Air conditioning can be one of the most demanding building services for facilities teams to manage. Systems must maintain comfortable conditions across spaces with different occupancy patterns, heat loads and operating hours, while controlling energy consumption, maintenance costs and the risk of equipment failure.
Rising cooling costs do not always mean that an entire air conditioning system needs replacing. Poorly configured controls, inaccurate sensors, simultaneous heating and cooling, restricted airflow and unnecessary out-of-hours operation can all undermine performance.
A structured improvement programme should therefore begin with how the existing system is being operated and maintained. Controls, sensors, zoning, servicing and data analysis may deliver meaningful improvements before significant capital investment is required.
This guide explains how facilities managers can improve comfort and reduce building cooling costs through more energy efficient air conditioning, while identifying when ageing equipment should be refurbished or replaced.
At a Glance: Energy Efficient Air Conditioning Checklist
| Area | Questions for Facilities Teams |
|---|---|
| Operating hours | Is cooling running only when and where it is needed? |
| Temperature settings | Are setpoints appropriate and consistent? |
| Controls | Does the system respond to occupancy and changing demand? |
| Sensors | Are temperature, occupancy and air-quality sensors accurate? |
| Zoning | Can separate areas be controlled independently? |
| Maintenance | Are filters, coils, fans and refrigerant systems being maintained? |
| Building fabric | Are solar gain, insulation and air leakage increasing demand? |
| Data | Can energy use and equipment performance be monitored? |
| Occupant comfort | Are complaints concentrated in particular rooms or periods? |
| Replacement | Is ageing equipment becoming inefficient or unreliable? |
| Compliance | Are required inspections and records up to date? |
| Procurement | Are suppliers being assessed on lifecycle value as well as price? |
What Is Energy Efficient Air Conditioning?
Energy efficient air conditioning provides the cooling, heating and ventilation a building requires while minimising unnecessary energy use. It is not defined by a single product or efficiency rating. Effective performance depends on how well the equipment, controls, sensors, building fabric and maintenance regime work together.
An efficient system should:
- Match its output to current demand
- Avoid cooling empty or lightly occupied spaces
- Maintain appropriate temperature setpoints
- Allow different areas to be controlled independently
- Detect faults and performance deterioration
- Operate efficiently at partial load
- Prevent simultaneous heating and cooling
- Provide facilities teams with usable performance data
- Maintain comfort without excessive energy consumption
Modern equipment can support these aims through variable-speed compressors, heat recovery, intelligent controls and improved seasonal efficiency. However, even high-efficiency equipment will waste energy if it is incorrectly commissioned or poorly controlled.
Likewise, older systems may still offer improvement potential if controls, scheduling and maintenance are addressed.
Identify Why Cooling Costs Are Increasing
Before implementing improvements, facilities teams need to establish why air conditioning energy use is rising. Possible causes include:
- Longer building operating hours
- Increased occupancy
- Changes to room layouts
- Additional IT equipment
- Higher external temperatures
- Poorly configured time schedules
- Sensors in unsuitable locations
- Occupants overriding controls
- Blocked filters or dirty coils
- Refrigerant loss
- Ageing compressors or fans
- Simultaneous heating and cooling
- Poor zoning
- Inadequate insulation or solar shading
- Increased ventilation requirements
- Equipment operating outside its intended conditions
Energy bills alone may not reveal which issue is responsible. Facilities teams should review consumption alongside building occupancy, weather conditions, comfort complaints, equipment runtime and maintenance records.
The objective is to distinguish between genuine increases in cooling demand and avoidable energy waste.
Reduce Air Conditioning Costs by Improving Controls
Controls should be one of the first areas investigated when attempting to reduce air conditioning costs. Building controls determine when equipment operates, which spaces receive cooling and how the system responds as conditions change. Updated control systems can allow operators to set schedules, monitor conditions, detect faults and identify opportunities for further improvement.
Review operating schedules
Cooling systems are often left operating beyond the times they are genuinely needed. Facilities teams should compare system schedules with:
- Building opening hours
- Cleaning and security shifts
- Flexible working patterns
- Weekend use
- Meeting-room bookings
- Tenant occupation
- Seasonal demand
Starting the system too early or allowing it to run long after occupants have left can generate considerable waste across a large estate.
Facilities teams should also check whether temporary changes made for evening or weekend events have subsequently become permanent.
