HKIE Professional Assessment - Energy Discipline study materials
HKIE Professional Assessment - Energy Discipline study resources

HKIE Professional Assessment - Energy Discipline study plan

HKIE Professional Assessment - Energy Discipline · Give each week a clear focus.

8 weeks · About 7 hours per week

Week 1

Energy fundamentals, thermodynamics and heat transfer

  • Derive and apply the first and second laws to steady-flow and closed-system energy plant cycles, writing out control-volume balances from memory

  • Compute conduction, convection and radiation heat transfer rates for a finned surface and a composite wall, and state the assumptions behind each correlation used

  • Construct and interpret T-s and h-s diagrams for Rankine and Brayton cycles, identifying irreversibility and where exergy is destroyed

  • Solve psychrometric and moist-air energy balances relevant to cooling coils and cooling towers

Your checkpoint

A single A4 double-sided formula and assumptions sheet for Domain 1, plus 15 self-written worked problems with numerical answers checked for dimensional consistency

Week 2

Energy conversion systems and power plant engineering

  • Calculate cycle efficiency, heat rate and specific fuel consumption for reheat-regenerative steam plants and combined cycles, and compare against realistic benchmarks

  • Explain the energy balance and performance drivers of boilers, steam turbines, gas turbines, condensers and cooling systems, and size the main auxiliaries

  • Analyse part-load and off-design behaviour of turbines and boilers, including the effect of ambient conditions on gas turbine output

  • Identify the main failure and degradation mechanisms in pressure parts and rotating equipment and the inspection regime that addresses each

Your checkpoint

A one-page plant performance calculation template (inputs, equations, sanity-check ranges) applied to two worked plant cases with efficiency and heat rate reconciled to within 2%

Week 3

Energy conversion systems and power plant engineering & Renewable and low-carbon energy technologies

  • Compare solar PV, solar thermal, wind, hydro, biomass and waste-to-energy on resource, conversion efficiency, capacity factor and grid integration constraints

  • Size a grid-connected PV array and a small wind turbine from resource data, including inverter ratio, losses and annual yield estimate

  • Evaluate energy storage and flexibility options against duration, round-trip efficiency, degradation and duty cycle

  • Explain grid code and interconnection issues for variable renewables, including fault ride-through, reactive power and curtailment

Your checkpoint

A technology comparison matrix covering at least six renewable options with quantitative metrics, plus one fully worked PV and one wind yield calculation with stated uncertainty

Week 4

Energy efficiency, auditing and demand-side management & Building services, HVAC and electrical energy systems

  • Structure an energy audit to the recognised four-stage approach, selecting measurement instruments and sampling periods appropriate to each system

  • Perform energy and mass balances across an industrial or commercial facility and quantify savings from the main opportunities found

  • Calculate HVAC loads, fan and pump power, and system curve operating points, and evaluate variable-speed drive and reset-control savings

  • Assess electrical distribution losses, power factor, harmonics and motor efficiency, and prioritise measures by payback

Your checkpoint

A mock audit report of 8 to 12 pages for a hypothetical facility, with an energy balance diagram, a prioritised opportunity register and a measurement and verification plan

Week 5

Energy efficiency, auditing and demand-side management & Energy economics, policy, regulation and carbon management

  • Build a life-cycle cost, simple payback and internal rate of return model for an efficiency retrofit and interpret sensitivity to tariff and discount rate

  • Apply the local regulatory and tariff framework for electricity, including demand charges, fuel adjustment clauses and feed-in or renewable certificate arrangements

  • Compile a greenhouse gas inventory using activity data and emission factors, and distinguish Scope 1, 2 and 3 boundaries

  • Explain carbon pricing, offset quality and reporting standards, and evaluate a credible decarbonisation target against a science-based pathway

Your checkpoint

A spreadsheet-based business case for one retrofit with payback, IRR, life-cycle cost and abatement cost per tonne of carbon dioxide equivalent, plus a one-page carbon inventory with stated boundary and factors

Week 6

Energy project management, safety and environmental compliance

  • Develop a work breakdown structure, schedule and resource plan for an energy project, and identify the critical path and float

  • Identify the principal construction and operational hazards for energy plant and select controls using the hierarchy of control

  • Determine the environmental compliance obligations for an energy project, including air, noise, waste and water permits, and the assessment process

  • Explain commissioning, handover and performance-test protocols, including guarantees and liquidated damages

Your checkpoint

A project execution plan for a notional 5 MW installation containing schedule, risk register with ranked controls, permit register and commissioning test schedule

Week 7

Professional practice, ethics and engineering judgement & Energy fundamentals, thermodynamics and heat transfer

  • Apply the professional code of conduct to at least four realistic dilemmas, including conflicting client pressure, competence limits and whistleblowing

  • Distinguish duty of care, negligence and contractual liability, and identify when to escalate to a senior engineer or insurer

  • Re-derive the two or three Domain 1 relationships most often misapplied in practice, and check them against worked examples

  • Produce clear technical advice for a non-specialist decision maker, stating assumptions, uncertainty and the basis of recommendations

Your checkpoint

Four written dilemma responses of 300 to 400 words each with a defensible course of action and stated reasoning, plus a one-page client advice note

Week 8

Energy fundamentals, thermodynamics and heat transfer & Energy conversion systems and power plant engineering & Renewable and low-carbon energy technologies & Energy efficiency, auditing and demand-side management & Building services, HVAC and electrical energy systems & Energy economics, policy, regulation and carbon management & Energy project management, safety and environmental compliance & Professional practice, ethics and engineering judgement

  • Complete two full-length timed mock assessments under exam conditions and mark them against the published weighting of each domain

  • Revisit every weak area identified in the mocks and close each gap with a targeted worked example

  • Rehearse concise verbal explanations of key calculations and judgements suitable for a professional interview or viva

  • Consolidate the formula and assumptions sheets and the opportunity and compliance checklists into a single revision pack

Your checkpoint

Two completed mock papers with scored analysis by domain, a list of residual gaps with mitigation, and a final consolidated revision pack of no more than 12 pages

Milestones

Week 2: Can solve a combined-cycle efficiency and heat rate problem from first principles in under 15 minutes, with units and assumptions stated, without notes

Week 4: Can produce a defensible facility energy balance and three prioritised savings measures with quantified savings and payback from a cold start

Week 6: Can present a project risk register and permit register that a reviewer accepts as complete for a mid-size energy installation

Week 8: Scores at least 65% overall on both mock papers, with no individual domain below 50%, and has a written plan for every residual gap