CPCSFS5017Create detailed designs for foam suppression systems

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What an assessment for CPCSFS5017 must cover

189 assessable components: 4 elements (29 performance criteria), 1 performance evidence and 159 knowledge evidence requirements. An audit-defensible tool maps every question and task back to these — that mapping is the coverage matrix Auditori generates alongside the assessment.

Elements & performance criteria

1 Set up fire systems design drawings.

  • 1.1Request, receive, name and file relevant project drawings and documentation according to workplace procedures.
  • 1.2Clean drawings to leave minimal essential information.
  • 1.3Import layers showing designs of other services into clean architectural or structural drawings.
  • 1.4Add details from drawings of the floor of the level above, if these affect the design.
  • 1.5Name, file and back up the detailed design drawings according to workplace procedures.

2 Perform preliminary data and calculations.

  • 2.1Develop floor area calculations to determine the number of sprinklers zones and required fire hydrant to be considered flowing.
  • 2.2Determine the town main capabilities for the fire services serving the site.
  • 2.3Determine the types of foams applicable for the site.
  • 2.4Determine the minimum hydrant flow for the site.
  • 2.5Determine the initial fire flow demands for the site based on the occupancy classifications.
  • 2.6Analyse the town main water supply capabilities to determine if fire pumps and fire tanks are required.
  • 2.7Calculate the proposed fire pump flows and pressure and fire tanks sizes.
  • 2.8Prepare dimensional drawings for equipment spatial allocations.
  • 2.9Sight fire brigade response point, boosters and tank suction points with stakeholders.
  • 2.10Prepare a comparison list of equipment which can be used across the site.

3 Lay out the foam suppression system design.

  • 3.1Confirm dimensions and assess installation risks and constraints.
  • 3.2Determine and notate the exact location of foam nozzles on the drawing according to relevant codes and standards.
  • 3.3Determine and notate the most efficient and workable layout and location of sprinkler system components on the drawing according to workplace procedures.
  • 3.4Design pipework layout and coordinate with building elements and services and identify pipework sizes and elevations across the system(s).
  • 3.5Calculate, check and notate dimensions on the drawing according to workplace procedures.
  • 3.6Undertake hydraulic analysis of the fire systems using both hand calculation procedures and computer modelling programs.
  • 3.7Validate fire pump and tanks sizes versus initial estimates.
  • 3.8Develop detail designs of pipework for complicated interaction of pipework and building elements and services.
  • 3.9Develop detail designs of pipework configurations for fire tanks, fire pumps, brigade booster and suction points, alarm valves including manifold systems, and flow switch arrangements.
  • 3.10Develop detail designs of pipework configurations for the foam tanks, foam pumps, injections devices and alarm valves.

4 Submit drawings for approval and finalise design process.

  • 4.1Submit foam suppression system design drawings to relevant personnel within the scheduled timeframe.
  • 4.2Make or negotiate required amendments to design drawings as required.
  • 4.3Process and distribute final approved design drawings according to project and workplace requirements.
  • 4.4Select and order fittings and components according to project and workplace requirements.

Performance evidence

  • effectively designing three different foam suppression systems for three different building types.