Prevent unnecessary out-of-hours operation
Staff should have a controlled method of requesting cooling outside normal hours rather than relying on unrestricted local overrides. Options include:
- Timed override buttons
- Approved booking processes
- Automatic shutdown after a fixed period
- Occupancy-linked activation
- Tenant-level monitoring and charging
This allows essential cooling to be provided without running entire floors or buildings.
Optimise temperature setpoints
Small differences in temperature settings can have a significant effect when applied across multiple spaces and long operating periods.
Facilities teams should establish an appropriate setpoint policy and ensure heating and cooling systems are not working against one another. Areas to review include:
- Cooling and heating setpoints
- Dead bands between heating and cooling
- Local thermostat limits
- Seasonal settings
- Night setback strategies
- Equipment protection settings
Repeatedly lowering thermostat settings will not necessarily cool a room more quickly. It may simply cause the system to operate for longer.
Use demand-based control
Cooling output should respond to actual demand rather than operating continuously at maximum capacity. Depending on the building and system, demand may be assessed using:
- Temperature
- Occupancy
- Carbon dioxide levels
- Humidity
- Room bookings
- Equipment loads
- Time schedules
- Weather conditions
HVAC building controls are specifically intended to regulate the heating, cooling and ventilation applied to individual rooms or defined zones in an energy-efficient manner.
Improve HVAC Energy Efficiency with Accurate Sensors
Controls can only make good decisions when the data they receive is reliable. A temperature sensor that is incorrectly located, poorly calibrated or affected by nearby equipment may cause unnecessary cooling while other parts of the space remain uncomfortable. Facilities teams should inspect:
- Temperature sensors
- Occupancy sensors
- Humidity sensors
- Carbon dioxide sensors
- Pressure sensors
- Flow sensors
- Outdoor air sensors
- Energy meters
Check sensor positioning
Sensors should not normally be positioned where readings are distorted by:
- Direct sunlight
- Supply-air vents
- Open windows
- Doorways
- Radiators
- Kitchens
- Printers
- Computer equipment
- Other local heat sources
A sensor may be technically operational but still provide data that does not represent conditions across the occupied space.
Calibrate sensors regularly
Over time, sensors can drift away from accurate readings. Facilities teams should incorporate calibration checks into planned maintenance and investigate unexpected differences between system data and portable measurements.
Where several occupants report that a room feels significantly warmer or cooler than the displayed temperature, the sensor should be checked before control settings are repeatedly changed.
Introduce occupancy sensing
Occupancy sensors can help ensure cooling is reduced or switched off when rooms are unused. This can be particularly useful in:
- Meeting rooms
- Training rooms
- Conference facilities
- Breakout spaces
- Toilets and changing areas
- Intermittently occupied offices
- Shared facilities
Room-booking data may also be integrated with building controls so spaces are conditioned in preparation for confirmed use rather than throughout the working day.
Use Zoning to Match Cooling to Building Demand
Commercial buildings rarely experience uniform cooling demand. A south-facing meeting room may overheat while an internal office remains comfortable. A server room may require continuous cooling, while neighbouring workspace is only occupied during office hours. Zoning allows different areas to be operated according to their own:
- Occupancy
- Orientation
- Heat load
- Operating schedule
- Comfort requirements
- Equipment density
Review existing zones
Facilities teams should assess whether current control zones still reflect how the building is used. Changes that can make existing zoning ineffective include:
- Reconfigured office layouts
- Additional meeting spaces
- Subdivided floors
- New tenants
- Increased hybrid working
- Changes in department locations
- New technology or equipment
- Converted storage areas
A zone that once contained similar spaces may now include rooms with completely different operating requirements.
Avoid cooling entire floors unnecessarily
Where controls allow, cooling should be reduced in unoccupied wings, floors or rooms. However, facilities teams must consider whether reducing operation in one zone will affect:
- Air pressure
- Ventilation rates
- Humidity
- Adjacent areas
- Building fabric
- Specialist equipment
Changes should therefore be reviewed with a competent HVAC or controls specialist.
Consider variable refrigerant flow systems
Variable refrigerant flow systems can divide a building into separately controlled zones and adjust heating or cooling according to demand. Some systems can also redistribute heat between areas requiring cooling and those requiring heating.
This flexibility can be valuable in hotels, offices and mixed-use buildings with varying loads, although design quality, refrigerant strategy, controls and maintenance requirements must all be assessed.
Maintain Equipment for Efficient Operation
Poor maintenance can gradually increase energy use while reducing cooling performance and reliability.
Facilities teams should ensure the planned preventative maintenance programme covers the complete cooling system rather than focusing only on obvious failures.
