VENTILATION SYSTEMS
WHAT IS AN IN-LINE DUCT FAN? An in-line duct fan is fan equipment that operates by being integrated onto the air duct line in mechanical ventilation systems and provides air flow. These fans are mounted directly into the duct and operate as part of the system, ensuring that the air flow rate is transported in a controlled manner. In-line duct fans are widely preferred in HVAC applications due to their compact structure, easy installation, and high efficiency. They generally have a galvanized sheet metal body and provide an effective solution in low and medium pressure ventilation systems. HOW DOES AN IN-LINE DUCT FAN WORK? In-line duct fans operate according to the principle of an axial or radial fan driven by an electric motor. As the fan impeller rotates, air is drawn from inside the duct, accelerated, and moved forward under a certain static pressure. During this process, fluid mechanics principles, especially Bernoulli’s equation and the continuity principle, apply. Air flow rate (m³/h), static pressure (Pa), fan efficiency, and motor power (kW) are the main parameters that determine system performance. Since it is mounted inside the duct, minimum loss occurs in the air flow and the system operates more stably. Depending on the need, speed control can be provided by frequency inverters (VFD). WHERE IS AN IN-LINE DUCT FAN USED? In-line duct fans have a wide range of applications, including residences, offices, shopping malls, hotels, restaurants, and industrial facilities. They are especially preferred because they provide ease of installation in narrow spaces and suspended ceilings. They are widely used in WC, bathroom, kitchen, and general exhaust systems. They are also used effectively in fresh air supply systems, local ventilation applications, and small-scale central systems. In-line duct fans stand out as an important component of modern ventilation systems with their low noise level, compact design, and energy efficiency advantages. With correct capacity selection and suitable duct design, system performance can be maximized.
HOW DOES A CENTRIFUGAL EXHAUST FAN WORK? Centrifugal exhaust fans operate according to the radial fan principle driven by an electric motor. When the fan impeller rotates, air is taken from the center of the fan (inlet opening) and is thrown outward under the effect of centrifugal force, gaining velocity. The air moving inside the spiral casing (volute) converts its kinetic energy into static pressure and is delivered to the duct system through the outlet opening. During this process, Bernoulli’s principle and the rules of fluid mechanics apply. System performance is determined by parameters such as air flow rate (m³/h), static pressure (Pa), fan efficiency, and motor power (kW). Fan impellers with different blade types, such as backward-curved and forward-curved, can provide solutions suitable for various applications. WHERE IS A CENTRIFUGAL EXHAUST FAN USED? Centrifugal type exhaust fans have a wide range of applications, including industrial facilities, factories, workshops, restaurant kitchens, paint booths, and dust collection systems. They are used effectively especially in duct systems requiring high pressure, filtered ventilation applications, and long duct lines. They are also widely preferred in smoke extraction systems, boiler rooms, chemical process ventilation, and exhaust systems. Thanks to high performance, durability, and a wide operating range, centrifugal exhaust fans offer a reliable solution in both commercial and industrial ventilation systems. Maximum efficiency and long service life are achieved with correct fan selection and suitable system design. WHAT IS A GALVANIZED AIR DUCT? A galvanized air duct is a duct system used for air transportation in ventilation and air conditioning (HVAC) systems and manufactured from steel sheet whose surface is protected against corrosion with zinc coating. Especially rectangular-section and self-flanged galvanized air ducts are among the most commonly preferred duct types in industrial and commercial projects. Thanks to the galvanized coating, the duct surface gains resistance against external factors, and oxidation and rusting are minimized. This feature ensures that the system is long-lasting and has low maintenance costs. Rectangular galvanized air ducts are preferred because they provide ease of installation in narrow-volume areas and are compatible with architectural structures. Their applicability is high especially inside suspended ceilings, shafts, and limited spaces. Duct dimensions are determined by engineering calculations depending on the air flow rate, velocity, and pressure values in the system. The smooth inner surface of the duct reduces friction losses and increases air flow efficiency. Self-flanged galvanized air ducts stand out with their ease of installation and high sealing