How smart building trends will shape AHU requirements by 2030

 Smart buildings are no longer defined by isolated automation features. By 2030, they are expected to operate as integrated, data-driven environments where energy efficiency, occupant wellbeing, and operational intelligence are tightly connected. At the center of this shift is the AHU (Air Handling Unit), which is evolving from a mechanical workhorse into an intelligent system component.

As building owners and consultants plan for long-term performance, AHU requirements are being reshaped by how buildings are designed, monitored, and operated.

From static systems to adaptive performance

Traditional AHUs were designed to operate at fixed parameters, with limited responsiveness to real-time conditions. In contrast, smart buildings demand systems that adapt continuously based on occupancy, indoor air quality, and external climate conditions.

Future-ready AHUs are expected to respond dynamically to sensor inputs, adjusting airflow rates, temperature control, and filtration levels without manual intervention. This shift reduces energy waste while maintaining consistent indoor conditions across diverse building zones.

Data integration and predictive operation

One of the most significant changes shaping AHU design is integration with building management systems (BMS) and analytics platforms. By 2030, AHUs are expected to generate and respond to operational data rather than simply execute preset commands.

Advanced air handling unit designs increasingly support predictive maintenance by monitoring parameters such as pressure drop, fan performance, and filter condition. Instead of reacting to failures, facility teams can address issues before they cause downtime or efficiency losses.

Indoor air quality as a performance metric

Indoor air quality is moving from a compliance requirement to a measurable performance indicator. Smart buildings prioritize IAQ not only for occupant comfort but also for productivity, health, and regulatory alignment.

AHUs of the future are expected to support higher filtration standards, better humidity control, and more precise airflow distribution. These requirements influence casing design, sealing performance, and component accessibility, ensuring systems can maintain IAQ targets over their full operating life.

Energy efficiency under greater scrutiny

Energy performance targets are tightening across the region, driven by sustainability frameworks and long-term operating cost considerations. AHUs play a major role in building energy consumption, particularly in large commercial and mixed-use developments.

Smart AHU systems are increasingly designed to work efficiently at part load rather than at peak capacity. Variable speed drives, improved heat recovery integration, and reduced air leakage are becoming baseline expectations rather than optional upgrades.

Design flexibility for mixed-use buildings

By 2030, more developments are expected to combine offices, residential units, hospitality, and retail within the same structure. These mixed-use environments place complex demands on HVAC systems.

AHUs must support zoning strategies that allow different areas to operate independently while remaining part of a coordinated system. This requires greater flexibility in airflow control, pressure management, and system configuration.

The shift toward lifecycle-oriented AHU design

Smart building trends are pushing stakeholders to evaluate AHUs based on lifecycle performance rather than initial cost. Ease of maintenance, durability of materials, and long-term efficiency are becoming decisive factors during specification.

AHUs that are designed for easy inspection, cleaning, and component replacement align better with smart building objectives, reducing the total cost of ownership over time.

Preparing for 2030 AHU expectations

As buildings become smarter, AHUs must evolve accordingly. The focus is shifting toward intelligent control, data integration, and sustained performance under real operating conditions.

For developers and consultants, understanding how smart building trends influence air handling unit requirements is essential to delivering systems that remain relevant, efficient, and compliant well beyond initial handover.

The role of building automation systems (BAS) in maximizing AHU efficiency

 Air Handling Units are at the heart of most commercial HVAC systems, yet they are also one of the biggest sources of hidden energy waste when not operated correctly. In many buildings, AHUs are mechanically sound but digitally underutilized, running longer than needed, supplying more air than required, or operating at fixed setpoints that no longer reflect real occupancy or load conditions. This is where Building Automation Systems (BAS) play a critical role.

When properly integrated, BAS transforms an air handling unit from static mechanical equipment into a responsive, data-driven system that adapt continuously to building demand. The result is improved thermal comfort, lower energy consumption, and extended equipment life.

