Steam lances
Low-pressure steam lances with associated utility connections shall be located proximate to pumps, compressors handling flammable products at / above auto-ignition temperatures and in sulphur recovery units.
Buildings
Fire protection systems shall be installed in buildings. The protection of a building is based on fighting the fire from both the inside and from the outside of the building. Firewater shall be available close to and inside some buildings. The type of fire protection systems applied depends on location, equipment to be protected and the particular fire hazard. Equipment replacement and its replacement value shall also be considered when making an assessment for the design of the fire protection systems. The protection and detection shall be normally provided in areas as defined below. Protection for specific buildings shall also be given.
Where relevant, all doors to enclosed spaces shall be provided with an instruction plate which clearly indicates what type of extinguishing agents are installed in the particular space.
Fire protection for building areas
Instrument Equipment Shelter (IES) and Electrical Substations (SS)
CO2 fire extinguishers shall be provided.
IES except HVAC. SS except HVAC.
An automatic Inergen fire suppression system shall be installed for protection against fires.
Inerting the enclosures shall suppress and extinguish the fire. The automatic system shall meet the requirements of NFPA 2001. All equipment shall be UL and / or FM approved or Vendor National approval. Inergen bottles shall be equipped with pressure indicators. All the Inergen system shall be activated directly from the approved control panel PLC and shall not be interfaced with any separate control box. Where the chances of failures are more important, Inergen activation signal from PLC shall be wired in duplex to reduce the malfunction (i.e. one pair from each PLC). Inergen release to different rooms in IESs shall be distinguished i.e. the Inergen gas shall be released only in the room where fire is detected and not to the whole IESs. Manual mechanical activation of Inergen cylinders shall be provided in case of automatic activation fails. At Inergen release, the pressure calculations shall not exceed the limits to avoid door damage and floor tiles flying. Calculations shall be integrated with HVAC ventilation system design i.e. integrity test shall be carried out and provided to Company for review.
Door switches shall be designed to inhibit overriding each others i.e. action from one switch (manual or auto) shall not be changed from any other switch.
Systems and procedures shall be established to de-energize system when area is occupied.
Lockout system shall be provided to all suppressant systems.
HVAC control panels shall be protected by automatic release CO2 system.
Manual call points shall be provided at each exit door.
Operator shelter
No hose reels shall be installed.
Only 9 kg dry powder portable extinguishers shall be installed.
Chemical shed
Fire protection shall consist of 9 kg dry chemical powder fire extinguishers and hose reel with 31 m hose connected to the fire water supply.
Hydrocarbon-type fire
This specification describes the minimum fireproofing requirements for protection against a hydrocarbon-type fire. The hydrocarbon fire is defined in U.L. 1709. The protection is necessary for vessel skirts and other steel support structures where their sudden collapse due to fire would seriously endanger personnel, lead to the release of large quantities of flammable products and / or toxic materials, lead to consequences beyond the property limit (including environmental damage) or endanger major equipment. In special cases Fireproofing is required for critical control and electric cables.
The fire exposure resistance time shall be of 2 hours when exposed to a hydrocarbon fire as defined in the UL 1709 or in the BS 476 Part 20, Appendix D.
The extent of fireproofing shall be shown on the construction drawings. Fireproofing details shall be in accordance with standard drawings.
The standard fireproofing material is lightweight vermiculite concrete for steel structures and intumscent mastic for critical control and electric cables.
Definitions Fireproofing Zones
Only specific structures and equipment located within a Fire Proofing Zone (FPZ) shall be fireproofed. A FPZ shall only be applied to a plant or system with a maximum operating inventory of more than 5 metric tons of flammable product. In this context, a “system” is the smallest volume of piping and equipment (including vessels) that can be “blocked in” in the event of a fire. These zones shall be identified early in the detailed engineering phase of the Project
For liquid pool fires, the FPZ is a volume which a cylinder shall have a radius of 9 m from the Potential Source of Leakage (PSL) and a height of 9 m above the Hazard Level (HL).
For liquid or vapour torch fires, the FPZ is a volume with a special shape. The radius of the sphere shall be 9 m.
Sphere / bullet storage shell (up to their connecting flanges and nozzles) containing liquefied gases shall be considered as Fire Potential Equipment.
Structures Supporting Equipment
Steel structures located within a FPZ shall be fireproofed when the supported equipment contains a total of more than 2 metric tons of flammable product or has a total mass (including contents) of more than 10 metric tons or contains toxic material or sudden failure is likely to cause danger to personnel.
Steel structures within a FPZ supporting air coolers shall be fireproofed if the air cooler contains a total of more than 1 metric ton of flammable product or the total mass of the air cooler(s) supported by the structure exceeds 2.5 metric tons (including contents).