Knowledge evidence

  • workplace design tools and processes:
  • effective and workable layout and location:
  • selection of cost-effective components and materials
  • consideration of:
  • penetrations
  • conflict with other services
  • work health and safety risks
  • access constraints
  • installation problems
  • aesthetic requirements
  • efficiencies to facilitate work on site and reduce labour costing
  • negotiations regarding amendments:
  • non-compliance with applicable legislation, codes and standards
  • impact on installation risks and constraints
  • impact on cost-effectiveness
  • relevant regulatory approval and fire systems design certification processes
  • level of accuracy required in detailed design drawings
  • naming conventions for design drawings and drawing register
  • foam suppression systems using a range of water supplies, including:
  • town main
  • town main and elevated tank
  • town main with a 100% capacity tank
  • town main with a partial capacity tank
  • tank supply with multiple tank
  • water supply using dams, rivers and sea water
  • fire science:
  • fire behaviour and dynamics
  • impact of fire on structures and materials
  • products of combustion
  • fire control strategies
  • fire retardants
  • fire detection technologies
  • fire suppression technologies
  • fire containment
  • computer software functions and operation:
  • word processing
  • spreadsheet
  • email
  • internet
  • proprietary hydraulic calculation software
  • proprietary estimating software
  • parametric modelling software, such as Navis-Works or MEP-REVIT
  • relevant current legislation, codes and standards:
  • building Acts
  • building regulations
  • infrastructure supply regulations
  • the Building Code of Australia (BCA)
  • National Construction Code (NCC)
  • Australian standards for fire systems
  • international standards for fire systems
  • other fire system standards commonly required by building insurers
  • fire systems technology and components for foam suppression systems:
  • discharge nozzles
  • pipework
  • brackets
  • system and control valves
  • zone valves
  • fire panels
  • hangers
  • fittings
  • purpose and operation of fire systems:
  • layout
  • system operation
  • performance requirements
  • maintenance standards
  • system activation and operation
  • characteristics and limitations of products and materials used in fire systems and issues relating to material compatibility
  • passive fire safety elements:
  • identification of passive elements
  • impact of fire systems design on passive elements
  • specifications required to safeguard integrity of passive fire element performance where penetrations are necessitated by the fire systems design
  • interconnection of fire systems:
  • cause and effect matrix
  • interface with other services
  • basic principles of structural engineering
  • characteristics of building materials
  • construction industry terminology
  • roles and responsibilities of relevant building project personnel:
  • architect
  • lead contractor
  • structural engineer
  • mechanical engineer
  • hydraulic engineer
  • electrical engineer
  • civil engineer
  • fire engineer
  • building (private) certifier
  • onsite issues that can arise during the construction phase and impose changes to the designs of fire systems and other services
  • installation methods:
  • access requirements
  • work health and safety (WHS) requirements
  • hydraulic calculations and fluid mechanics and hydraulics relating to pipe range
  • water and oil capture and onsite storage systems for environmental purposes
  • sustainability requirements and ratings:
  • energy conservation
  • water conservation
  • pipe fabrication methods and constraints
  • foam suppression systems for a range of types of sites, including:
  • transformers
  • aircraft hangers
  • petroleum industry storage facilities
  • diesel, steam and gas turbine rooms
  • commissioning of foam suppression systems:
  • pressure testing methodologies during the installation phases and their advantages and disadvantages:
  • use of water
  • use of compressed air
  • nitrogen cylinders
  • validating water supplies
  • validating tank in-fill flows
  • validating pump performance:
  • setting pressures for pump starts
  • setting pressures for jacking pump start/stop
  • setting pressure for pressure maintenance pump start/stop
  • reaction times to pumps starting:
  • high set pressures
  • low set pressures
  • validating sprinkler system performance:
  • Annubar at sprinkler valves or pumps
  • discharge rates and quantities
  • discharge times for various types of sprinkler systems:
  • at alarm valve
  • remote test valve
  • the role of the local fire authorities in commissioning fire systems
  • documentation to be completed and distributed
  • technical issues impacting on foam suppression system designs
  • mathematic principles, equations and calculation methods:
  • financial calculations, for example to assess cost-effectiveness of fire systems
  • trigonometry, for example to amend dimensions of pipe allowing for fittings
  • flow calculations:
  • area of operations
  • discharge rates and quantities
  • discharge times
  • pressure gain and loss
  • K-factors
  • pressure, temperature and volume relationship
  • Hazen-Williams equation
  • Darcy-Weisbach equation
  • ColeBrook White equations and/or tables
  • Manning Formula and/or tables
  • AS 2200 Design charts for water supply and sewerage
  • computational fluid dynamics
  • principles of organic and inorganic chemistry
  • principles of physical sciences:
  • Boyle’s law
  • Charles’ law
  • Dalton’s law
  • Henry’s law
  • principles of thermodynamics:
  • effects of heat
  • stratification of gases
  • smoke and heat dynamics
  • human psychology, especially fire avoidance behaviour
  • project drawings and documentation:
  • architectural
  • structural
  • mechanical
  • electrical
  • hydraulic
  • fire engineer’s or estimator’s specifications.

Unit content sourced from training.gov.au — © Commonwealth of Australia, licensed under CC BY 4.0. Auditori is not affiliated with the Department of Employment and Workplace Relations.

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Questions about assessing CPCSFS5017

What does an assessment tool for CPCSFS5017 need to cover?

To satisfy the Principles of Assessment and Rules of Evidence, an assessment for CPCSFS5017 needs to address all 189 unit components: 4 elements with 29 performance criteria, 1 performance evidence requirements, 159 knowledge evidence requirements, and the foundation skills. A coverage matrix mapping each question and task to these components is what an auditor looks for.

How does Auditori generate an assessment tool for CPCSFS5017?

Auditori pulls the current release of CPCSFS5017 from training.gov.au and generates a complete package: candidate assessment, assessor guide with model answers and observation criteria, and a coverage matrix mapping every component. A suitably qualified person then reviews and approves the draft in a built-in workflow — consistent with ASQA's guidance on AI use in VET — before export as branded PDF and editable Word.

Is the first assessment tool really free?

Yes. Every new account includes one free credit — enough to generate the complete assessment tool for CPCSFS5017 — with no card and no subscription required. After that it's pay-as-you-go per unit.

Can I check my existing CPCSFS5017 assessment instead of generating a new one?

Yes — upload your existing assessment or learner guide and Auditori maps it against every element, performance criterion, PE and KE of CPCSFS5017, showing exactly what's covered and what's missing. Mapping costs a quarter of a credit.

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