Why AHU efficiency depends on control, not just design

Most modern AHUs are designed with high-efficiency fans, optimized coils, and energy-recovery options. However, efficiency on paper does not guarantee efficiency in operation. Without intelligent control, even the best AHU design can waste energy through:

• Constant volume operation during partial loads
• Fixed supply air temperatures across varying conditions
• Simultaneous heating and cooling
• Poor coordination with VAV boxes or terminal units

BAS addresses these inefficiencies by dynamically adjusting how the AHU operates, based on real-time data rather than static assumptions.

Key BAS functions that improve AHU performance

A well-configured BAS continuously monitors temperature, humidity, airflow, pressure, and occupancy signals. Using this data, it optimizes AHU operation in several important ways.

One of the most impactful is the supply air temperature reset. Instead of maintaining a constant low temperature, the BAS adjusts supply air temperature based on actual zone demand. This reduces unnecessary cooling and significantly lowers chiller and reheat energy.

Another major contribution is fan speed optimization. Variable frequency drives (VFDs) controlled through BAS allow fan speed to modulate according to system pressure requirements. Since fan energy increases exponentially with speed, even small reductions result in substantial energy savings.

BAS also enables demand-controlled ventilation, where fresh air intake is adjusted using CO₂ sensors or occupancy data. This ensures indoor air quality is maintained without over-ventilating empty or low-occupancy spaces.

Improved coordination between AHUs and the wider HVAC system

Air handling units do not operate in isolation. Their efficiency depends on how well they are coordinated with chillers, pumps, terminal units, and exhaust systems. BAS acts as the central intelligence layer that synchronizes these components.

For example, when zone demand drops, the BAS can reduce airflow, raise chilled water temperatures, and lower fan speeds simultaneously, avoiding the inefficiency of one system compensating for another. This system-level optimization is where many buildings achieve their largest operational savings.

Fault detection and predictive maintenance

Another often overlooked benefit of BAS is its role in fault detection. Gradual performance issues, such as clogged filters, stuck dampers, sensor drift, or coil fouling, often go unnoticed until comfort complaints arise.

With BAS analytics, deviations from expected AHU performance can be flagged early. This allows maintenance teams to intervene before efficiency drops or equipment stress leads to failure. Over time, this predictive approach reduces unplanned downtime and extends the service life of the air handling unit.

Why BAS matters more in large and complex buildings

In hospitals, airports, malls, and high-rise commercial buildings, AHUs serve multiple zones with varying usage patterns. Manual control or basic timers cannot handle this complexity effectively. BAS provides the adaptability required to manage fluctuating loads while maintaining compliance with energy and indoor air quality standards.

For manufacturers and system integrators, designing AHUs that are fully compatible with modern BAS platforms is no longer optional; it is essential for delivering real-world efficiency.

Maximizing AHU efficiency is no longer about hardware alone. The real performance gains come from intelligent control. Building Automation Systems unlock the full potential of air handling unit by aligning operation with actual demand, improving coordination across HVAC systems, and enabling proactive maintenance. For buildings aiming to reduce energy costs without sacrificing comfort, building automation systems is a necessity.

Smart building integration: How AHUs connect with BMS for UAE facility efficiency

 Facility owners in the UAE are increasingly adopting Building Management Systems (BMS) to improve energy efficiency and operational oversight. These centralized platforms provide real-time monitoring and control of HVAC, lighting, and safety systems, ensuring buildings perform at their design potential. The effectiveness of a BMS, however, depends on the data and functionality delivered by connected equipment such as the air handling unit.

How AHUs interface with BMS platforms

Modern AHU designs are equipped with sensors, variable frequency drives, and digital controllers that communicate with BMS platforms. Parameters such as airflow, temperature, humidity, and filter status are transmitted continuously, giving facility managers full visibility of system performance. This data-driven approach allows early detection of issues like coil fouling, pressure drops, or fan inefficiencies, reducing unplanned downtime and maintenance costs.