Clean or replace filters
Blocked filters restrict airflow, forcing fans and cooling equipment to work harder. Filter maintenance should take account of:
- Manufacturer recommendations
- Building use
- Local air quality
- Occupancy
- Construction or refurbishment work
- Seasonal conditions
Filters should not simply be replaced according to a fixed schedule if operating conditions indicate they require more frequent attention.
Inspect coils and heat exchangers
Dirty evaporator and condenser coils reduce heat transfer and can increase operating pressure and energy consumption. Maintenance should include appropriate inspection and cleaning of:
- Indoor coils
- Outdoor coils
- Condensers
- Heat exchangers
- Air-handling units
- Drainage systems
External equipment may require particular attention where it is exposed to pollen, leaves, grease, dust or urban pollution.
Check refrigerant performance
Refrigerant leakage or incorrect charge can reduce system efficiency and cooling capacity. Qualified engineers should investigate:
- Falling cooling performance
- Unusually long runtimes
- Ice formation
- Pressure irregularities
- Repeated low-refrigerant alarms
- Unexplained increases in energy use
Facilities teams should also maintain appropriate refrigerant and compliance records.
Inspect fans, belts and motors
Worn belts, damaged bearings and inefficient motors may increase consumption and reduce airflow. Planned maintenance should review:
- Belt tension and condition
- Fan cleanliness
- Motor performance
- Bearing condition
- Vibration
- Variable-speed drives
- Dampers
- Airflow rates
Keep outdoor units clear
Outdoor condensers need sufficient airflow to reject heat effectively. The surrounding area should be checked for:
- Vegetation
- Waste
- Stored materials
- Temporary structures
- Blocked grilles
- Recirculating hot discharge air
- Damage or corrosion
Use Data to Find Hidden HVAC Energy Waste
Building management systems, submetering and HVAC analytics can help facilities teams identify problems that are not immediately visible. Useful information may include:
- Equipment runtimes
- Zone temperatures
- Setpoint changes
- Energy consumption
- Valve and damper positions
- Compressor cycling
- Simultaneous heating and cooling
- Sensor faults
- Performance outside occupied hours
- Recurring alarms
- Unresolved maintenance issues
Automated fault detection and diagnostics platforms can analyse building-system data continuously, identify potential energy waste and help teams prioritise maintenance activity.
Establish an energy baseline
Facilities teams should establish the current performance of the system before making changes. The baseline might include:
- Annual and monthly electricity consumption
- Consumption per square metre
- Cooling-degree-day adjustment
- Peak demand
- Out-of-hours energy use
- Equipment runtime
- Maintenance expenditure
- Comfort complaints
- Reactive callouts
This makes it possible to assess whether an intervention has delivered the expected improvement.
Investigate unusual patterns
Common warning signs include:
- Cooling running overnight
- Energy use remaining high during low occupancy
- Repeated short cycling
- One zone consistently demanding maximum cooling
- Heating and cooling operating together
- Persistent differences between similar floors
- Sudden changes following maintenance or fit-out work
- Manual overrides that remain active
Data should lead to investigation rather than being treated as an end in itself. Facilities teams need clear ownership for reviewing alerts and converting findings into corrective action.
Improve the Building Before Increasing Cooling Capacity
Comfort problems are not always caused by insufficient air conditioning. Before installing additional equipment, facilities teams should investigate whether the cooling load can be reduced through changes to the building or its operation. Possible measures include:
- Solar-control glazing or film
- External shading
- Internal blinds
- Roof or wall insulation
- Improved airtightness
- Reduced lighting heat gains
- More efficient IT equipment
- Relocation of heat-generating equipment
- Night-time ventilation
- Better use of natural ventilation
- Reduced infiltration from frequently opened doors
A building that admits excessive heat will continue to demand more cooling regardless of equipment efficiency.
Manage solar gain
Rooms with extensive glazing can experience significantly different loads according to orientation and time of day. Automated shading, solar-control treatments or revised zoning may reduce demand while improving comfort near windows.
Review ventilation and cooling together
Ventilation is essential for indoor air quality, but poorly controlled outdoor-air volumes may increase the amount of air that must be cooled or dehumidified.
Facilities teams should not reduce ventilation below required levels merely to save energy. Instead, they should examine:
- Demand-controlled ventilation
- Heat or energy recovery
- Fan efficiency
- Air leakage
- Duct condition
- Control integration
- Actual occupancy patterns
Energy-recovery ventilation and demand-controlled ventilation are among the retrofit approaches that may improve both energy and indoor-environmental performance.