performance. In these systems, the need for additional connection elements is reduced thanks to the special flange form integrated into the duct edges. This both shortens installation time and increases system efficiency by minimizing air leakage. These ducts, which have a high airtightness class, contribute positively to operating costs by reducing energy losses. Galvanized air ducts are widely used especially in office buildings, shopping malls, hospitals, factories, and large-volume commercial buildings. With correct project design, appropriate sheet thickness selection, and quality installation practices, galvanized air ducts provide high performance, energy efficiency, and long service life. Therefore, they are considered one of the indispensable components of modern ventilation systems. WHAT IS AN OVAL AIR DUCT? An oval air duct is a special-section air transport element used in ventilation and air conditioning (HVAC) systems, offering the advantages of circular and rectangular duct types together. Thanks to its aerodynamic structure, air flow occurs more regularly and friction losses are minimized. This provides lower pressure loss and higher energy efficiency in the system. The oval form is especially preferred in areas with limited ceiling height, bringing architectural solutions and engineering requirements together. Oval air ducts are generally manufactured from galvanized sheet metal and their surfaces are resistant to corrosion. The smooth inner surface of the duct reduces turbulence formation and optimizes air flow. These ducts provide aerodynamic performance close to circular ducts, while they can be easily applied in narrow spaces like rectangular ducts. This feature provides an important advantage especially in suspended ceiling applications. Airtightness and connection details are of great importance in oval air ducts. Installation is generally carried out using flanged or special slip connection systems. In this way, air leakage is minimized and system performance is improved. In addition, condensation and heat losses can be prevented with insulation materials applied to the outer surface when necessary. Oval air ducts are widely used in many areas such as shopping malls, office buildings, hotels, hospitals, and commercial buildings. They hold an important place in modern HVAC systems due to their aesthetic appearance, high aerodynamic performance, and installation advantages. With correct project design and suitable section selection, system efficiency can be maximized. WHAT IS A SPIRAL SEAM ROUND AIR DUCT? A spiral seam round air duct is a high-strength air transport element used in ventilation and air conditioning (HVAC) systems, produced by helically winding and seaming galvanized sheet metal. This duct type provides low pressure loss and balanced air flow thanks to its aerodynamic structure. The spiral form increases the mechanical strength of the duct while enabling higher durability with less material. Therefore, it is an advantageous solution both economically and in terms of performance. In spiral seam round air ducts, high sealing is provided along the seam joint line. This structure minimizes air leakage and increases system efficiency. Since it has a circular section, air flow occurs more smoothly, and turbulence and friction losses are reduced. This lowers fan energy consumption and ensures that the system operates more efficiently. The smooth inner surface of this duct type reduces particle accumulation and provides an advantage in terms of hygienic use. In addition, thanks to the spiral form, the need for supporting elements is reduced and the installation process is accelerated. Having fewer connection points on long lines provides an important advantage in terms of both airtightness and labor costs. Spiral seam round air ducts have a wide range of applications, including shopping malls, industrial facilities, office buildings, hotels, and hospitals. They are frequently preferred in systems requiring high air flow because they provide low pressure loss and high efficiency. With correct diameter selection and suitable installation techniques, they offer a long-lasting and energy-efficient ventilation solution. WHAT IS A DKP AIR DUCT? A DKP air duct is an air transport element used in ventilation and dust collection systems and manufactured from low-carbon black sheet metal called “deep drawing sheet metal (DKP)”. DKP sheet metal is preferred especially in industrial applications because it has high surface quality, a homogeneous structure, and is suitable for forming. Unlike galvanized ducts, DKP air ducts do not have natural protection against corrosion and therefore are protected with paint, epoxy coating, or special surface treatments according to the intended use. DKP air ducts are used in systems requiring high strength and carrying abrasive or heavy