Optimizing energy performance

Integration enables dynamic control strategies that balance comfort and efficiency. For example, BMS platforms can adjust fan speeds in response to occupancy levels, optimize cooling setpoints based on outdoor temperature, and schedule equipment to match building usage.

When applied to an air handling unit, these strategies cut energy consumption without sacrificing indoor air quality. In high-demand climates like the UAE, the savings can be substantial, particularly in large commercial or mixed-use facilities.

Supporting indoor air quality standards

Air quality is a growing concern in the region, and regulatory standards demand close monitoring. By integrating AHUs with a BMS, operators can track humidity levels, filter performance, and ventilation rates in real time. Alarms can be configured to alert teams when CO₂ levels rise or when filters need replacement. This proactive approach not only ensures compliance but also improves occupant comfort and well-being.

Predictive maintenance and lifecycle benefits

Another advantage of integration is predictive maintenance. Continuous monitoring of component performance, such as fan vibration or motor current, helps identify early warning signs of wear. Maintenance teams can plan interventions before failures occur, extending the life of expensive equipment and reducing costly emergency repairs. AHUs that share this data with BMS platforms transform maintenance from a reactive task into a strategic asset.

Driving long-term value for UAE facilities

Smart building integration is central to achieving sustainable, efficient operations. By connecting every AHU to the BMS, facility owners gain greater control, lower operating costs, and improved compliance with environmental standards. For UAE projects focused on performance and sustainability, selecting the right air handling unit and ensuring seamless integration with building management platforms is key to long-term value.

Understanding the role of air dampers in AHU airflow control

 Air Handling Units (AHUs) are the lungs of a building’s HVAC system, responsible for circulating, filtering, and conditioning air throughout commercial and industrial spaces. But what often goes unnoticed is a small yet vital component inside every AHU: the air damper.

Air dampers play a key role in airflow control, regulating the volume and direction of air that passes through the unit. Whether you're designing a new HVAC system or upgrading an existing one, understanding how dampers function can significantly improve efficiency and indoor comfort.

If you're sourcing systems from a leading air handling unit manufacturer, it's essential to know how damper design contributes to performance.

What are air dampers in AHU?

Air dampers are mechanical devices that adjust the flow of air within the AHU. They consist of blades or louvers that can open, close, or modulate to control airflow levels. Positioned strategically throughout the AHU system, dampers help:

• Maintain balanced air distribution across zones
• Regulate temperature and humidity
• Prevent energy waste during part-load conditions

In large facilities, dampers work in coordination with building management systems (BMS) to ensure air delivery matches real-time demand.

Types of dampers commonly used in AHUs

Depending on the system design, AHUs may be equipped with different damper types, including:

• Volume control dampers: Adjust airflow across supply and return ducts
  
• Mixing dampers: Blend outdoor and return air streams for optimal indoor air quality
  
• Backdraft dampers: Prevent reverse airflow when systems shut down
  
• Fire/smoke dampers: Automatically shut to contain fire or smoke within duct sections

Each plays a role in enhancing safety, energy efficiency, and environmental control, making damper selection a key design decision in any AHU setup.

Why damper performance matters

A poorly functioning damper can lead to airflow imbalances, hot or cold spots, pressure issues, or even higher energy bills. In contrast, a well-engineered damper system:

• Responds quickly to load changes
• Improves temperature control across zones
• Reduces strain on fans and coils
• Supports energy recovery and fresh air integration

These outcomes are especially important in buildings that require precise climate control, such as hospitals, data centers, and commercial towers.

Choosing the right AHU system with integrated airflow control

Modern AHU systems are designed with advanced damper configurations to match building requirements and local climate demands. By sourcing from a reliable air handling unit manufacturer, consultants and contractors can ensure compatibility between components, smooth commissioning, and long-term efficiency.

When integrated properly, dampers enhance the AHU's ability to respond to dynamic occupancy and ventilation loads, a critical factor in today’s energy-conscious and IAQ-focused environments.