Steel columns, beams and any members within the FPZ designed for the purpose of reducing the effective buckling length of the columns shall be fireproofed.
When resistance to mechanical damage is required towards the bottom of a column, the fireproofing shall be made of reinforced concrete erected from grade level up to a minimum 1.8 m height.
Stairways, walkways, and platforms designed mainly for live loads and top surfaces of beams supporting floor plates, gratings or equipment are normally not fireproofed.
In the early stages of design features which shall be considered include:
Comparison of cost and construction time for prefabricated concrete structures versus steel structures and fireproofing.
Fire protection policy and plant availability.
Minimizing the need for bracing in a framework where fireproofing is required.
The weight of fireproofing.
The increased overall dimensions of fireproofed members.
Prefabrication
Measures to protect supporting steel structures from torch fires generating thermal radiation level of 350 KW / m² are in descending order of preference:
A judicious location and orientation of PSL’s relative to supporting steel structures in order to avoid impact of accidentally released product jets and in case of ignition of the resultant jet flame on the structure.
Application of fire shielding either near the PSL or near the surfaces to be protected to deflect the jet or jet flame and thus avoid impact.
If neither of the above is possible or practical, application of the fireproofing as specified.
Steel Pipe Supports
Individual pipe supports and steel structures supporting overhead piping located in an FPZ shall be fireproofed if one or more of the following apply:
The pipe is a flare line or an emergency depressurizing vent line.
The pipe contains toxic material.
The pipe is connected to equipment which would be severely damaged by additional nozzle loading in the event of loss of pipe support.
The pipe runs beneath an air cooler whose steel support structure is fireproofed (including horizontal members).
The pipe carries fire-fighting water and / or other utilities which would reduce the fire-fighting capability in the event of loss of support.
The pipe is an instrument airline or hydraulic control line whose loss would interfere with the ability to shut down the plant.
Spring hangers shall be fireproofed with suitable easy removable covers such as PYTEC fire protection system or equivalent.
Columns of pipe racks and pipe supports shall be fireproofed from HL up to 0.3 m below the lowest horizontal member of the structure.
Diagonal bracing for resisting only lateral forces shall not be fireproofed.
Vessels and Exchangers
The outside of skirts of vertical vessels located within an FPZ shall be fireproofed if the vessel contains a total of more than 2 metric tons of flammable product, the total mass (including contents) being more than 10 metric tons or it contains toxic material. The inside of skirts shall be fireproofed if the diameter is 1.2 meter and above.
Inside and outside fireproofing of vessel skirts shall be in accordance with the reference Standard Drawing
Supports for Insulation and Fireproofing.
Saddles supporting horizontal vessels and exchangers shall not be fireproofed.
If there are flanged pipe connections within the circumference of the skirt of vertical vessels, Fireproofing shall be applied to the inside of the skirt as well.
ESD Valves
Actuators of ESD valves when match “Emergency Shut Down Philosophy”, Protection flow chart shall be fireproofed using flexible covers. Flexible covers shall be installed directly on actuator casing with uniform thickness. The fire protection shall protect the actuators at least 30 minutes assuming a continuous total exposure to fire with a flame temperature of 1100 °C.
Critical Control and Power cabling serving safeguarding systems shall be installed and fire protected against direct radiation and flame impingement.
Codes and Standards
The following latest codes and standards to the extent specified herein shall apply. Alternate standards and codes meeting the requirements of the referenced standards and codes may be used with approval of the Company.
American Welding Society Publication (AWS)
AWS D1.1 Structural Welding Code
Underwriter’s Laboratories, Inc. (UL)
UL 1709 Fire Resistance Rapid Temperature Rise
Occupational Safety And Health Administration (OSHA)
Code of Federal Regulations, Title 29
British Standards
BS 476 Part 20 : 1987 New Appendix D : Hydrocarbon Curve Torch Fire
Decision Flow Chart for Fireproofing of Structures Supporting Equipment
General
The standard fireproofing material is lightweight vermiculite concrete. Alternative proprietary system with proven track record may be used. The extent of fireproofing shall be as indicated on the design drawings. The required thickness of fireproofing material shall be calculated according to the criteria Hp/A and from data derived from fireproofing Manufacturer’s data sheets.
Materials
Light weight vermiculite Concrete shall be used as the fireproofing material. Any proprietary cementitious fireproofing system should incorporate a water repellent and / or seal coat layer to protect the material from staining and / or ingress of detrimental substances. Minimum curing period shall be 7 days.
Material Performances
a. Two hour protection based on testing according to UL 1709, hydrocarbon curve or according to BS 476 (Part20) Appendix D.
b. Shore hardness shall be at least 40.
Installation
All application procedures and materials used shall be in strict accordance to the manufacturer’s published manuals. Any deviations from these established methods shall be submitted to Contractor for approval and Company for review before application on Site.
