the service provider where inspection reveals environmental and/or special hazards, or at the request of the responsible person.
B)    The basic service of a fire blanket should be carried out by a service provider. The fire blanket should undergo this sequence of commissioning service actions:

1
External examination of container
Examine the container for serious damage that could impair the safe operation of the fire blanket or the life of the blanket held inside.
2
Operating instructions
Check the operating instructions for correctness and legibility, ensuring that the text is in English.
3
Wall-mounting
1. Wall mount the fire blanket securely, ensuring that the hand hold devices are readily accessible, as designed.


2. Most blankets require to be wall-mounted in the container to allow the blanket to be easily deployed when required.
4
Age
Check the age of the fire blanket.
5
Deployment
Check that the blanket is able to be easily released from the container as the manufacturer intended, by following the operating instructions.
6
Visual inspection
Check that the fire blanket has not been used; is not obviously damaged or has any hand hold devices missing or unsatisfactorily affixed to the blanket. Check the blanket is manufactured to BS EN 1869.
7
Reassembly
Reassemble the fire blanket in accordance with the folding instructions of the blanket manufacturer. Replace with new any safety element designed to show whether the blanket has been deployed.
8
Maintenance label
Complete the details on the maintenance label
9
Report
Write an inspection report advising the responsible person of the state of maintenance of the fire blanket

Labelling

General

Any labelling that is applied to the fire blanket container should not obscure any marking required by BS EN 1869.

Maintenance label

  1. The maintenance record should be indelibly marked on a durable label that is fixed firmly to the fire blanket container without obscuring any of the manufacturer’s markings and instructions. Where there is no more space on the maintenance label and a new label is fixed, the date of commissioning should be marked on the new label.
  2. The following information should be given on the maintenance label:
    1. type of action (commissioning or basic service)
    2. name and postal address of the maintenance supplier;
    3. a mark clearly identifying the service provider;
    4. the date (year and month) of the action in a) above;
    5. the date (year and month) of commissioning

This information should be readable without any special equipment.
Any additional information for the benefit of service providers may be shown in a more compact form, such as bar codes.
Evaluation of fitness - Blankets which are to be condemned

Any fire blanket with a major defect or defects which make it unsafe for use should be immediately removed from its designated place, and marked “CONDEMNED” together with the reason for this assessment. The responsible person should be advised in the written report (Service Report) that a permanent replacement is needed as soon as possible. Evaluation of whether the damage or wear to a fire blanket make it unsafe for use depends on the judgement of the service provider.

Conditions indicating that a fire blanket is unsafe for use

Potentially the most serious hazard presented by a defective fire blanket is it’s inability to either (a) be deployed or (b) starve a fire of oxygen, allowing the fire to burn uncontrollably after deployment. These could be caused by any of the following conditions:

    1. wear, contamination or damage to the fire blanket material.
    2. wear or damage to the fire blanket hand hold devices;
    3. serious damage to the container;
    4. fire damage to the container or fire blanket;
    5. age. Follow manufacturer’s instructions or if there are none then if more than 7 years from date of commissioning consider replacing the blanket.

Provision of a written report

The service provider should advise the responsible person in a written report or service report:

  1. of any fire blankets that have been condemned or are missing;

  1. of any permanent replacement fire blankets required to replace those reported in a);

  1. of any additional fire blankets required to ensure that the level of cover at the premises is appropriate for the risks present;

  1. that any replacement or additional fire blankets reported in b) or c) should be provided as soon as possible; and

  1. of the responsible person’s obligation under fire legislation to provide an appropriate level of fire-fighting equipment at all times.

Permanent replacement of a Fire Blanket.

It is the duty of the responsible person to arrange for permanent replacement fire blankets to be put into place as soon as possible after inspection has shown that some fire blankets should be replaced. The service provider is responsible for bringing this duty to the responsible person’s attention in the written report.



Saturday, September 9, 2017

Linear Heat Detection

Linear Heat Detection


Linear Heat Detection (LHD) is a versatile and economical fire detection product. Designed for use in a wide variety of fire and heat detection applications, LHD cable is particularly suited for harsh environmental conditions, where maintenance access is in a physical or hazardous area, and/or where there is a requirement to cost-effectively install fire detection in close proximity to the hazard. 
Linear Heat Detection cable is a combination of advanced polymer and digital technologies that can detect heat conditions anywhere along the length of the cable. The cable is comprised of two tri-metallic conductors individually insulated with a heat sensitive polymer outer-layer, and engineered to break down at specific fixed temperatures. This allows the twisted conductors to make contact and initiate a fire alarm condition at the control panel, without any calibration for changes in the ambient temperature. Nor is it required that a specific length be heated in order to initiate a fire alarm, adding to the versatility of this unique product. 

