Industrial energy projects can produce significant savings, but production changes make the baseline difficult to interpret. Motors, pumps, fans, compressed-air systems, furnaces, boilers, heat recovery and process controls often operate as parts of a wider system. A credible CAE claim connects the technical intervention to final-energy savings while accounting for output, operating hours, product mix and other relevant variables under the applicable methodology.
Start with the process, not the product
Buying a high-efficiency motor does not by itself establish the savings. Document the driven load, control method, operating profile and equipment being replaced. For compressed air, examine generation, pressure, dryers, storage, distribution and end use. For process heat, define fuel inputs, temperatures, throughput, losses and recovered-energy destinations.
Draw a simple energy boundary around the affected system. Mark meters, production variables and interactions with other equipment. This prevents a component calculation from claiming savings that arise elsewhere, and it helps determine whether a catalogue sheet or singular approach fits.
Review industrial catalogue options
Industrial references that may be useful during screening include IND010, IND040, IND050, IND060, IND090, IND110, IND170, IND240, IND250, IND280 and IND290. The code list is not a substitute for the current catalogue. Confirm the technology, eligible baseline, formula, exclusions and evidence specified in the relevant sheet.
If the project changes an entire production process or combines several interacting actions, a standardised component measure may not represent it properly. Record why each sheet applies or does not apply. Where a non-standardised route is proposed, prepare the baseline and measurement plan before altering the process.
Create a defensible baseline
Collect energy data, production records, operating hours, setpoints, maintenance events and equipment specifications for an appropriate pre-project period under the chosen method. Identify shutdowns, abnormal batches and temporary operating changes. Do not remove inconvenient data without a documented technical reason.
A non-standardised calculation may need normalisation for production, weather, raw-material characteristics or another independent variable. The selected model should be transparent and reproducible. Correlation alone does not prove that the project caused the reduction, so explain the engineering relationship between the action and energy use.
Measure and commission
Meter locations and intervals should match the project boundary. Record meter identifiers, units, timestamps and any relevant calibration or accuracy information. For short-term measurements, justify why the test period represents expected operation. Preserve raw files as well as processed summaries.
Commissioning is part of reliable evidence. Check motor speed controls, compressed-air pressure, leakage management, heat-exchanger performance, combustion settings and control sequences as applicable. Record final settings and authorised changes. Savings that depend on an undocumented control setting may be difficult to verify later.
Industrial application checklist
Confirm the rights holder and site; define the physical and energy boundaries; identify the current catalogue sheet or singular rationale; preserve old nameplates and process records; reconcile equipment with invoices; retain commissioning and meter data; document production adjustments; and review interactions with other energy projects.
Health, safety, environmental permits and production quality remain separate from CAE eligibility. A certificate application does not replace those duties. Final savings and acceptance depend on the applicable rules, complete evidence and verification, so project economics should not rely on an unqualified guarantee.