particles. They are especially preferred in dust collection systems, welding fume extraction lines, paint booths, and chemical process ventilation. Thanks to their thick sheet structure, they are resistant to impact, abrasion, and high pressure. This feature provides long-lasting and reliable use. These ducts can generally be manufactured with rectangular or circular sections and are installed with flanged connection systems. Airtightness is an important parameter in these systems, and air leakage is minimized with welded or gasketed joints. In addition, an appropriate coating type should be selected against high temperature and chemical effects that may occur inside the system. DKP air ducts are widely used in heavy industrial facilities, cement factories, metal processing facilities, and all industrial areas with high dust load. In terms of high strength, long service life, and suitability for harsh operating conditions, DKP air ducts have an important place in projects requiring special engineering solutions. WHAT IS A STAINLESS STEEL AIR DUCT? A stainless steel air duct is an air transport element used in ventilation and air conditioning (HVAC) systems, manufactured from corrosion-resistant stainless steel sheet, and required in applications demanding high hygiene and durability. These ducts are generally manufactured from AISI 304 and AISI 316 grade stainless steel. They are especially preferred in environments where humidity and chemical effects are intense and hygiene is critical. Thanks to the surface structure of stainless steel, oxidation, rusting, and bacterial formation are minimized. Stainless steel air ducts offer high mechanical strength and long service life. They can operate without deformation in environments containing high temperature, humidity, and chemical vapors. Therefore, they are widely used in food production facilities, the pharmaceutical industry, hospitals, laboratories, and cleanroom applications. In addition, these systems provide significant advantages in areas with high hygiene standards due to their easily cleanable surface structure. These ducts can generally be manufactured with rectangular or circular sections and are installed with flanged or welded connection techniques. Airtightness and surface smoothness are of great importance in terms of system performance. Welded joints are preferred especially in hygienic applications to prevent particle accumulation and bacterial formation. Although stainless steel air ducts are costly, they are an indispensable solution in special projects thanks to the durability, hygiene, and long service life advantages they provide. System performance is maximized with correct material selection, suitable surface treatments, and professional installation. WHAT IS A POLYURETHANE AIR DUCT? A polyurethane air duct is an air transport element used in ventilation and air conditioning (HVAC) systems, having a high-density polyurethane (PUR/PIR) foam core and a sandwich panel structure generally reinforced with aluminum foil or galvanized coating on both surfaces. These ducts were developed as an alternative to classical sheet metal ducts and are integrated systems that provide both air transport and thermal insulation within a single structure. Thanks to their high thermal insulation coefficient, they minimize energy losses and significantly reduce the risk of condensation. This feature provides a major advantage in terms of energy efficiency, especially in air conditioning systems. Polyurethane air ducts offer ease of installation due to their lightweight structure and place less load on supporting constructions. The smooth inner surface of the duct reduces friction losses and provides more efficient air flow. In addition, thanks to the specially coated inner surface, it offers hygienic use and minimizes bacterial formation. Therefore, it is frequently preferred in food production facilities, hospitals, laboratories, and cleanroom applications. WHAT IS A TEXTILE AIR DUCT? A textile air duct is an air distribution system used in ventilation and air conditioning systems to transport and distribute conditioned air into the environment, manufactured from special technical fabrics. Developed as an alternative to traditional galvanized air ducts, these systems distribute air through micro holes or special air outlet openings on the duct surface. They are especially preferred in applications requiring homogeneous air distribution, low air velocity, and high user comfort. Textile air ducts can be manufactured from polyester-based, antistatic, antibacterial, flame-retardant, and washable fabrics. The air supplied into the duct is distributed into the environment in a controlled manner through specially designed holes or permeable surfaces on the fabric surface. In this way, dead zones, temperature differences, and discomfort caused by air currents are