Alarm Point Location Setup
Each Protecto wire zone is field calibrated after installation to eliminate copper feed cable resistance from the Alarm Point Location reading. This is done by manually shorting the detector at the beginning of the zone and adjusting the display to zero "0000". 
Alarm Point Location Reading
When an overheat (alarm) occurs in a zone, an alarm point reading is taken either *manually or *automatically at the control panel. This reading represents the linear distance to the actuated point along the detectors length.
For further flexibility, Linear Heat Detection cable can be utilized with fire alarm control panels by utilizing either addressable monitor modules on an intelligent system, or by connecting the cable directly to the detection circuit of a conventional fire detection and control panel. In addition, the distance locating option allows the control panel to identify and display the exact location, in feet or meters from the fire panel, where the heat source interacted with the linear heat detection. That's a tremendous amount of valuable information in a small, easy to install and maintain fire detection package! 

·        Easy installation and maintenance
·        Minimal false alarms
·        Provides hazard coverage at every point on the cable for maximum protection
·        Compatible with intelligent and conventional detection and fire alarm panels
·        Available in a variety of lengths, cable coatings and alarm temperatures for maximum flexibility

Applications of LHS Cable
  • Cable Trays
  • Plant Rooms
  • Vehicles
  • Multi Storey Car Parks
  • Thatched Roofs
  • Industrial Kitchens
  • Warehouses
  • Waste Recycling Facilities
  • Process Plants
  • Hazardous Areas
  • Power Stations
    • Coal conveyors
    • Cable Tunnels
    • Access Tunnels
    • Plant Rooms
  • Shipping and Marine
    • Engine Room
    • Cable Ducts
    • Ceiling Voids
    • Kitchens




Sunday, August 20, 2017

Common cause of fire in Hospitals

Common cause of fire in Hospitals

Fire safety in health care facilities—hospitals, nursing homes, clinics—presents a specialized response. Patients and families have trusted you with the safety of people who, in many cases, cannot help themselves.

Hospitals and Nursing Homes have certain special features which are not identical to other categories of Buildings. As per National Building Code (NBC) Hospital Buildings, Nursing Homes, categories under Group-C “Institutional Building”.
The Institutional Buildings are having some high risk areas with special problems relates life risk of both ambulatory and non-ambulatory patients. Life Safety from fire in Hospitals relies on a “Defined – in- Place” principle. Horizontal exits or smoke barriers are required to sub-divide each storey of a Hospital to provide an area of refuge on each floor.

Hazard Analysis:-

       A. Equipment’s Hazards
With the rapid technological advancement in medical science, hospitals and nursing homes are now equipped with a vast array of new equipment like.

Computerised Axial Topography scanners, Magnetic Resonance Imagers (MRI), lasers. Sophisticated Diagnostic and Treatment Equipment, Heaters, boiler etc.

B.     Chemical Hazards
    1. Flamable chemicals
2.      Alcohols
3.      Solvents.
a.     Acids
b.     Ethers
c.      Sprits

  1. Gas Stores

    1. LPG Cylinders
    2. Oxygen Cylinders
    3. Nitrous Oxides etc.

  1. Plants

    1. Laundry & sterilization plants
    2. A/C Plants & ducts
    3. ‘X’ Ray suits

  1. Kitchen & Canteen

  1. General Store

  1. Car park area

  1. Mattresses, bedding, furniture, Oxygen cylinders, Pipe Line carrying Oxygen or Nitrous oxide in Patients’ rooms.
 
A number of different materials and types of equipment are major contributors to hospital fires.
Major incident in India:
A. December 2011: AMRI Hospital, Kolkata, WB, India—91 Fatalities dead
1. The fire in this private hospital started in the basement, where highly flammable medical equipment was illegally stored.
2. Hospital staff abandoned the hospital when the fire started and did not try to rescue any patients.
3. The fire service arrived 90 minutes after the start of the fire. Windows and doors were locked; windows had to be broken to gain access.
4. Most deaths were a result of smoke inhalation.


B. October 2016, twenty two patients died and many others were injured in a major fire accident at a private hospital in Bhubaneswar.

Fire and Safety Association of India (FSAI) Karnataka chapter, which conducted a survey, has found out that over 4,000 hospitals in Karnataka are not following the standard fire safety rule.

