Energy Efficient Lifts for Commercial Buildings

A lift that runs all day, every day, is easy to overlook until energy bills rise, maintenance issues increase, or a refurbishment forces a closer look at building performance. For facilities managers and project teams, energy efficient lifts are no longer a nice extra. They are a practical part of reducing operating costs, supporting sustainability targets and improving the long-term performance of a commercial building.

The challenge is that lift energy use is not determined by one component alone. It comes from the full picture – drive system, control strategy, car lighting, standby behaviour, traffic patterns and the condition of the equipment already in place. That is why the right answer for a hospital, office, retail scheme or education site may differ, even if the headline goal is the same.

What makes energy efficient lifts different?

In simple terms, energy efficient lifts use less power in operation and less power when idle. In commercial buildings, both matter. A passenger lift may only be moving for part of the day, but it can remain powered continuously, with lighting, ventilation and controls drawing electricity even when no one is using it.

Modern lift systems improve this in several ways. Machine-room-less traction lifts often offer strong energy performance because they use efficient motor technology and compact drive arrangements. Regenerative drives can return excess energy to the building’s electrical system during certain travel conditions, rather than wasting it as heat. LED car lighting, sleep modes and intelligent group controls also reduce unnecessary consumption.

Hydraulic lifts still have a place in some commercial settings, particularly where travel is lower and usage is more limited, but they are generally less energy efficient than traction systems on higher duty cycles. That does not make them wrong by default. It means the specification should match the building, the travel, the loading and the expected usage.

Energy efficient lifts and whole-life cost

Capital cost often dominates early discussions, especially on new developments and competitive tendering. Yet when lifts are expected to operate for decades, whole-life cost is the more useful measure. An option with a lower purchase price can become the more expensive choice if it consumes more electricity, requires more frequent intervention or reaches obsolescence earlier.

For building owners and managing agents, this is where energy efficiency becomes commercially relevant. Lower consumption helps reduce service charge pressure in multi-occupancy buildings. Better control systems can cut wear as well as power use. Modernised lifts can also improve reliability, which matters just as much as utility savings in busy public-facing environments.

There is also a compliance and reporting angle. Many organisations now track carbon performance across estates, and vertical transportation is part of that picture. If your building is targeting higher environmental standards, lift selection should sit alongside HVAC, lighting and building controls rather than being treated as a separate engineering package.

Where the real savings come from

The biggest savings rarely come from one headline feature alone. They usually come from a combination of sensible engineering decisions.

Drive technology is a major factor. Traction lifts with variable voltage variable frequency control are typically more efficient than older systems because they manage motor performance more precisely. Regenerative technology can add further benefit in the right duty conditions, particularly in taller or busier buildings where lift travel is frequent.

Standby performance is often underestimated. In many buildings, lifts spend a significant amount of time idle. Automatic shutdown of car lighting and ventilation, low-power standby modes for displays and controls, and efficient door operators can all make a measurable difference over a year.

Traffic management matters too. In buildings with multiple passenger lifts, intelligent group control can reduce wasted journeys and improve handling capacity. That means the lifts are not only using energy more efficiently, but also providing a better user experience during peak periods.

Then there is the condition of the equipment itself. A poorly maintained lift may consume more power because components are no longer performing as they should. Worn door gear, ageing controllers and outdated motors can all affect efficiency, even before reliability problems become obvious.

New installation or modernisation?

If you are planning a new commercial lift installation, it makes sense to assess energy performance at specification stage. This is the point where travel distance, car size, duty level and control strategy can be aligned properly with the building’s use. Retrofitting efficiency later is possible, but it is usually more limited and more disruptive.

For existing buildings, modernisation is often the more realistic route. Many older lift systems remain structurally sound but operate with outdated controllers, inefficient drives and high-energy lighting. Targeted refurbishment can significantly improve performance without the cost of full replacement.

That said, it depends on the age and condition of the lift. In some cases, partial modernisation gives worthwhile gains and extends service life. In others, repeated piecemeal upgrades simply prolong an inefficient asset that is becoming harder to support. A proper technical survey is essential before deciding where the best value sits.

Choosing the right lift type for the building

Passenger lifts in offices, education and healthcare

Passenger lifts in higher traffic commercial environments are often strong candidates for traction technology. Offices, colleges and hospitals usually need reliable handling, efficient travel and good ride quality across repeated daily use. In these settings, energy efficient lifts are typically those that combine an efficient machine, smart controls and effective standby management.

Healthcare environments may have additional demands around resilience, bed movement and infection control, so energy efficiency cannot be considered in isolation. The lift still needs to perform safely and consistently under operational pressure.

Goods lifts and industrial applications

Goods lifts can also benefit from energy-conscious design, but operating conditions vary widely. A warehouse lift with heavy loads and repeated use has different priorities from a back-of-house retail goods lift. Energy efficiency remains relevant, but durability, loading characteristics and workflow often drive the specification just as strongly.

Accessibility and evacuation lifts

Accessibility lifts and evacuation lifts must always be specified around function, safety and applicable standards first. Energy performance is still worth considering, particularly in public buildings and larger estates, but it should never compromise the lift’s intended role. The best outcome is a balanced design that achieves compliance, usability and efficient operation together.

Maintenance has a direct impact on efficiency

A well-maintained lift is more likely to operate efficiently than one that is simply kept running until fault conditions force action. Preventive maintenance helps keep door systems, motors, controls and safety components working as intended. It can also identify when a lift is consuming more power because equipment is deteriorating.

This is particularly important in older commercial stock. Buildings across the UK still rely on lift systems installed many years ago, sometimes with controls or components that are no longer well supported. In those situations, maintenance teams may keep the asset operational, but efficiency and reliability can both be slipping.

An engineering-led maintenance review can highlight whether simple adjustments, component replacement or a broader modernisation plan would produce better long-term value. Swallow Lifts often sees this on sites where estates teams are balancing service continuity with rising running costs and ageing equipment.

Questions to ask before specifying energy efficient lifts

A good specification starts with building use rather than a brochure feature list. How many people use the lift, and when? Is traffic steady or highly peaked? Does the lift need to carry goods, beds, trolleys or large groups? How long is it likely to sit idle between calls?

It is also worth asking what the building is trying to achieve beyond lower electricity use. For some clients, the priority is reducing lifecycle cost. For others, it is supporting net zero planning, improving reliability, reducing plant room requirements or upgrading the tenant experience during refurbishment.

That wider view helps avoid false economies. The most energy efficient option on paper is not always the best commercial choice if it complicates maintenance, does not suit the duty cycle or creates unnecessary disruption during installation.

Why this matters now

Energy costs, carbon reporting and ageing building infrastructure are pushing lift performance higher up the agenda. At the same time, commercial occupiers expect reliable, accessible and well-presented vertical transportation. That combination means lift efficiency is no longer just a technical preference. It is part of how a building performs operationally and how it is judged by occupiers, visitors and stakeholders.

The most effective projects tend to be the ones that treat lift energy use as part of a broader asset strategy. Whether the answer is a new traction lift, a hydraulic lift replacement, a controller upgrade or a wider modernisation, the strongest results come from matching engineering decisions to real building needs.

If you are reviewing lift performance, the sensible next step is not to chase a single feature or headline claim. It is to understand how the current system works, where energy is being used, and which improvements will make a measurable difference over time. That is where efficient lift design stops being a specification trend and starts becoming a sound operational decision.