CA CEG study materials
CA CEG study resources

CA CEG study plan

CA CEG · Give each week a clear focus.

8 weeks · About 7 hours per week

Week 1

Energy Management Fundamentals and Program Development & Energy Audits, Measurement and Verification

  • Map every exam domain to its weighted share and rank study order by percentage weight and personal weakness

  • Define energy intensity metrics (EUI, kWh/unit, Btu/ft2-HDD) and compute baseline values from a sample 12-month utility dataset

  • Draft a strategic energy management plan outline covering policy, baseline, objectives, action items, and reporting cadence

  • Explain the audit level hierarchy (screening through investment-grade) and match each level to its typical data collection depth and output

Your checkpoint

A two-page written summary containing a weighted domain study calendar, a worked baseline EUI calculation with all unit conversions shown, and a one-page strategic plan outline

Week 2

Energy Audits, Measurement and Verification & Economics, Financing and Project Justification

  • Build an audit data collection checklist covering interval meter data, nameplate inventory, operating schedules, and occupancy profiles

  • Apply measurement boundary and baseline adjustment concepts to at least three scenarios involving production or weather changes

  • Compute simple payback, net present value, internal rate of return, and levelized cost of conserved energy for one candidate measure

  • Identify suitable financing mechanisms (capital budget, performance contract, on-bill, rebate) and justify a choice for a stated constraint

Your checkpoint

A spreadsheet model for one efficiency measure showing cash flows, NPV, IRR, simple payback, and levelized cost, plus a one-paragraph financing recommendation

Week 3

Electrical Energy Systems and Power Quality & Heating, Ventilating and Air Conditioning Systems

  • Calculate three-phase power, demand, load factor, and power factor from given voltage, current, and interval data

  • Diagnose common power quality issues (harmonics, voltage sag, imbalance, transients) and identify their typical sources and mitigation options

  • Trace the refrigeration cycle and compute basic coil and airflow relationships including sensible heat ratio

  • Compare constant-volume and variable-air-volume control strategies and estimate fan energy savings from a stated schedule change

Your checkpoint

A worked problem set of ten calculations (four electrical, six HVAC) with formulas, unit conversions, and a short interpretation note for each result

Week 4

Heating, Ventilating and Air Conditioning Systems & Boilers, Steam Systems and Thermal Distribution

  • Evaluate economizer, ventilation, and temperature reset sequences and quantify expected savings for one retrofit

  • Calculate boiler efficiency using stack loss methods and identify the effect of excess air, blowdown, and steam trap losses

  • Estimate steam and condensate losses from a described distribution system and rank repair priorities

  • Size a heat recovery opportunity (condensate, flash steam, or flue gas) and estimate its annual energy value

Your checkpoint

A midterm-style case analysis of one building's HVAC and steam systems, including a prioritized measure list with estimated savings, costs, and payback

Week 5

Building Envelope, Lighting and Motors/Drives & Industrial Process Energy and Combined Heat and Power

  • Quantify envelope heat loss and solar gain effects and estimate savings from insulation, glazing, or air sealing upgrades

  • Compute lighting power density compliance and compare LED retrofit savings including controls and reduced cooling load

  • Apply fan and pump affinity laws to estimate variable-frequency-drive savings for a stated load profile

  • Map an industrial process energy flow and identify waste heat recovery and combined heat and power opportunities with sizing logic

Your checkpoint

A retrofit package memo covering envelope, lighting, and motor/drive measures plus one CHP or waste heat concept, each with savings estimate and screening economics

Week 6

Industrial Process Energy and Combined Heat and Power & Renewable Energy, Sustainability and Emissions

  • Evaluate CHP prime mover options (reciprocating engine, combustion turbine, microturbine) against a stated thermal and electric load profile

  • Calculate spark spread, operating cost, and payback for a proposed CHP system including standby charges

  • Compare renewable options (solar PV, solar thermal, wind, biomass) on capacity factor, levelized cost, and site suitability

  • Compute greenhouse gas emissions baselines and reductions using stated emission factors and document boundary assumptions

Your checkpoint

A combined CHP and renewable feasibility brief with load matching, economics, and an emissions reduction table showing all factors and boundaries used

Week 7

Energy Management Fundamentals and Program Development & Economics, Financing and Project Justification & Renewable Energy, Sustainability and Emissions

  • Assemble a full business case for a multi-measure project combining technical scope, economics, and emissions impact

  • Apply risk adjustment and sensitivity analysis to test how payback changes with energy price and incentive assumptions

  • Prepare a stakeholder-ready presentation narrative that translates technical findings into financial and sustainability language

  • Reconcile competing measures against a fixed capital budget and justify the selected portfolio

Your checkpoint

A ten-slide project justification deck with an executive summary, sensitivity table, and recommended portfolio under a stated budget cap

Week 8

Energy Management Fundamentals and Program Development & Energy Audits, Measurement and Verification & Economics, Financing and Project Justification & Electrical Energy Systems and Power Quality & Heating, Ventilating and Air Conditioning Systems & Boilers, Steam Systems and Thermal Distribution & Building Envelope, Lighting and Motors/Drives & Industrial Process Energy and Combined Heat and Power & Renewable Energy, Sustainability and Emissions

  • Complete two full-length timed practice exams and log every missed item by domain and error type

  • Re-derive the twenty formulas most frequently missed, including unit conversions for power, heat, and steam

  • Review weak domains identified in the error log and rewrite concise summary sheets for each

  • Confirm exam-day logistics, reference materials, and a pacing strategy for calculation-heavy items

Your checkpoint

A personal error log with all missed items categorized, corrected worked solutions, and a one-page formula and pacing sheet for final review

Milestones

Week 2: Can compute NPV, IRR, simple payback, and levelized cost from raw cash flow inputs without notes, and correctly state the measurement boundary for a given savings claim

Week 4: Scores at least 70 percent on a self-made 30-question mixed set covering electrical, HVAC, and steam fundamentals, with all calculation steps shown

Week 6: Can explain CHP sizing logic, renewable screening criteria, and emissions factor application to another person in under ten minutes without reference material

Week 8: Scores at least 80 percent on two timed full-length practice exams and has a closed error log showing every weak domain addressed with a corrected solution