Demand Response for Commercial Buildings: Can Your Building Make Money by Using Less Power at the Right Time?

For years, the energy conversation in commercial buildings has focused on one question: how can we consume less?

That remains important, but a second question is becoming increasingly relevant for building owners and facility managers in the UAE: when are we consuming electricity?

A hotel, shopping mall, office tower, hospital or large educational facility may use exactly the same amount of electricity over a day but create very different pressure on the electricity system depending on when that consumption occurs. Cooling systems, chillers, ventilation, pumps, electric-vehicle charging and other major loads can sometimes be shifted, pre-cooled, sequenced or temporarily reduced without materially affecting the building’s core operation.

That flexibility has economic value.

Demand response is the mechanism through which electricity users adjust consumption in response to grid conditions, tariffs or an instruction or incentive from the electricity system. Instead of electricity supply continuously adjusting to every increase in demand, some demand becomes flexible enough to respond as well.

This is no longer a theoretical discussion in the UAE. The National Energy and Water Demand Side Management Programme 2050 explicitly envisages improved tariff structures, including time-of-use arrangements, together with demand-response mechanisms such as load management and direct load control. Abu Dhabi has gone further and is already testing demand response in practice. Its Department of Energy expanded a demand-response pilot in 2025 involving major commercial and industrial facilities and has set a target of 200 MW of demand-response capacity by 2030.

For commercial property owners, the interesting question is therefore changing. Energy efficiency still asks whether a building is wasting electricity. Demand response asks something more specific: how much of the building’s electricity demand is genuinely flexible, and what could that flexibility be worth?

Can a Commercial Building Actually Make Money From Demand Response?

Potentially, yes, but the commercial model needs to be understood correctly.

In mature demand-response markets internationally, participating customers may receive payments or tariff benefits for making a defined amount of electrical load available for reduction during specified periods. An aggregator may combine flexible demand from multiple buildings and offer that capacity to the electricity system. Other programmes use time-of-use pricing, peak-demand charges or direct utility incentives so that customers benefit financially when they move consumption away from costly periods.

The UAE market is developing in this direction, but building owners should distinguish between current opportunities, pilots and future policy mechanisms.

Abu Dhabi currently provides the clearest local example. The Department of Energy’s demand-response programme has involved industrial and commercial facilities and uses an aggregator model to coordinate flexible loads. The first phase included 12 major commercial and industrial facilities across sectors including district cooling, aviation logistics, food and beverages, building materials and steel. The DoE reported contracted capacity of 137 MW, with an 80% reliability rate, and subsequently expanded the programme while exploring additional participation models and incentives.

At national level, the UAE Demand Side Management Programme identifies improved tariffs, including time-of-use structures, and demand-response mechanisms as part of the future built-environment policy toolkit.

Dubai is also strengthening the broader infrastructure that makes energy flexibility more practical. Its updated Demand Side Management Strategy 2050 includes building retrofits, commercial and government-sector efficiency, efficient cooling, distributed energy and smart charging among its programmes, with targets to achieve electricity and water savings of at least 30% by 2030 and 50% by 2050 against the updated business-as-usual trajectory.

However, a Dubai commercial building should not currently assume that simply reducing load at 3 p.m. will automatically generate a demand-response payment. DEWA’s current commercial tariff remains primarily consumption-based through progressive slab pricing rather than a universal commercial time-of-use demand-response tariff.

For owners, this does not make flexibility irrelevant. It changes how the business case should be framed.

Today, the financial value may arise through lower total consumption, better equipment operation, avoiding unnecessary peak loads where relevant to a facility’s commercial arrangements, improved asset performance and readiness for emerging demand-response or tariff mechanisms. Where formal programmes exist or become available, the same flexibility can potentially become a revenue-producing or tariff-saving asset.

In other words, the building that prepares its flexibility before the market fully develops will understand what it can offer when the opportunity arrives.

What Does a Demand-Response-Ready Building Actually Look Like?

A good demand-response candidate is not simply a building with a high electricity bill. The important characteristic is controllable demand.

The first step is therefore to understand the building’s load profile. Interval data can reveal when demand rises, which systems drive the peak and whether those loads consistently overlap. A monthly utility bill may show total consumption but often tells very little about the building’s flexibility. Fifteen-minute or similarly granular data is considerably more useful because demand response is fundamentally about behaviour over time.