Balance Comfort with Energy Performance
Energy efficient air conditioning should not come at the expense of a comfortable and productive workplace. Excessive restriction can lead to:
- Occupant complaints
- Unauthorised heaters or fans
- Thermostat tampering
- Open windows while cooling is operating
- Reduced concentration
- Increased maintenance requests
- Poor perceptions of the workplace
Facilities teams should analyse complaints rather than responding to each one by lowering setpoints across an entire building. Useful complaint data includes:
- Location
- Time
- Weather conditions
- Occupancy
- Type of discomfort
- Duration
- Nearby equipment
- Relevant system readings
Patterns may reveal a faulty sensor, poor air distribution, local heat gain or an unsuitable control zone.
Plan Lifecycle Replacement Before Systems Fail
Maintenance and optimisation cannot make every ageing system efficient indefinitely. Facilities teams should develop a lifecycle replacement programme rather than waiting for a critical breakdown. Indicators that replacement should be considered include:
- Rising maintenance costs
- Frequent refrigerant leaks
- Obsolete refrigerants
- Poor spare-parts availability
- Repeated compressor failures
- Inadequate controls
- Declining seasonal efficiency
- Persistent comfort complaints
- Insufficient capacity
- Excessive noise
- Incompatibility with wider building-management systems
- Equipment approaching or exceeding its anticipated service life
Compare whole-life value
Replacement decisions should consider more than purchase price. The financial assessment should include:
- Equipment cost
- Installation
- Controls integration
- Enabling works
- Energy consumption
- Maintenance
- Refrigerant management
- Expected service life
- Reliability
- Warranty
- Disposal
- Business disruption
- Carbon impact
Modern air conditioning equipment may offer substantially better efficiency than older systems, but the actual benefit depends on correct design, commissioning and operation.
Consider phased replacement
Large estates may be unable to replace all equipment at once. A phased programme can prioritise systems according to:
- Condition
- Energy use
- Operational criticality
- Maintenance cost
- Refrigerant risk
- Comfort impact
- Planned refurbishment
- Lease events
- Available budget
Facilities teams should ensure that phased replacements remain compatible with the wider controls and long-term building-services strategy.
Avoid like-for-like replacement without review
Replacing failed equipment with the same capacity and configuration may reproduce existing inefficiencies. Before replacement, reconsider:
- Current occupancy
- Actual peak demand
- Improvements to building fabric
- Changes in heat loads
- Zoning
- Ventilation requirements
- Heating strategy
- Future refurbishment
- Climate resilience
Equipment should be sized for current and anticipated needs rather than historic assumptions alone.
Commission New and Refurbished Systems Properly
Even well-designed equipment can perform poorly if it is not commissioned correctly. Commissioning should confirm that:
- Equipment is installed as designed
- Air and water flows are balanced
- Sensors are correctly located and calibrated
- Controls sequences operate as intended
- Time schedules are correct
- Setpoints and dead bands are agreed
- Zones respond independently
- Alarms are active
- Trend data is available
- Heating and cooling do not conflict
- Facilities teams understand the system
- Manuals and asset information are complete
Seasonal commissioning may also be required to verify operation under different weather and load conditions.
Meet Air Conditioning Inspection Requirements
Facilities managers should understand their responsibilities under the relevant energy-performance regulations.
In England and Wales, air conditioning systems with an effective rated output of more than 12kW fall within the inspection requirements, with inspections required at intervals not exceeding five years.
An inspection can provide information about:
- Current equipment efficiency
- Control condition
- Identified faults
- Improvement opportunities
- Ways to reduce unnecessary use
Government guidance notes that recommendations from an inspection may help organisations save money, even where implementing them is not mandatory.
Facilities teams operating across the UK should verify the requirements applicable to each nation and property.
What Should Facilities Teams Compare?
When selecting an HVAC, air conditioning or energy-efficiency supplier, facilities teams should compare the proposed approach as well as the quoted price.
Technical capability
Can the supplier support the particular types of equipment installed across the estate?
This may include:
- Split systems
- VRF and VRV systems
- Chillers
- Fan-coil units
- Air-handling units
- Heat pumps
- Building controls
- Ventilation
- Heat-recovery systems
Energy expertise
Will the supplier assess performance and energy use, or only respond to faults?