It was also found that some hospitals in Bangalore are not even using extinguishers properly. P Lakshminarayana, Bengaluru chapter of FSAI, said, “To our shock, we found some hospitals hiding the extinguishers. Reason? Since it was red in colour, it did not suit their interior design. We really don’t understand what is more important? Lives or design? Also, the emergency doors are always kept locked or there were hospitals which had kept their old documents and papers at the door making them inaccessible.”

The problem as identified in different hospitals in India are appended hereunder-

a)                External firefighting and rescue operation are very difficult.
b)                Evacuation takes unreasonable time.
c)                Simultaneous rescue and firefighting operation to be done mainly within the building.
d)          Building being fully air-conditioned, heat and smoke traps inside the building during fire.
e)                Smoke venting problems & Danger of flash over.
f)                Large number of occupants with unpredictable human behavior is in case of fire.
g)               Special care is required for non-ambulant patients.
h)               Special care is required to keep escape routes clear from smoke and heat.
i)           Hazards from increasing use of interior finish decoration and Compartmentation with combustible materials.
j)                 Multi occupancy hazards, high fire loads;
k)               Unserviceable water supplies;
l)                 Unserviceable fire protection systems and equipment

Fire from Electrical Equipment

Air Conditioners: “AHU/centralised AC units reported much fewer fires than split/window AC units”
Root Causes:
Ø Overuse, so the equipment heats up.- Domestic air conditioners are not meant for 24x7 operation.
Ø Not properly maintaining the AC units - A clean filter reduces fire risk as well.
Ø Poor electrical wiring - Provide industrial sockets and circuit breakers along with the right wire gauge.

Other Electrical Equipments and Switch Gears - ‘Switch gears, Light fittings, UPS systems, Laboratory equipments, Computers….’
Root Causes:
Ø Design issues / Equipment installation. - Mounting of distribution board/fuse box on wooden plank will not reduce electrocution risk but increase fire risk !
Ø Poor Maintenance - Major share of electrical mishaps happens during maintenance without work permits !
Ø Human Errors ‘ -Technical qualification, SOP, Training’

PREVENTION
The Fire Safety Audit Committee formed by the West Bengal Government in the wake of the devastating fire at AMRI Hospital in Dhakuria December 2011 has detected lapses in fire safeguards at almost all the establishment they have inspected, which has prompted the Government to come up with more stringent rules.
Minister for Fire and Emergency Services Javed Ahmed Khan said that the Government is going to mandate the appointment of a fire safety officer in all hospitals across the State.
1.      One of the primary considerations in preventing hospital fires is to prohibit the use of combustible structural (e.g., floors, walls, roofs, stairwells, fire escapes) and nonstructural (e.g., doors, windows, ceilings, fixtures, façade, insula­tion, mechanical and electrical conduits) components in the hospital facility.

2.      Materials used in the design and construction of hospitals must be noncombustible/nonflammable, must have ad­equate fire resistance ratings, and should not emit toxic gases/smoke during a fire. Fire resistance ratings are usually dependent on the layout, occupancy, and usage of the facility.
 Some examples of materials that emit toxic fumes during a fire and should be avoided are:
·        Polystyrene (for example, polystyrene decorative moldings)
·        Insulation spray foams, polyurethane and isocyanate foams

3.      ICUs and accident and emergency units should be located on the ground floor or first-floor level with dedicat­ed access ramps. Typically, high-traffic units (e.g., diagnostics) are located on the lower/ground floors. (Note: The configuration of an ICU ward is completely different from that of other wards.)

4.      The width of the corridor leading to the emergency exits (unobstructed) should be at least 2.4 m (7.9 feet). This will permit the transportation of hospital beds, mattresses, and so forth in the evacuation of non-ambulatory patients.

5.      Evacuation maps should be posted at the hospital’s main access points to clearly identify egress routes. It is important to note that the evacuation may not necessarily involve patients and personnel exiting the building; they may be required to move to an upper floor.

6.      Suggested requirements for installing and locating fire alarm–initiating devices are as follows:
·        The operable part of the Manual pull box should not be more than 1.07 m (42 inches) to 1.22 m (48 inches) above floor level.
·        Manual pull boxes should be located so that they are conspicuous, unobstructed, and accessible.
·        Manual pull boxes should be located so that the horizontal travel distance between boxes on any floor is not more than 61 m (200 feet).
·        Additionally, manual pull boxes should be located within 1.52 m (5 feet) of either side of a grouped opening

7.      The location of smoke and heat detectors depends on the type of detector being used and the geometry and occupancy of the space. Typically, the maximum coverage areas for smoke and heat detectors are 100 square meters (1,076.4 square feet) and 50 square meters (538.2 square feet), respectively.

