Creating an actionable building energy management plan: A step-by-step guide

Key takeaways

• Use a structured building energy management plan to systematically reduce energy use and costs while improving building performance
• Identify and prioritize energy-saving opportunities based on potential savings, ease of implementation and impact on occupant comfort
• Choose an energy management platform that connects building data, provides visibility across systems and tracks performance against benchmarks

Rising utility rates, building performance standards and environmental, social and governance (ESG) reporting requirements are putting more pressure on facility managers to control energy use and costs. In fact, facility managers say rising energy costs are the top challenge impacting their ability to effectively manage buildings, according to the 2026 AI & Digitalization in Facilities Management Report.

Most buildings already have some energy-saving measures, such as high-efficiency HVAC systems, smart sensors, enhanced insulation and real-time submetering. But when these systems operate separately, facility managers may struggle to turn fragmented data into coordinated action. A structured energy management plan connects those efforts, helping teams move from isolated measures to coordinated, repeatable energy improvements.

This guide provides a step-by-step process for creating and implementing a building energy management plan. It covers establishing a baseline, identifying energy waste, setting reduction targets, selecting an energy management platform and tracking performance against benchmarks.

Why buildings need a formal energy management plan

When HVAC, lighting and occupancy systems operate independently, they can create conflicts that waste energy and require manual intervention. For example, occupancy data might show a space is empty while HVAC continues running as though it’s occupied.

A structured energy management plan brings this data together, giving facility managers a complete view of energy use and emissions across buildings and an entire portfolio. This helps teams reduce consumption and control costs without disrupting building operations or occupant comfort.

A formal plan also gives facility teams a way to manage energy performance against external requirements and benchmarks. More cities and states are adopting building performance standards (BPS) policies requiring existing commercial buildings to meet certain performance levels for energy use or greenhouse gas (GHG) emissions.

ENERGY STAR, the U.S. Environmental Protection Agency’s energy-efficiency program, also provides widely used benchmarks for assessing commercial building energy performance.

The 5-step energy management framework

This five-step framework helps facility managers establish an energy baseline, find and prioritize waste, set measurable targets, choose the right software and track results over time.

Step 1: Conduct a baseline energy audit

To get a complete picture of energy usage, gather utility bills, metering data, equipment inventory and occupancy patterns. Tools and resources like the ENERGY STAR^® Portfolio Manager^® and the American Society of Heating, Refrigeration and Air-Conditioning Engineers (ASHRAE) guidelines for energy audits can help.

Portfolio Manager is an online tool that enables commercial real estate (CRE) organizations to benchmark energy performance, prioritize efficiency metrics and verify energy reductions in buildings.

ASHRAE publishes standards and procedures for three levels of energy audits on buildings, although Levels 1 and 2 are most useful for this step:

• Level 1 is a basic evaluation designed to uncover major energy issues and recommend low-cost measures for energy savings
• Level 2 provides more detailed energy calculations and a financial analysis of proposed energy measures

Relying on monthly billing data alone can hide important patterns. Billing data shows how much energy a building consumed over a billing period, but it may not reveal when or where waste occurred. Interval-level metering and equipment data can help facility teams identify unexpected spikes or patterns in energy usage and investigate their cause.

Step 2: Identify operational waste and prioritize opportunities

Look for energy use that continues when a building or space doesn’t need it. This includes equipment running on static schedules, HVAC operating during low-occupancy periods and lighting left on after hours. In one commercial real estate case cited in a Forrester report commissioned by Johnson Controls, out-of-hours lighting cost the organization $17,000 per floor.

Compare energy use during occupied and unoccupied periods to spot scheduling mismatches and watch for waste from systems heating and cooling at the same time. Once you identify opportunities, prioritize them based on potential savings, ease of implementation and impact on occupant comfort.

Step 3: Set measurable energy reduction targets

Start by applying the SMART goal framework to energy: Goals should be specific, measurable, achievable, relevant and time-bound. For example, define a target for reducing kilowatt-hours or energy cost per square foot by a set date.

Next, align targets with organizational benchmarks, regulatory thresholds and industry norms. Get executive support to secure the resources needed to meet those targets and establish cross-functional accountability so responsibility doesn’t fall solely on the facility team.

Step 4: Select and deploy energy management software

When evaluating energy management software, look for a unified platform that aggregates real-time data, provides cross-system visibility and automatically detects faults to continuously monitor equipment health. Rather than relying on siloed dashboards, this approach brings building data together so facility teams can see how systems interact and manage performance as a whole. Prioritize compatibility with existing systems, consistent data across a portfolio and actionable insights that help teams address issues sooner.

Consider how easily the software can integrate with existing building automation systems (BAS) and other building systems. It should also be able to standardize data from different sources so facility teams can analyze it consistently, while protecting building systems and data from cybersecurity risks.

Step 5: Implement the plan and track against benchmarks

Decide whether to implement the plan in a phased rollout or a portfolio-wide deployment. A phased rollout can reduce upfront costs and give teams time to resolve issues before expanding, while a portfolio-wide deployment is faster but requires more initial resources.

Once implementation begins, monitor KPIs such as energy use intensity (EUI), cost per square foot, peak demand and carbon emissions against established benchmarks. Regularly compare current performance with historical data and established targets, then adjust strategies and targets as building conditions and priorities change.

Addressing potential energy management plan issues

Facility managers may face the following common challenges while designing their energy management plan:

• Data silos between HVAC, lighting and occupancy systems can create conflicting optimization signals leading to wasted energy and more manual intervention. A unified, cloud-based platform can connect data from these systems, giving facility teams a more complete view of building performance and a stronger basis for coordinated decisions.
• Staff resistance or skills gaps may require investing in training and change management programs. Intuitive, AI-guided building controls and vendor-backed training programs can help lower the technical learning curve.
• Budget constraints can make energy management investments harder to justify. Building the business case around expected savings and ROI can help secure funding.

Spotlight: How a government agency transformed energy reporting with smart automation

One of the largest government agencies in the Middle East struggled to keep up with manual data collection processes, delaying ESG reporting and making energy optimization difficult. They wanted a smarter way to track emissions and optimize energy use across nearly 300 buildings.

The agency deployed an energy management solution that automated utility data collection, generated reports on demand and continuously monitored building energy performance. An energy dashboard aggregated data across all facilities, providing clear insights into emissions, consumption trends and solar performance.

The digital transformation quickly revealed new opportunities for energy efficiency and reduced reporting time from days to minutes. The improved visibility into emissions and renewable energy performance allowed facility teams to prioritize optimization projects and track progress toward net zero goals.

From plan to performance: Making energy management continuous

An energy management plan is a living document, not a one-time project. By connecting building systems and data, CRE organizations can continuously identify waste, refine operations and track progress against their goals. This shift from reactive to predictive management helps teams address potential problems earlier while sustaining energy, cost and performance improvements over time.