minimized within the environment. Today, textile air ducts are widely used in food production facilities, textile factories, sports halls, swimming pools, cold storage rooms, logistics centers, markets, production facilities, and cleanroom applications. They have gained an important place in modern HVAC projects thanks to their lightweight structure, easy installation features, and aesthetic appearance. OPERATING PRINCIPLE OF TEXTILE AIR DUCTS Textile air ducts distribute the air coming from air handling units, rooftop units, VRF systems, or other ventilation equipment into the environment in a controlled manner. After the air is supplied into the duct, it is delivered to the environment through micro perforations, laser holes, or special air nozzles on the fabric surface. Air distribution in these systems is much more homogeneous. Hot and cold zones that may occur in traditional grille systems are largely eliminated. Especially in high-volume areas, they significantly improve user comfort by increasing air distribution performance. TYPES OF TEXTILE AIR DUCTS MICRO-PERFORATED TEXTILE AIR DUCTS Micro-perforated textile air ducts distribute air into the environment at low velocities and in a homogeneous manner thanks to thousands of small holes on their surfaces. They are especially preferred in food production facilities, cleanrooms, and hygienic areas. They provide high comfort because they create low turbulence. TEXTILE AIR DUCTS WITH NOZZLES Textile air ducts with nozzles are used in applications where long-distance air throw is required at certain points. They offer effective solutions in sports halls, warehouse areas, production facilities, and high-ceiling spaces. Air throw distance and direction can be specially designed according to project requirements. PERMEABLE TEXTILE AIR DUCTS In textile ducts made of permeable fabric, air leaks from the entire duct surface in a controlled manner and spreads into the environment. They are especially used in cold storage rooms, food facilities, and applications where low air velocity is desired. Reducing the risk of condensation is one of their important advantages. MANUFACTURING FEATURES OF TEXTILE AIR DUCTS Textile air ducts are manufactured from special technical fabrics. The fabrics used generally have flame-retardant, antistatic, antibacterial, and UV-resistant properties. In fabric selection, ambient temperature, humidity rate, hygiene requirements, and intended use are taken into consideration. Duct diameters are determined according to criteria such as air flow rate, air velocity, static pressure, and air throw distance. During production, high precision is achieved using CNC cutting technologies. Installation is carried out quickly and easily thanks to special suspension systems. TEXTILE AIR DUCT CALCULATIONS In sizing textile air ducts, air flow rate, air velocity, static pressure, and air distribution characteristics are taken into consideration. Basic air flow calculation: Q=V\times A Where; • Q = Air Flow Rate (m³/s) • V = Air Velocity (m/s) • A = Duct Cross-Sectional Area (m²) In textile air duct designs, parameters such as; • Air throw distance • Terminal air velocity • Ambient temperature • Air change rate (ACH) • Hole diameter and hole density • Static pressure values are also taken into consideration. Especially by using CFD (Computational Fluid Dynamics) analyses, air distribution is simulated and optimum comfort conditions are provided. ADVANTAGES OF TEXTILE AIR DUCTS Textile air ducts offer lighter, more aesthetic, and more hygienic solutions compared to traditional galvanized air ducts. Thanks to their low weight, they reduce the load on supporting structures and accelerate installation processes. The fact that fabric structures can be removed and washed provides a major advantage, especially in areas requiring hygiene. Thanks to homogeneous air distribution, temperature differences in the environment decrease, user comfort increases, and energy efficiency is achieved. In addition, they are preferred in modern HVAC projects due to low investment cost, short installation time, and decorative appearance. USAGE AREAS OF TEXTILE AIR DUCTS Textile air ducts are widely used in textile factories, food production facilities, milk and meat processing facilities, cleanrooms, pharmaceutical production facilities, logistics centers, warehouses, sports halls, swimming pools, shopping malls, markets, and industrial production areas. They are especially preferred in sectors with high hygiene standards due to their washable and antibacterial structures. They offer highly effective solutions in reducing condensation problems in cold storage rooms, providing homogeneous air distribution in sports halls, and increasing employee comfort in production facilities. Today, they have an important place among energy-efficient and modern air distribution systems.