General Considerations for Application of Materials
a. Surface preparation
Steel work surfaces which are to be fireproofed with lightweight vermiculite concrete shall be prepared and painted in accordance with Specification for Painting.
Where alternative fire proofing materials are proposed, the specification for the surface preparation and painting shall be considered as integral part of this fire protection and details be submitted for approval to Contractor.
b. Fireproofing supports and mesh reinforcement
The Applicator in accordance with the manufacturer’s recommendations, shall submit for approval the detailed procedure for the fireproofing installation to the Contractor prior to commencing work.
Mesh reinforcement shall be plastified & galvanized or be stainless steel type to ensure the durability of the fire protection against environmental corrosion.
c. Top coat
Any seal coat or paint system for application to the external surfaces of the fireproofing materials must be recommended by the manufacturers shall approved by Contractor.
d. Accidental damage
Columns (steel members) which have fire proofing of light weight vermiculite concrete and which are located within 1.5 m of an access way for vehicles and maintenance equipment shall be protected from damage. The type of protection proposed shall be submitted for approval to Contractor.
e. Sealing
At all locations where steelwork emerges from fireproofing, the interface shall be sealed.
Application methods on steel profile
Depending on the sizes of steel profile:
For steel profile up to 200 mm between wings / flanges the “Solid Fill” method shall be used. For Steel Profile above 200 mm between flanges the “Following The Profile” method shall be used.
The boxed configuration is not allowed.
Inspection and testing
Inspection and testing shall be carried out in accordance with the site QA / QC procedures provided by the fireproofing material manufacturer.
The applicator shall ensure that all work is inspected at all stages for quality control in respect of reinforcement strength, coverage, thickness, finish uniformity and application.
The applicator shall ensure that all materials meet the service conditions and design requirements.
Acceptance of applied thickness shall be based upon random measurements, but in no case shall be less than the minimum stated within the fireproofing manufacturer’s application specification and this document.
Repair
Repair of damaged or defective areas shall be accomplished in the same manner as the original coating as specified in this document and the manufacturer’s instructions.
Repair materials and procedures shall be approved by Contractor prior to commencing repair work.
Surface finishing of repaired material shall be identical to the finish of the adjacent original approved application.
Definitions
Employer – Project owner
Safety Task Analysis Risk Reduction Talk (STARRT) - a process that utilises employees to identify and resolve environmental, safety and health related hazards associated with a task prior to its being performed.
Job Hazard Analysis (JHA) - identifies key job steps, tools, equipment, potential environmental, safety and health hazards, hazard control practices, essential personal protection equipment (PPE) for larger, more complex and usually repetitive jobs. It is prepared by a team normally consisting of a representative from the environmental, safety and health department, employee supervisors, and field-engineering representative
Task - a specific activity or subpart of a job (i.e., installing a pipe hanger, building a concrete form or installing electrical power to a fabrication area).
Hazard Control Sheets – A series of risk assessment sheets used for assisting line supervision in developing the STARRT / JHA process.
Responsibilities
Site Manager
Ensure that this procedure is being applied for the control of all activities through Contractor Supervision and Subcontractor Management
Health, Safety and Environment Supervisor / Manager
Is responsible for the development of this procedure and monitoring compliance
Site Manager – (Subcontractor)
Shall ensure that sufficient resources are provided to implement this procedure and that the procedure is understood and applied correctly.
Site Superintendents / Supervision & Subcontractor
Shall be thoroughly familiar with this procedure with their individual responsibilities regarding its implementation and enforcement.
Shall carry out regular inspections (daily) of their work areas to ensure that the requirements under this procedure are being followed.
Instructions
Guidelines for STARRT
Subcontractor Supervision shall ensure employee involvement in the STARRT process by:
Ensuring that all employees under their charge are trained in the STARRT process.
Establishing a system to follow-up with all of their crews to verify the STARRT process is being correctly implemented.
Requiring employees to participate in an individual STARRT review prior to the start of each shift for each new task.
Supervisors shall discuss the hazards relating to the project / facility with the employees to compile information necessary to complete the STARRT card
Upon completion of the STARRT card supervisors shall review the requirements of the card with the employees performing the work and the supervisor should sign the card.
The Card shall be translated into the common spoken language and displayed for review in the immediate work area.
STARRT cards are to be returned to the supervisor and forwarded to the Subcontractor Safety Supervisor’s office as appropriate at the end of each shift or completion of the work task. The supervisor is responsible for ensuring that cards are properly completed, signed and returned.
STARRT cards should be reviewed for proper usage / completion by the Health, Safety and Environmental Supervisor and maintained on file in the subcontractor HS&E Office.