Look for the ability to:
- Analyse system data
- Review controls
- Identify energy waste
- Recommend optimisation measures
- Calculate potential savings
- Verify results after implementation
Maintenance strategy
Does the proposal provide a genuinely planned and risk-based service, or simply a fixed list of visits?
Facilities teams should understand:
- What is inspected
- What is cleaned
- Which performance measurements are taken
- How faults are prioritised
- Whether condition-based maintenance is available
- How remedial work is reported
Controls and analytics
Can the supplier work with the existing building-management system and provide useful reporting?
Clarify:
- System compatibility
- Data access
- Alarm management
- Dashboards
- Remote monitoring
- Fault diagnostics
- Cybersecurity
- Ownership of data
Geographic coverage
For multi-site estates, determine whether the supplier can provide consistent service levels, reporting and technical standards across every location.
Compliance
Ask how the supplier supports:
- F-gas responsibilities
- Energy inspections
- Refrigerant records
- Asset registers
- Risk assessments
- Equipment certification
- Indoor air quality
- Ventilation hygiene
Lifecycle planning
Can the supplier help distinguish between systems that should be maintained, refurbished, optimised or replaced?
A strong supplier should support longer-term capital planning rather than relying exclusively on reactive replacement.
Questions to Ask HVAC and Energy Efficiency Suppliers
Facilities teams may wish to ask:
- How will you assess the current performance of our cooling systems?
- Can you identify unnecessary out-of-hours operation?
- How will you test the accuracy of sensors and controls?
- Can you investigate simultaneous heating and cooling?
- How will you identify poorly performing zones?
- Do you provide condition-based or predictive maintenance?
- Can you integrate with our existing building-management system?
- What energy and performance reports will we receive?
- How will you verify that savings have been achieved?
- Which systems should be retained, upgraded or replaced?
- Can you support phased lifecycle planning?
- How do you manage refrigerant compliance and records?
- What emergency support is available?
- How will service consistency be maintained across multiple sites?
- What training will be provided to our facilities team?
Benefits of Energy Efficient Air Conditioning
A structured cooling-efficiency programme can deliver benefits beyond reduced electricity consumption.
Lower operating costs
Better scheduling, controls, maintenance and equipment performance can reduce unnecessary runtime and avoidable demand.
Improved occupant comfort
Accurate sensors and effective zoning can provide more consistent conditions across different areas.
Greater equipment reliability
Planned and condition-based maintenance may identify deterioration before it causes a disruptive failure.
Longer asset life
Well-maintained equipment operating within appropriate conditions may remain serviceable for longer.
Reduced reactive maintenance
Improved monitoring can help facilities teams move from repeated emergency response towards planned intervention.
Better capital planning
Performance and condition data can support more informed replacement decisions.
Reduced environmental impact
Lower energy consumption and better refrigerant management can support organisational carbon-reduction objectives.
Stronger compliance
Clear asset records, inspections and maintenance evidence help demonstrate that systems are being managed responsibly.
Future Trends in HVAC Energy Efficiency
Automated fault detection
Analytics platforms will increasingly identify abnormal equipment behaviour, estimate the operational impact and prioritise actions for engineering teams.
Occupancy-responsive buildings
Controls will make greater use of occupancy sensors, access data and room-booking information to condition spaces according to real demand.
Heat-pump-based systems
More buildings are likely to adopt reversible heat-pump systems that can provide both heating and cooling as part of wider electrification strategies.
Lower-impact refrigerants
Equipment strategies will continue to respond to changes in refrigerant availability, regulation and global-warming potential.
Digital twins and predictive modelling
Building and equipment data may be used to test operational changes before they are implemented.
Grid-responsive controls
HVAC systems may increasingly adjust demand according to electricity prices, carbon intensity or grid constraints, provided comfort and operational requirements can be maintained.
Greater emphasis on climate resilience
Facilities teams will need to consider how cooling systems will perform during more frequent and prolonged periods of high temperature.
Frequently Asked Questions
How can facilities teams reduce air conditioning costs?
Begin by reviewing operating schedules, temperature setpoints, sensor accuracy, zoning and maintenance. Data from submeters, controls and analytics can help identify unnecessary runtime and poorly performing equipment.
Does energy efficient air conditioning always require new equipment?
No. Controls optimisation, sensor calibration, servicing and improved zoning may reduce consumption without immediate replacement. Ageing or unreliable systems may nevertheless require lifecycle investment.
How often should commercial air conditioning be serviced?
The appropriate frequency depends on the equipment, operating environment, manufacturer requirements and intensity of use. The service programme should be risk-based and may include more frequent filter, coil or condition checks in demanding environments.