WHAT IS RUBBER FOAM INSULATION? In ventilation systems, rubber foam insulation is an elastomeric insulation material used on air ducts and HVAC equipment to prevent heat losses, prevent condensation formation, and increase energy efficiency. This material generally has a closed-cell structure and provides high insulation performance thanks to its low thermal conductivity coefficient (λ value). Rubber foam insulation prevents the surface temperature from falling below the dew point, especially in ducts carrying cold air, thereby preventing sweating (condensate) formation and protecting both structural elements and system components. Rubber foam insulation materials fully adhere to the duct surface due to their flexible structure and prevent gaps from forming at joint points. This prevents the formation of thermal bridges and increases the overall insulation performance of the system. In addition, since these materials have high water vapor diffusion resistance, they minimize water vapor transmission and prevent long-term performance loss. Fire resistance, low smoke density, and environmentally friendly production features also play an important role in the preference of rubber foam insulation. In ventilation systems, rubber foam insulation is widely used in air handling units, air ducts, fan-coil systems, and cooling lines. Especially today, as energy efficiency regulations gain importance, insulation materials selected with the correct thickness and suitable density significantly reduce operating costs. As a result, rubber foam insulation is a critical engineering solution in ventilation systems that both improves thermal performance and extends system life. Maximum efficiency is obtained and long-lasting system performance is ensured with correct application and quality material selection
These ducts are generally manufactured in panel form and installed on site with special cutting and joining techniques. Air leakage is minimized by ensuring airtightness at connection points. In addition, higher safety can be provided by preferring PIR (polyisocyanurate) panels in terms of fire resistance. Polyurethane air ducts are widely used in shopping malls, office buildings, hotels, and industrial facilities. They hold an important place in modern HVAC systems thanks to their high insulation performance, lightness, easy installation, and energy-saving advantages. With correct project design, operating costs are reduced and system performance is increased.
WHAT IS ROCK WOOL INSULATION? In ventilation systems, rock wool insulation is a high-performance mineral-based insulation material used to provide thermal, acoustic, and fire insulation in air ducts and HVAC equipment. Rock wool is produced by melting volcanic rocks such as basalt and diabase at high temperatures and turning them into fibers. Thanks to this fibrous structure, it provides both a low thermal conductivity coefficient (λ value) and high sound absorption performance. Therefore, rock wool is widely preferred in ventilation systems where both thermal and acoustic performance are important. Rock wool insulation material absorbs sound waves thanks to its open fibrous structure and reduces noise levels. This feature provides a major advantage especially in controlling sounds caused by fans, exhaust fans, and air flow. At the same time, thanks to its high temperature resistance, it is resistant to fire and falls within the A1 class non-combustible material category. With this feature, it can be used safely in critical applications in terms of fire safety. In ventilation ducts, rock wool insulation is generally applied as a covering on the outer surface and mechanical strength is increased by covering it with aluminum foil or galvanized sheet metal. This application both reduces heat losses and controls the risk of condensation. While minimizing energy loss especially in ducts carrying hot air, it prevents sweating that may occur on the outer surface in systems carrying cold air. Rock wool insulation is widely used in shopping malls, hospitals, industrial facilities, hotels, and large-volume commercial buildings. Thanks to its high temperature resistance, sound absorption capacity, and long-lasting structure, it is an indispensable insulation solution in modern ventilation systems. With correct thickness and density selection, both energy efficiency is increased and system performance is raised to the highest level. WHAT IS EMBOSSED CLADDING? Embossed cladding applied to the outer part of ventilation ducts is a protective cladding method used to protect the insulation material on the duct against external factors, increase mechanical strength, and ensure long service life of the system. This cladding is generally made using aluminum embossed sheet or galvanized embossed sheet. The embossed surface form provides higher strength compared to flat sheets and creates extra resistance against impacts and outdoor conditions. This feature provides a major advantage especially for air ducts located outdoors or in mechanical rooms. Embossed cladding application is especially preferred to protect air ducts covered with insulation materials such as rock wool or glass wool. Insulation materials may lose performance over time by being exposed to outdoor effects, moisture, and mechanical impacts. Embossed cladding wraps this insulation layer, providing protection against physical damage and preserving the form of the insulation. At the same time, it acts as a protective barrier against external factors such as UV rays, rain, and dust. In ventilation systems, embossed cladding is