Guidelines for Job Hazard Analysis (JHA) The JHA may be included as part of a work plan or work package and the requirements of the JHA be incorporated into hazardous work permits (HWP) as well as project / facility specific HSE plans as appropriate. A JHA of specific jobs or operations is required for but not limited to the following:
High risk jobs
New jobs or tasks that present unspecified or unknown hazards.
Jobs or tasks involving new equipment, machinery or procedures.
Major job categories that shall be repeated frequently.
Jobs or tasks that have historically experienced a repeated or significant rate of accidents, injuries, exposures or near misses.
Jobs involving environmental remediation of hazardous waste.
Jobs or tasks that in the professional judgment of the responsible HSE Representative require a formal JHA.
Jobs or tasks are broken down into a series of successive steps or activities. Required or anticipated tools and equipment for each step or activity are to be included. All potential hazards within each step or activity are identified.
Include the following hazard categories in the JHA:
Chemical exposures / Oxygen deficiency / Exposures to ionizing and non-ionizing / radiation / Electrical hazards / Physical hazards / Fire and explosion / Temperature extremes / Excessive noise / Biological hazards
Input should be solicited from multi-disciplinary professional staff for hazard evaluation. This input should include safety, industrial hygiene, health physics, and engineering personnel.
After all known suspected or potential hazards have been identified and accident experience reviewed, a plan must be developed with solutions to eliminate or control hazards.
The elimination or control of the hazard should be implemented first by engineering methods, then by administrative methods and as a last resort, by the proper use of Personal Protection Equipment (PPE).
Guidelines For Using the Hazard Control Sheets
The Hazard Control Sheet applicable to a work activity shall be used as a reference on developing a STARRT card or a specific Job Hazard Analysis.
In circumstances where a STARRT card or JHA are not deemed necessary then the Hazard Control sheet may be used as a guideline for conducting a task team talk by supervision to their employees.
References
BS HSE Procedures / Attachments / STARRT Card
Job Hazard Analysis and Control Program Sheets
Safety Task Analysis Risk Reduction Talk (STARRT) Card
Notation:- Y-Yes, N-No, Na-Not Applicable
Supervisor:
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Date:
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Job Description:
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Primary Hazards Risks:
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Location:
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Electrical
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Y
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N
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Na
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Locked & Tagged
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Try & Test
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Disconnected
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Excavation
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Shored / Battered
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Ladder Provided
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Daily Inspection
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Entry Permit
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Hazards (Body)
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Fall Potential
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Pinch Points
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Electrical Shock
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Housekeeping
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Slip -Trip
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Flying Particles
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Thermal Burns
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Manual Lifting
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Sharp Object
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Permits
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Hot Work
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Confined Space
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Breaking Process
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Excavation
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Critical Lift Plan
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Personnel Basket
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Emergency Equipment
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Fire Extinguisher
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Safety Shower
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Eyewash
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Permit Displayed
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All Conditions Met
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Evacuation
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Assembly Area
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Hazards (Environmental)
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Airborne Particles
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Vapours
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Hot / Cold Surfaces
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Hot / Cold Materials
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Noise
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Heat Stress
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Proper Equipment
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Man Lift
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Personal Basket
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Forklift
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Jlg Lift
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Crane
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Chainfall
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Hand Tools
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Poared Tools
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Good Conditions
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Operator Certificate
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Proper Rigging
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Current Inspection
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Trucks, Tractors, Etc
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Overhead Work Or
Floor Opening
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Fixed Barricades
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(Tape) Danger
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(Tape) Caution
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Barriers
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Signs
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Hole Cover / Cleat
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Handrails / Toe board
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Process Equipment
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Valves Locked
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Tags Hung
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Blinds Installed And Tagged
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Proofed
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Standby Person
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Confined Space
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Fire Watch
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Sandblast Person
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Traffic Watch
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Welding
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Shields
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Fire Blanket
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Fire Extinguisher
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Cylinders Secured
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Combustibles
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Moved Sparks
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Sparks Contained
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Hazards (Chemical)
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Msds’s Reviewed
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Chemical Burn
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Skin / Eye Irritant
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Inhalation
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Personal Protective Equipment
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Work Gloves
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Chemical Gloves
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Anti vibration Gloves
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Wet Suits
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Foot Guards
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Rubber Boots
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Mono Goggles
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Face Shield
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Fresh Air
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Ear Protection
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Safety Harness
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Burning Goggles
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Hard Hat
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Safety Glasses
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Respirator
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Other
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Print Employee Name
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Employee Signature
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Supervisor Name (print) Supervisors signature
Job Hazard Analysis (Jha) And Control Program Sheets.
Job Hazard Analysis
Description:
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Location:
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Page of
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Key Job Steps
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Potential Injury
Or Health Effect
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Tools Or Equipment Used
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Engineering Safe Practices, Equipment, Ppe, Etc.
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Responsible Supervisor:
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Safety & Health Representative:
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Date:
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Date:
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