Small component, big impact

While often overlooked, air dampers are essential to how effectively an AHU performs. They control the rhythm of airflow, enable better zoning, and directly impact energy savings. Whether you're planning a new HVAC system or retrofitting an existing one, don’t underestimate the role of damper design and quality.

Explore advanced AHU solutions with built-in airflow optimization from leading system designers committed to energy efficiency and occupant comfort.

Why DC-powered HVAC equipment is gaining popularity in off-grid applications.

 In regions where power infrastructure is limited or unstable, off-grid solutions are no longer a luxury — they’re a necessity. From mobile medical units and remote construction sites to military outposts and sustainable housing, the demand for energy-efficient, self-sufficient cooling and ventilation systems is on the rise.

That’s exactly where DC-powered HVAC equipment is making its mark.

Designed to run on direct current from solar panels, batteries, or hybrid power systems, DC HVAC systems are becoming the go-to choice for off-grid and low-energy environments. With rising interest in energy independence, more project owners are turning to trusted HVAC equipment manufacturers that offer efficient, custom-engineered DC options.

What is DC-powered HVAC equipment?

DC (Direct Current) HVAC systems operate using low-voltage power sources — typically 12V, 24V, or 48V. Instead of converting alternating current (AC) from the grid, these units draw power directly from solar panels, batteries, or other DC storage systems.

This streamlined setup eliminates energy loss from AC-to-DC conversion and allows systems to run reliably in places with:

• No permanent power grid

• Limited fuel supply

• Remote or temporary infrastructure

Why it’s gaining ground in off-grid environments

1. Energy efficiency

DC systems are inherently more efficient for solar and battery use, especially when paired with smart controls and variable-speed compressors. With energy losses minimized, every watt counts — a major advantage in isolated applications.

2. Simplicity in design

Fewer components mean less complexity. DC-powered HVAC systems are often more compact, quieter, and easier to maintain, which is ideal for modular buildings, mobile structures, or desert outposts.

3. Reliability where it matters most

When there's no backup grid or generator to fall back on, equipment must be built to last. DC HVAC systems are engineered for minimal wear and long operation hours, even in challenging climates like the Middle East.

4. Cost savings over time

While initial investments in solar and battery infrastructure can be high, the operating costs of DC HVAC systems are drastically lower. Over time, this leads to reduced reliance on diesel or external energy supply, improving both economics and sustainability.

Who’s using DC HVAC today?

DC-powered HVAC equipment is now being used across:

• Mobile healthcare units

• Off-grid construction offices

• Disaster relief shelters

• Remote telecom stations

• Eco-tourism lodges and cabins

• Agricultural cooling rooms

In many of these applications, HVAC isn’t just about comfort — it’s about equipment protection, medicine preservation, and human safety. That’s why choosing reliable systems from experienced HVAC equipment manufacturers is key to long-term success.

A smarter way to cool off the grid

As demand grows for flexible, energy-efficient cooling, DC-powered systems are quickly becoming the preferred choice in off-grid environments. Their low power draw, easy integration with renewable sources, and dependable performance make them ideal for tomorrow’s infrastructure challenges.

Interested in exploring sustainable HVAC solutions tailored for remote or hybrid energy setups? Discover Trosten’s range of high-efficiency HVAC equipment designed to perform in every environment.

Best air quality with Trosten's double skin air handling unit

 Keeping indoor air quality good has become crucial today to create healthy spaces. Trosten's double-skin air handling unit is among the best options in the market. This cutting-edge system is notable for its effectiveness, longevity, and performance.

What is double skin AHU?

A double-skin AHU refers to an air handling unit with two layers of insulation — hence the name “double skin.” This design offers superior thermal insulation and sound attenuation compared to traditional models. Trosten, a leading double-skin AHU manufacturer, has perfected this technology, providing devices that deliver optimal climate control.