applied not only for protection but also to provide an aesthetic appearance. It helps achieve a neat and professional appearance, especially on exposed duct lines. During installation, embossed sheets are wrapped around the duct and fixed using rivets, screws, or seaming methods, and airtightness is ensured. Embossed cladding application is widely used in industrial facilities, shopping malls, hotels, hospitals, and outdoor HVAC applications. This system is an important complementary application that both preserves insulation performance and extends the life of duct systems. Maximum protection and long-term use are ensured with correct material selection and professional installation. GRILLE TYPES Single Deflection Grille: Single deflection grilles are among the basic air distribution elements in HVAC systems and are generally used in low and medium pressure ventilation applications. These grilles have blade structures that can direct air on a single axis and convey air flow in a certain direction. Since they have an aerodynamically simple design, pressure losses occurring in the system are low. Since the throw distance and spread angle of the air jet are limited, correct positioning is required to ensure homogeneous air distribution within the space. They are generally preferred in offices, residences, and small commercial areas. They have a wide range of use thanks to their economic cost and easy installation advantage. Double Deflection Grille: Double deflection grilles allow air flow to be directed both horizontally and vertically thanks to the independent movement of inner and outer blades. This feature provides three-dimensional control of the air jet and helps optimize comfort conditions inside the space. Especially in areas requiring precise air conditioning, they provide a major advantage in terms of reducing air velocity and minimizing turbulence. Balanced air distribution plays a critical role in ensuring temperature homogeneity and comfort conditions. Therefore, they are frequently preferred in shopping malls, hospitals, and large office projects. Fixed Blade Grille: Fixed blade grilles are systems that have blades fixed at a certain angle and in which the air direction cannot be changed. These grilles are generally used in façade applications or exhaust systems where airflow in a certain direction is required. Thanks to their aerodynamic blade structure, air flow remains stable and resistance against outdoor effects is provided. They offer advantages in terms of low maintenance requirement, long service life, and mechanical strength. They can also be designed to prevent rain and foreign object entry. Adjustable Blade Grille: Adjustable blade grilles are flexible air distribution elements that allow the user to manually change the air flow direction. In these systems, the direction, velocity, and spread of the air jet can be controlled by changing the blade angles. They provide a major advantage in directing air flow during seasonal changes. They are an important component in HVAC systems in terms of ensuring thermal comfort and optimizing indoor air circulation. Thanks to low pressure loss and high control capability, they contribute to energy efficiency. Linear Grille: Linear grilles are modern air distribution elements that provide aesthetic and homogeneous air distribution thanks to their long and narrow structure. They are generally applied linearly along the ceiling or wall and create balanced air distribution in large areas. Turbulence is minimized thanks to the controlled spread of the air jet. They are preferred in projects where architectural aesthetics are at the forefront. Maximum comfort is ensured by optimizing air velocity distribution and throw distance through engineering calculations. Grille with Damper: Grilles with dampers allow air flow rate to be adjusted thanks to the damper mechanism located at the rear. This feature provides a major advantage in air balancing operations. Air flow is controlled and room-based flow adjustment can be made. They are an important component in terms of energy efficiency and are especially preferred in variable air volume systems. They contribute to optimizing pressure losses. Outdoor Air Grille (Weather Louver): Outdoor air grilles are protective elements that allow air taken from the outdoor environment to enter indoors in a controlled manner while preventing the entry of rain, snow, and foreign objects. Thanks to their aerodynamic blade structure, water carry-over capacity is minimized. They are generally used on building façades and require high durability. They are a critical component in HVAC systems in terms of fresh air supply. Louver Type Grille: Louver type grilles have a durable structure that provides protection against external factors while allowing air passage. Their blade structure reduces the entry of rain and foreign objects. They are widely used in industrial facilities and façade applications. They offer high durability and long service life advantages. Floor Grille: Floor grilles provide air supply or return from floor level. They provide effective air distribution especially in high-volume areas. Comfort conditions are created with low-velocity, wide-angle air distribution. They have high mechanical strength and are produced to be walkable. Door Transfer Grille: Door transfer grilles are important HVAC elements that provide pressure balancing by allowing air passage between two spaces. They are especially used in WCs and technical rooms. They contribute to system efficiency with low pressure loss and quiet operating principle.