Can occupancy sensors control air conditioning?
Yes. Occupancy information can be used to reduce conditioning in unused spaces, although the control strategy must also consider ventilation, humidity and building-protection requirements.
What is HVAC zoning?
Zoning divides a building into separately controlled areas so heating, cooling and ventilation can respond to the requirements of each space.
When should an air conditioning system be replaced?
Replacement should be considered when efficiency, reliability, refrigerant availability, maintenance costs or control limitations make continued operation poor value. Decisions should be based on whole-life cost rather than equipment age alone.
What is an air conditioning energy inspection?
It is an assessment of the efficiency and condition of qualifying air conditioning systems and their controls, producing recommendations for potential improvement.
Preparing Your Supplier Shortlist
Before approaching HVAC and energy-efficiency suppliers, facilities teams should gather:
- Building locations and floor areas
- Asset registers
- Equipment types and ages
- Refrigerant information
- Maintenance history
- Energy-consumption data
- Building-management system details
- Operating hours
- Occupancy patterns
- Comfort complaints
- Reactive callout records
- Existing inspection reports
- Planned refurbishment projects
- Carbon and energy targets
- Available operational and capital budgets
The brief should explain whether the organisation requires:
- Performance assessment
- Controls optimisation
- Planned maintenance
- Remote monitoring
- Analytics
- Air conditioning installation
- Lifecycle replacement
- Compliance support
- Multi-site service delivery
- A fully integrated technical FM service
Providing consistent information to shortlisted suppliers will make their proposals easier to compare.
Product Guide: HVAC and Energy Efficiency Solution Providers
The following organisations provide HVAC servicing, facilities management, compliance and building engineering solutions. Facilities managers, estates professionals and procurement leaders can also meet many of these suppliers at the Facilities Management Forum, where buyers can discuss projects, compare service offerings and identify potential long-term partners through pre-arranged one-to-one meetings.
Aether Compliance Ltd
Compliance consultancy and building safety specialists supporting organisations with statutory inspections, risk management and regulatory compliance.
Website: https://aethercompliance.co.uk/
BAM UK & Ireland
Integrated facilities management provider delivering building maintenance, engineering services, workplace management and operational support across diverse estates.
Website: https://www.bam.co.uk/capabilities/facilities-management
Clockworks Analytics
Building analytics platform helping organisations optimise HVAC performance, reduce energy consumption and improve building efficiency through continuous commissioning.
Website: www.clockworksanalytics.com
COAT Facilities Group
Facilities management and engineering services supporting planned maintenance, compliance and building operations.
Website: www.coatfacilitiesgroup.com
CoSourced
Managed workplace and facilities services helping organisations improve operational performance and service delivery.
Website: www.cosourced.co.uk
DCC Energy (Certas Energy)
Energy solutions provider supporting commercial organisations with fuel, energy management and sustainability services.
Website: www.certasenergy.co.uk
First Compliance
Compliance management specialists providing inspection, testing and statutory compliance services across commercial estates.
Website: https://www.firstcompliance.com/
Linaker Ltd
Building services engineering and facilities maintenance specialists delivering HVAC maintenance, electrical services and planned preventative maintenance.
Website: www.linaker.com
Mitsubishi Electric
Manufacturer of commercial heating, ventilation, air conditioning and low-carbon heating solutions for commercial buildings.
Website: https://les.mitsubishielectric.co.uk/
Shenton Group
Critical power, energy and facilities engineering specialists providing maintenance, monitoring and emergency support services.
Website: www.shentongroup.co.uk
Thermatic Technical FM
Technical facilities management specialists delivering HVAC, mechanical and electrical maintenance, compliance and engineering services.
Website: https://thermatictechnical.co.uk/
Meet HVAC and Energy Efficiency Suppliers
Improving cooling performance requires facilities teams to look beyond individual air conditioning units. Controls, sensors, zoning, maintenance, building data and lifecycle planning must work together to provide comfortable conditions without unnecessary expenditure.
The Facilities Management Forum brings senior FM professionals together with HVAC, building-services, controls, analytics and energy-efficiency suppliers through pre-arranged one-to-one meetings.
Delegates can discuss current cooling challenges, compare technical approaches and identify suppliers capable of supporting both immediate performance improvements and long-term estate strategies.
Visit the Facilities Management Forum website to find out more about attending and meeting HVAC and energy-efficiency suppliers.
Photo by Kevin Woblick on Unsplash