8.      Regulations as per National Building Code 2005 : 

1. All high-rise buildings need to get NOC as per the zoning regulations of their jurisdiction concerned.
2. A road which abuts a high rise should be more than 12 metres wide, to facilitate free movement of Fire Services vehicles, specially the Hydraulic Platform and Turn Table Ladder.
3.Entrance width and clearance should not be less than 6 metres or 5 metres, respectively.
4. Atleast 40 per cent of the occupants should be trained in conducting proper evacuation, operation of systems and equipment and other fire safety provisions in the building, apart from having a designated fire officer at the helm.
5. The buildings should have open spaces, as per the Zonal Regulations.
6. Minimum of two staircases with one of them on the external walls of the building. They should be enclosed with smoke-stop-swing-doors of two-hour fire resistance on the exit to the lobby.

9.      Once a fire has been detected, a suppression system to extinguish the fire is required to minimize damage and avoid evacuation. A variety of firefighting equipment can be installed in different locations in the hospital to combat specif­ic types of fires, with special consideration to the patients occupying each area and the medical equipment housed in those areas.

10.   The rapid spread and accumulation of smoke usually poses one of the highest risks to human life in the event of a fire. One of the means of minimizing this danger is by incorporating special smoke extraction systems, usually in the initial design of heat, ventilation, and air-conditioning (HVAC) systems.

11.    One of the most critical aspects of planned preventative maintenance. Regular checks should be performed and documented as part of a health care facility’s management system. When an equipment item has been checked, it should be tagged and signed off for safe use with an indica­tion of any action taken and the next scheduled check date.
·        Fire Panel operate on batteries, smoke/Heat detectors, Manual Call/Pull Box, Notification Hooters should be checked as part of standard hospital mainte­nance, usually every month.
·        Water sprinkler systems require planned preventative maintenance as well as robust reactive maintenance procedures. Generally, individual sprinkler heads are virtually maintenance free; therefore, costs are related to maintaining the system through weekly tests and upkeep of water supplies and pump equipment.
·        Hose reels should be checked and signed off monthly.
·        All mechanical systems, including sprinkler systems, smoke extractor systems, and water storage tanks, need to be designed to resist earthquakes.

12.   General training of all staff should include, but not be limited to, the following:
·        Training on how to lift and move patients.
·        Training on how to use fire extinguishers.
·        Training on what to do if they see a fire. For example, the RACE acronym specifies actions to be taken in a fire (although not in a specific order; the hospital’s incident commander determines the appropriate actions to be taken in a given situation)
·        Training on what to do if they hear the alarm and see the flashing lights.
Hospital engineering service provision for Fire Protection according to NABH:
1. Fire fighting installation approval must be obtained
2. Location of control room should be easily accessible.
3. Control panel & manned, PA equipment should be connected with detection system or fire alarm system.
4. Pumps and pump room
5. 2 separate pumps i. e .Electric and diesel pump should be available
6. Provision of Forced ventilation should be there.
7. Arrangement of filling Fire tenders
8. 4 way fire inlet must be present in case of emergency
9. Proper access for Fire tender to fire tanks
10. Fire Drill should be performed
11. Yard Hydrants should be available
12. Ring main and yard hydrants should be as per strategic locations.
13. 2 way fire heads to charge the ring main
14. Landing Hydrant & Hose reels
15. Wet riser system must be installed
16. First aid Fire fighting appliances must be in working conditions
17. First aid equipment cabinets
18. Provision of Escape routes - escape stair
19. Sprinklers system - basement & bldg. above 15 M in height
20. Automatic Smoke detectors / heat detectors
21. Provision of Fire Alarm System & Fire extinguishers

Remember the RACE Against Fire
RESCUE any individual directly threatened by fire. Patient safety is the primary consideration, so move patients who are in immediate danger away from smoke and flames. Place the patient in a nearby room, behind a closed door.
ACTIVATE the alarm if you discover a fire or respond immediately to the alarm if you hear it sound.
CONFINE the fire by closing doors to slow the spread of smoke and flame. Close the doors of patients’ rooms. In general, residents are safer in a closed room than in a smoke-filled hallway.
EXTINGUISH the fire only if the fire is small, and if you know how to operate a fire extinguisher. Be sure the area has been cleared and the fire department called.


¨Some typical example discharge times are.
¨2 Kg CO2 10 seconds*
¨5 Kg CO2 20 seconds*
¨3 litre Water 10 seconds*
¨9 litre Water 55 seconds*
¨3 litre Foam 10 seconds*
¨9 litre Foam 40 seconds*
¨4kg Powder 11 seconds*
¨9kg Powder 18 seconds*
¨1kg Powder 7 seconds*