These units work by circulating air, removing contaminants, and ensuring desired temperature and humidity levels for indoor spaces. With the increasing need for energy-efficient systems, Trosten's double-skin AHUs provide an outstanding balance between energy savings and air quality management.

Advantages of Trosten's double skin technology

Enhanced insulation

The insulated double-layer panels minimize energy consumption and help maintain desired temperatures with less effort from the cooling or heating systems. This feature is particularly valuable for large commercial and industrial spaces, where energy costs can inflate quickly.

Superior air quality control

Trosten’s units incorporate advanced filtration systems that excel in capturing dust, allergens, and other airborne pollutants. This guarantees a healthier environment for building occupants. The performance of the double-skin AHU is further enhanced by its ability to modularly adjust airflow rates, allowing for customized settings based on specific indoor air quality needs.

Durability and low maintenance

Their double-skin AHUs are built with high-quality materials that ensure longevity. These units are less susceptible to rust and corrosion, resulting in lower maintenance requirements. Their robust construction means fewer repairs, directly translating into cost savings for businesses.

Application versatility

If you need them for commercial offices, hospitals, or industrial settings, these units adapt easily to different requirements. The flexibility in design allows for easy installations in various building types, clearly showcasing the ingenuity of the double-skin AHU manufacturer.

Investing in Trosten's double-skin air handling unit is a smart choice for any organization looking to enhance its indoor air quality. With outstanding insulation properties, superior air filtration, and a commitment to durability, these units represent the future of air management systems.

Selecting Trosten as your double-skin AHU manufacturer means you're investing in quality, efficiency, and a healthier environment for everyone involved. Choose wisely and enjoy the myriad of benefits that come with the right air-handling solutions!

The importance of proper air handling unit sizing

 The essential component of any HVAC system is the air handling unit (AHU) of a building, which provides conditioned air throughout. The dimensions of the AHU should not only accommodate the available space in the plantroom and adhere to building requirements, but also accommodate the filters, heat exchangers, and maintenance and fan access sections.

Correctly sizing this critical component is essential for efficient, effective environmental control. There are a few factors to take into account while determining the AHU's size.

• Match capacity to demand

Oversized or undersized AHUs cause problems. It is too small, and areas won't reach the desired temperatures, frustrating occupants. Oversized wastes energy by short-cycling compressors excessively. Consult reputable air handling unit UAE suppliers to accurately determine a space's heating/cooling demand before selecting nominal unit capacity. 

• Factor runtime needs

AHU sizing also affects runtime. Short, frequent cycles strain components unnecessarily versus steady runtime. Consider internal/external heat loads plus desired runtime when selecting an air handling unit best suited to duty cycle needs rather than just peak capacity alone. Longer cycles ease the strain on parts.

• Ensure adequate airflow

Design supply air volume specifically for the zone's ventilation requirements. Under-airflow risks compromising indoor air quality and thermal comfort. Over-ventilation wastes conditioned air and energy. Careful calculations factoring zone cubic footage and air changes per hour are needed from air handling unit suppliers.

• Consider ductwork design

The unit selected must be appropriately sized for static pressure and friction losses within the duct system laid out for the building. Oversized blowers push more air volume than ducts can handle, straining duct joins prematurely. Design static pressure drops into unit selection.

• Allow operational flexibility

Variable speed fans and compartmentalized coils enable partial load operation down to 10-20% capacity as conditions allow. This saves energy versus cycling large AHUs on and off in part-load situations. Consider future flexibility when selecting air handling units from suppliers in the UAE.

Properly sizing AHUs involves thorough heat/ventilation load analysis and factoring installation variables. The benefits are optimized comfort, efficiency, and equipment/component lifespan. Rely on qualified engineers from reliable manufacturers like Trosten Industries whose Eurovent-certified AHUs have the best mechanical performance.

