EnviGlobe

EnviGlobe services

Energy Management

Energy management combines audits, monitoring, benchmarking, and conservation planning to improve how facilities measure and control energy performance.

Answer first

Energy management combines metering, auditing, benchmarking and conservation planning so that a facility can see where energy is actually consumed, quantify what each improvement is worth, and hold the savings once they have been achieved.

Industrial energy audit measurements in Egypt
Illustrative image only; it does not depict the actual project.

Scope of work

What we deliver

  • Energy audits at screening, general and investment-grade level, scaled to the decision being made.
  • Load profiling and disaggregation of consumption by process, system, utility and production line.
  • Submetering design and specification so that consumption can be attributed rather than estimated.
  • Energy performance indicators and baselines normalised for production, occupancy, weather and operating hours.
  • Benchmarking of energy use against comparable facilities and processes for energy-intensive industries.
  • Energy conservation plans with costed measures, payback, and a prioritised implementation sequence.
  • Support for energy management systems aligned with ISO 50001, including energy review, objectives and operational control.
  • Building energy management system requirements, control strategy review and commissioning support.
  • Measurement and verification of realised savings so that claimed performance can be evidenced.

When to use it

  • Energy cost has become a material share of operating cost and the drivers are not understood.
  • Investment in efficiency equipment is being considered and needs a defensible business case.
  • The organisation is pursuing ISO 50001 certification or has been asked to demonstrate systematic energy management.
  • Reported energy and Scope 2 emissions figures cannot be reconciled with utility invoices.
  • A new facility or major expansion is being designed and energy performance should be set at design stage.
  • Efficiency measures were implemented previously but the savings were never verified or have quietly disappeared.

Information needed

  • Utility bills and fuel purchase records covering at least twelve consecutive months.
  • Single line diagrams, equipment schedules and nameplate data for major energy-consuming plant.
  • Production or occupancy data at the same frequency as the energy data.
  • Existing metering and building management system trend data where available.
  • Operating schedules, shift patterns, setpoints and seasonal variations.
  • Records of previous energy studies, retrofits and maintenance history for major plant.

Decision outputs

  • An energy balance showing where consumption actually occurs rather than where it is assumed to occur.
  • A normalised baseline against which future performance can be measured fairly.
  • A register of conservation measures with estimated saving, cost, payback and implementation risk.
  • A prioritised plan separating no-cost operational changes from capital projects.
  • The documentation set required to support an ISO 50001 energy review.
  • A measurement and verification approach agreed before the work starts, so savings can be proven later.

How we work

01

Establish the baseline

Collect and validate consumption, production and operating data, then build a normalised baseline and energy balance.

02

Audit and diagnose

Survey major systems, take spot measurements where data is missing, and identify losses in motors, compressed air, steam, thermal and HVAC systems.

03

Quantify and prioritise

Cost each measure, estimate savings and payback, assess interaction between measures, and sequence the plan.

04

Implement and verify

Support procurement and commissioning, then verify realised savings against the agreed baseline and reporting method.

Relevant sectors

Multi-sector experience.

  • Cement, steel, ceramics and other energy-intensive industry
  • Food, beverage and pharmaceutical manufacturing
  • Commercial buildings, malls and hospitality
  • Hospitals, campuses and large institutional estates
  • Water, wastewater and utility infrastructure
  • Logistics, cold chain and warehousing

Frequently asked questions

What is the difference between a walkthrough audit and an investment-grade audit?

A walkthrough or screening audit uses bills, a site visit and engineering judgement to indicate where the opportunity is likely to be, and is appropriate when you are deciding whether to look further. An investment-grade audit adds measurement, detailed modelling, vendor-level costing and risk assessment so the numbers can support a capital decision or financing. Choosing the deeper study first is only worthwhile once you know roughly where the consumption sits.

How much energy saving is realistically available?

It depends entirely on the facility, its age, how it is operated and what has already been done. The honest answer before an audit is that nobody knows, and any consultant quoting a percentage in advance is quoting an industry average rather than your site. What is consistently true is that a meaningful share of the opportunity is usually operational, meaning schedules, setpoints, controls and maintenance, and therefore available without capital expenditure.

Do we need submetering before an audit is useful?

No, an audit is useful without it, but submetering changes what can be proven. Without it, consumption is allocated using engineering estimates and run hours, which is adequate for prioritising but weak for verifying savings. Where a facility intends to manage energy continuously, pursue ISO 50001, or verify performance contracts, we normally specify metering as one of the first measures rather than a later refinement.

What does ISO 50001 actually require?

ISO 50001 requires a management system: an energy policy, a documented energy review that identifies significant energy uses, an energy baseline and performance indicators, objectives and action plans, operational controls, competence and awareness arrangements, monitoring and measurement, internal audit, and management review. The technical analysis sits inside that structure. Organisations sometimes commission an audit expecting it to deliver certification; the audit is an input to the energy review, not the system itself.

How are savings verified after implementation?

Through a measurement and verification plan agreed before implementation, which defines the baseline, the measurement boundary, the normalising variables, the data to be collected and how routine and non-routine adjustments will be handled. The protocols in common use, such as IPMVP, provide recognised options for whole-facility and isolated-system approaches. Agreeing the method afterwards almost always produces a dispute, because both parties then choose the baseline that suits them.

How does energy management relate to carbon reporting?

Energy data is the primary input to Scope 1 and Scope 2 emissions. If consumption cannot be attributed reliably, the emissions figures inherit that weakness, which matters where disclosure is assured or where product-level figures are required for export reporting. Building the metering and data discipline once serves energy cost control, ISO 50001 and carbon disclosure together, rather than maintaining three parallel and mutually inconsistent datasets.

Should energy performance be addressed at design stage?

Yes, and it is materially cheaper there. Envelope, orientation, system selection, sizing, zoning, metering provision and control strategy are largely fixed at design and expensive to change later. Reviewing design intent, specifications and control philosophy before procurement typically costs a fraction of retrofitting the same performance into a completed building or plant, and it also avoids the oversizing that drives poor part-load efficiency.

Discuss your project requirements with our team.

We will help define the right scope and next practical step.

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