CPCPPS5030 — Design pump systems
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What an assessment for CPCPPS5030 must cover
250 assessable components: 4 elements (30 performance criteria), 2 performance evidence and 218 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 Evaluate design parameters.
- 1.1Establish scope of work for pump system requirements for wide span and high-rise building projects.
- 1.2Determine design requirements from plans, specifications, system demands and client brief.
- 1.3Identify statutory and regulatory requirements and Australian Standards and codes for the design of pump systems.
- 1.4Apply sustainability principles and concepts as part of the design process.
- 1.5Conduct flow and pressure tests of hydraulic system.
- 1.6Establish pump duties for the design application.
- 1.7Establish performance requirements considering safety of system users or building occupants.
- 1.8Interpret manufacturer requirements, trade, sizing and technical manuals.
- 1.9Conduct research to outline design parameters.
- 1.10Conduct cost-benefit and life cycle analysis to compare a range of pump alternatives, materials and system designs.
2 Plan and detail system components.
- 2.1Size and detail pump, controls and pump room requirements.
- 2.2Plan layout of pipework systems including type and location of fittings, valves and controls.
- 2.3Calculate pipe sizes, velocities, flows and pressures for applications.
- 2.4Specify energy sources for hydraulic pumping applications.
- 2.5Plan pump plinths and pump mountings for applications.
- 2.6Size and select pump impellers.
- 2.7Specify approved materials, jointing methods and installation requirements.
- 2.8Provide allowance for vibration.
3 Design and size systems.
- 3.1Design pump systems for wide span and high-rise building applications.
- 3.2Evaluate pump acoustic performance.
- 3.3Perform wastewater pump dynamic suction head and flow rate calculations.
- 3.4Apply design principles for optimal performance of pump systems.
- 3.5Design delivery systems for the design application.
- 3.6Design and size pump systems using calculations and computer software packages.
- 3.7Perform domestic water pump flow rate and pressure head calculations.
- 3.8Perform stormwater pump dynamic suction head and flow rate calculations.
4 Prepare documentation.
- 4.1Prepare a return client brief of the preferred design.
- 4.2Prepare plans and specification details for a range of pump systems.
- 4.3Prepare testing and commissioning schedule.
- 4.4Produce operation and maintenance manual.
Performance evidence
- designing, sizing and documenting water and wastewater pumping systems required for the hydraulic services installation of: a high-rise mixed development building to a minimum of 29 floors, including a basement with fixtures on all levels, and a wide span project (such as a school or industrial complex)
- planning and detailing both system components and include: ancillaries, control panel, fittings, flow switches, mounting, piping, plinths, pressure switches, pump duty.
Knowledge evidence
- hazards associated with pumping equipment used in hydraulic systems
- key features of work plans and specifications
- approved installation methods for pump systems
- principles of technology in the design of pump installations for hydraulic systems
- research methods
- terminology and definitions used in pump installation
- work health and safety (WHS) requirements, including relevant statutory regulations, codes and standards
- scope of work:
- interpretation of plans and specifications
- sizing and documenting layout of pump systems for wide span and high-rise building projects
- pump types:
- centrifugal
- circulating
- constant flow variable speed
- macerator
- multiple stage
- piston
- positive displacement
- submersible
- vacuum
- variable speed control
- pump duties:
- constant pressure
- flow rate
- head
- velocity
- design requirements:
- acoustic performance
- architectural plans
- available flow and pressure from authority’s main
- building specifications
- fire safety
- owner’s requirements
- pipework identification
- pump duty
- sizing of pipework
- ventilation
- vibration
- viscosity of fluids
- cost-benefit and life cycle analysis:
- balancing initial cost with durability, longevity, maintenance and ongoing fuel and energy cost requirements
- comparing the range of suitable materials, pumps and system designs available to enable cost-effective choices to be made without compromising integrity of project
- cost-benefit considerations:
- design
- energy costs
- expected design life
- labour costs
- material costs
- safety factors
- speed of installation
- suitable materials
- statutory and regulatory requirements which may include Acts and regulations Commonwealth, state or territory and local government requirements