Importance of Hygienic AHU Systems for Hospitals

 Commercial buildings, hospitals, and medical facilities uniquely require the highest air quality standards to protect vulnerable patients. Airborne bacteria pose severe respiratory threats or surgical site infections which threaten positive medical outcomes. Thus, instituting adequate air filtration and hygienic precautions in hospital HVAC systems represents a crucial yet often overlooked intervention. Specifically designing medical center hygienic air handling units minimizes such risks through enhanced contaminant control.

• Airborne threats in hospital environments

Various dangerous microbes like flu viruses, mold spores, or staphylococcus bacteria get easily transmitted through air flows to infect patients or staff. Patients undergoing rehab, cancer treatment, surgery, or organ transplants also suffer compromised immunity that enhances susceptibility to opportunistic germs circulating in the HVAC airstreams. Even drug-resistant “superbug” strains now pose new contamination dangers within hospital ductwork.  

Without sufficient air disinfection measures, these airborne threats contribute to pneumonia, surgical site infections, and longer patient stays – driving up community health costs. 

• Standards for hygienic air handling units

Thankfully, niche hygienic air handling unit manufacturers now specialize in premium HVAC systems with enhanced defenses against cross-contamination. They fabricate unit casing and components from galvanized steel or solid stainless steel for easy cleaning down the line. Stricter performance certifications like ISO 14644-1 assure debris and microbe filtration meeting strict cleanroom classifications too.  

Further hygiene protection involves bonding closed-cell insulation inside walls facing the unit to prevent exposed glass fibers that otherwise capture debris. Specialized anti-microbial drain pan coatings also kill chemical-resistant strains. Regarding maintenance access, specialized hygienic AHU models open fully from double-walled insulated panels, aiding deep sanitization while room-side doors minimize improper duct entry. 

Implementing these contaminated-conscious air handling systems in new hospital wings bolsters patient outcomes through a measurably cleaner supply of air. Several reputable HVAC producers offer custom hygienic AHU configurations meeting targeted operating parameters as well. Upgrading existing hospital air distribution infrastructure likewise helps enhance safety margins.

With global pressures on healthcare systems today, ensuring ventilation hygiene is no longer optional. Hospitals must evaluate their built environments more holistically to combat virulent infectious agents from all vectors. Though representing only one piece of this equation, deploying purpose-built hygienic air handling units goes a long way in mitigating aerosolized risks within procedure rooms, patient wings, and intensive care units. Thereby protecting those most vulnerable becomes an infrastructure priority too through high-performance HVAC. Consult with your trusted specialty manufacturers for optimal medical facility solutions tailored around safety-first air quality.

Architecture and the challenges of indoor air quality

  Air handling units bring in essential components to create an indoor atmosphere that is both comfortable and healthy. The center of the operations is the fan which works effortlessly to push air out of the system. The next are filters which capture dust and pollutants to enable healthy air to circulate in the indoor space. Cooling and heating coils, humidifiers, and dehumidifiers help in fine-tuning the temperature and humidity. Dampers work by controlling the airflow while the mixing chamber circulates indoor and outdoor air.

The indoor air quality solutions that are suggested during building design must take particular users and situations into account. The kind of building in issue greatly influences the decisions and trade-offs made about ventilation systems, as well as the volume and velocity of airflow.

Filter maintenance

Filters play an essential role as routine maintenance can help in avoiding airborne pollutants. Regular inspections and correct time filter replacements ensure smooth working. Moisture is also a challenge for AHUs, as microbial growth can develop within the system which can create mold and bacteria in indoor space. Keeping a regulated humidity level is the key to avoiding microbial growth. 

Ventilation rates

Ventilation is highly important to predict the air exchange, low rates of air exchange can end up in a buildup of pollutants which can disrupt the balance of IAQ. Architects carefully create design ventilation systems to enable a straight flow of air. Not all pollutants can inevitably be caught through the filters. Any gases, odors, and organic compounds can also not be caught through the best working AHU. Experts must be aware of addressing these challenges and apply additional strategies to work against these contaminants.