The next step is identifying which loads can move without compromising operations. In many UAE commercial buildings, HVAC deserves particular attention because cooling can represent a substantial portion of electrical demand. Chillers, chilled-water systems, air-handling units and temperature setpoints may provide flexibility, but only after the building’s thermal behaviour is properly understood.

Pre-cooling is a useful example. Instead of waiting until the hottest or most expensive part of the day to produce all required cooling, a building may lower indoor temperature slightly beforehand and then reduce chiller activity later while remaining within acceptable comfort limits. The building itself effectively provides short-duration thermal storage.

Dedicated thermal-energy storage takes this concept further. Chilled water or ice can be produced during one period and used during another, separating the time when cooling energy is generated from the time when occupants require it. The UAE National DSM Programme specifically identifies mechanisms to increase the use of cooling storage as part of its efficient-cooling agenda.

Other flexible loads may include pumps, domestic hot-water systems, selected ventilation loads, EV charging, battery storage and certain back-of-house equipment. Hotels may have different opportunities from office towers; malls differ from hospitals; schools differ from data centres. The technical assessment therefore needs to start from actual operations rather than a generic list of measures.

The control system is equally important. A facility manager cannot realistically telephone multiple plant rooms every time demand needs to change. Effective response requires automation, reliable metering, appropriate controls and clear operating limits. Occupant comfort, indoor air quality, equipment warranties and critical operational requirements need to be treated as constraints within the optimisation, not sacrificed to it.

For this reason, demand-response readiness can be viewed as a progression:

• first understand the building’s interval load profile;

• identify the equipment responsible for peak demand;

• determine which loads are technically flexible and for how long;

• establish comfort, operational and equipment constraints;

• quantify the kilowatts that can reliably be shifted or curtailed; and

• automate and verify the response through the building-management or energy-management system.

The word reliably matters. A building that can theoretically shed 500 kW but can only achieve it unpredictably has less value to an electricity system than one that can consistently provide 300 kW when required.

This also explains why measurement and verification will become increasingly important. If flexible demand eventually carries a financial value, the baseline against which the reduction is measured needs to be credible. Owners will need to demonstrate what the building would normally have consumed and what changed during the response period.

The Opportunity Starts With Understanding Your Building!

Demand response represents a broader change in how commercial buildings are likely to interact with the energy system.

Historically, electricity was largely treated as an input: the building demanded power and the grid supplied it. Smart controls, distributed generation, batteries, thermal storage, EV charging and increasingly sophisticated building-management systems are making that relationship more dynamic. A building can consume, generate, store and potentially shift energy depending on conditions around it.

The UAE’s policy direction is moving toward exactly this type of more flexible demand environment. The national DSM programme explicitly includes improved tariffs and demand-response mechanisms, Abu Dhabi is already testing large-scale commercial participation, and Dubai continues to expand its demand-side management and building-efficiency architecture.

For commercial building owners, however, there is little value in waiting for a future tariff announcement before understanding the asset. A building with no granular metering, poorly commissioned controls, simultaneous heating and cooling, unstable chiller sequencing or an unmanaged BMS is unlikely to become an effective demand-response asset overnight.

The same diagnostic work required to prepare for demand response often exposes conventional energy-efficiency opportunities as well. A detailed load profile may reveal unnecessary after-hours operation. Chiller analysis may identify poor sequencing. Building controls may show that setpoints are fighting one another. Peak-demand analysis may expose equipment operating simultaneously when it could be staged.

That is where the commercial opportunity becomes interesting. A demand-response assessment is not simply about preparing for a theoretical future payment. It can reveal how much flexibility already exists within the building, what is preventing that flexibility from being used and whether improvements would make sense even before a formal incentive is available.

For a facility manager or asset owner, the useful question is therefore not, “Can demand response make money?” in the abstract. It is much more specific:

How many kilowatts could this building reliably move for one or two hours without disrupting the people and operations inside it?

Once that number is known, the commercial discussion becomes considerably more concrete.

ECMC works with building owners and facility teams to examine energy-use patterns, HVAC performance, controls and retrofit opportunities across commercial facilities. For organisations considering demand flexibility, the logical starting point is a technical assessment of the existing load profile and control capability—not a commitment to new equipment.

If you manage a building with significant cooling or other controllable loads, it may be worth asking your facilities team for one simple dataset: the building’s interval electricity profile for a typical high-demand week. It can reveal far more about future demand-response potential than the monthly electricity bill.