- Australian Standards and codes:
- AS/NZS 3500 Plumbing and drainage set
- AS 2419 Fire hydrant installations system design, installation and commission
- AS/NZS 1547 On-site domestic wastewater management
- AS 2200 Design charts for water supply and sewerage
- National Construction Code (NCC)
- other relevant Australian Standards
- manufacturer requirements:
- material installation specifications
- pump tables
- pipe sizing
- recommended installation and fixings for pipework
- technical and trade manuals
- ventilation requirements
- information gathered during desktop study to support design research:
- architectural and building plans
- developer plans
- manufacturer data
- applications
- brochures
- forms
- policies
- reports
- flow and pressure tests which may include on-site measurement of flow (l/s), velocity (m/s) and pressure (kPa)
- performance requirements including flow, velocity, pressure and discharge requirements, to satisfy the requirements of the hydraulic system
- pump, controls and pump room requirements:
- acoustics
- ancillaries
- automatic controls
- inlet and outlet design
- installation and mounting
- plinths
- pump sizing and selection
- space
- ventilation
- vibration
- layout of pipework systems:
- access
- identification
- insulation
- isolation
- maintenance
- principles of economy, serviceability, durability and fit for use
- replacement
- fittings:
- bends
- flanges
- inlet and outlet pressure gauges
- tees
- unions
- valves:
- air relief
- excess pressure
- isolating
- non-return
- pressure limiting
- pressure reduction
- strainers
- vibration couplings
- energy sources:
- diesel and diesel-electric generator sets
- electrical, single phase and three-phase
- petrol
- pump plinth bases designed to resist forces exerted by pump:
- concrete
- masonry
- timber
- steel
- pump mountings:
- anchoring bolts
- inertia pads
- rubber and synthetic
- spring loaded
- vibration mounts
- piping materials:
- copper (Cu)
- galvanised steel
- stainless steel
- polyethylene (PE)
- polypropylene (PP)
- polybutylene (PB)
- other approved material
- pump materials:
- cast iron
- bronze
- stainless steel
- other appropriate materials
- jointing methods:
- brazing
- electrofusion welding
- mechanical joints
- other approved jointing method
- installation requirements:
- pipe protection:
- corrosion
- impact
- fire rating
- level of workmanship
- manufacturer-recommended specific fixings
- pipe support
- provision for vibration
- serviceability and access
- thrust brackets
- delivery systems:
- circulation
- constant flow variable speed pump
- hydropneumatic
- lift
- pressure
- rising main
- vacuum
- methods of applying sustainability principles and concepts:
- selecting appropriate material to ensure minimal environmental impact
- efficient use of material
- efficient energy usage/capital outlay comparison
- effect on the environment due to pump or pipe failure
- pump efficiency
- types of plans:
- axonometrics
- cross-sections
- details
- elevations
- isometrics
- sections
- schematics produced using:
- computer generation
- drawing equipment
- specification:
- acoustic performance
- fire safety
- jointing
- manufacturer requirements
- materials
- pump duty
- residual pressures
- WHS
- specialised components
- support
- testing
- valve selection
- vibration control
- workmanship
- testing of:
- defect inspection
- hydrostatic
- performance
- quality assurance (QA) audit
- commissioning schedule information:
- system certification
- exhaust pipe check
- flow check
- leak check
- pressure check
- system purge
- system defects
- system functions as per design
- valve operation
- acoustic performance
- operation and maintenance manual information:
- as installed drawings
- results of commissioning test
- certification documentation
- emergency shutdown procedures
- maintenance schedules
- manufacturer brochures and technical information
- valve function.
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 CPCPPS5030
What does an assessment tool for CPCPPS5030 need to cover?
To satisfy the Principles of Assessment and Rules of Evidence, an assessment for CPCPPS5030 needs to address all 250 unit components: 4 elements with 30 performance criteria, 2 performance evidence requirements, 218 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 CPCPPS5030?
Auditori pulls the current release of CPCPPS5030 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 CPCPPS5030 — with no card and no subscription required. After that it's pay-as-you-go per unit.
Can I check my existing CPCPPS5030 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 CPCPPS5030, showing exactly what's covered and what's missing. Mapping costs a quarter of a credit.
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