Duct contamination

In the complex ductwork of an air handling unit, dust and debris can collect which is detrimental to its performance. Routine cleaning and maintenance are the core of keeping AHU working efficiently.

In spaces where there are high amounts of outdoor air pollution, generally filtering the intake air can be the best solution to enable a good IAQ. Any extra air filtration stages or alternative ventilation strategies can be beneficial. It is a challenging task to balance IAQ with energy efficiency. Increasing ventilation rates enable improved IAQ but also leads to higher energy consumption. 

Specialists have looked for further strategies to enhance AHUs for better IAQ and energy efficiency. Architecture and AHUs play an essential role in shaping indoor air quality. Only by understanding the challenges and applying good strategies can architects create buildings with better IAQ. This will allow to better the occupant’s health and well-being. 

What are the types of AHU?

 AHU or Air Handling Unit or Air Handler handles the air to be supplied through the ventilation ducts into the building and return it to the AHU. Basically, to ensure that air is delivered with thermal efficiency. The AHU treats the air by filtering, cooling, and / or heating, humidifying or dehumidifying. Air handling units are important part of HVAC systems, both in residential and commercial areas.

An AHU is a metal box having multiple components, channel racks / chambers and dampers which can have design variation as per requirement. Air Handling Units (AHU) with double skin panel construction are Hygienic.

Trosten is one of the best AHU manufacturer in the UAE and their AHUs are certified by TUV Nord, Germany.

We can classify the AHUs as per their usage.

• Terminal Units are small AHUs for local use. They may have only an air filter, coil and a blower.
• Makeup Air Units are large Air Handling Units that condition the outdoor air 100%. They do not circulate the air again.
• Packaged unit is also known as Rooftop Unit (RTU) is designed for outdoors, like roofs.

Let us look at the components of Double Skin Air Handling Units.

• Blower: One of the most important components of the Double Skin AHU, it helps recycle air in a building. The air inside a blower is properly conditioned.
• Filter: Filters help to remove the dust and other contaminating particles.
• Conditioning elements: They help heat or cool the air, as per the requirement.
• Humidifier: This help maintain the air quality in cold climatic conditions.

Regardless of the kind of AHU, regular maintenance and servicing is an absolute must. This ensures an increase in the durability, functioning and longevity of the Air Handlers.

Trosten manufactures AHU with both direct expansion and chilled water system, after thoroughly understanding the need of the market. The capacity of the Trosten Double Skin AHU varies from 600 CFM to 80,000 CFM, thus making them an ideal choice for big HVAC systems as well.

Trosten has ensured that there is the least chance of microbial growth in its HVAC units installed with its double skin AHU. These AHUs are energy efficient.

Trosten ensures best product quality and customer service.

All about Eurovent certified Air Handling Units

 

Eurovent classification is a new classification specified in the rating standards from 1st January 2016. As per the standards certain critical parameters are taken in to account to determine and efficiency of the air handling units. Eurovent certified air handling units consists of a fan or other accessories to perform the functions like circulating, heating, filtrating, humidifying, heat recovery etc. They are suitable to be used in the duct works. Air handling units are available in different sizes and units of same sizes are grouped under the same designation by using the similar selection procedures.

Air handing units are useful in establishing mechanical, thermal and acoustic performance according to manufacturer’s specifications. Eurovent certified air handling units offer several certified mechanical and performance characteristics like heating capacity, cooling capacity, heat recovery, static pressure, acoustic insulation of casing etc. A unit classified under ‘A’ category as per Eurovent clarification represents at least 28% more efficiency than the units formerly classified under ‘A’ category.

 Trosten Industries supplies certified centralized air conditioning and kitchen ventilation equipment for residential, commercial and industrial applications. They are considered to be among the top Eurovent certified AHU manufacturers in the GCC region. The Company offer services to the customers by offering high ecological returns. They are committed to satisfy their customer needs and preferences.