ANEMOSTAT TYPES Round Ceiling Type Anemostat: Round ceiling type anemostats are circular air distribution elements designed especially for ceiling installation in HVAC systems. These anemostats distribute air flow 360° radially, ensuring homogeneous air circulation within the space. By allowing the air jet to spread parallel to the ceiling, the Coanda effect is created with the aim of reducing air velocity and ensuring comfort conditions. They are generally preferred in offices, hotels, and residential projects. Thanks to their aerodynamic structure, they operate with low pressure loss and contribute to energy efficiency. Adjustable Flow Anemostat: Adjustable flow anemostats allow precise control of air flow rate thanks to their central disc structure. By moving the disc forward and backward, the air passage section is changed and flow adjustment is made. This feature provides a major advantage in air balancing operations. They are preferred for room-based air control in HVAC systems. They are also used in variable air volume systems (VAV) to optimize energy efficiency. By controlling air velocity, draft formation is prevented. Fixed Blade Anemostat: Fixed blade anemostats are air distribution elements designed according to a certain air flow characteristic and do not require adjustment. In these systems, air distribution occurs according to the geometry determined during production. They stand out with low maintenance requirements and a stable operating principle. They are especially preferred in constant air volume systems. Thanks to the proper distribution of the air jet, balanced temperature distribution is provided within the space. Exhaust Anemostat: Exhaust anemostats are air return elements that remove indoor air by drawing it and exhausting it to the outdoor environment. They are generally used in spaces where polluted air is generated, such as bathrooms, WCs, and kitchens. The suction flow rate can be controlled thanks to the adjustable disc structure. They are designed to operate with low noise level. Pressure loss is optimized to increase system efficiency. At the same time, correct positioning is important to minimize the risk of backdraft. Plastic Anemostat: Plastic anemostats are air distribution elements preferred especially in humid environments due to their lightweight structure and corrosion-resistant material properties. They are manufactured from ABS or similar polymer materials. They offer economic cost and easy installation advantages. They are used effectively in low-pressure systems. In addition, they are widely preferred in residential projects thanks to their aesthetic appearance. Square Anemostat: Metal anemostats are manufactured from galvanized steel or aluminum material, offering high durability and long service life. They are preferred in industrial and commercial applications. They are resistant to high temperatures and mechanical impacts. They are protected against corrosion by electrostatic powder coating. Their air distribution performance is high and they contribute to system efficiency. They offer a reliable solution especially in areas with intensive use. Slot Diffuser: Slot diffusers are linear air distribution elements that supply air through narrow and long openings. Thanks to their aesthetic appearance, they are frequently preferred in modern architectural projects. Comfort conditions are provided through the controlled spread of the air jet. Single, double, or multiple slot options are available. They are especially used in areas with high aesthetic expectations, such as offices and hotels. Linear Diffuser: Linear diffusers are systems that provide homogeneous air distribution along a long line. They are applied along ceilings or walls to create balanced air flow in large areas. Turbulence and noise are minimized by distributing air velocity in a controlled manner. They are preferred with a design that preserves architectural integrity. Plenum Box Diffuser: Plenum box diffusers are systems used together with a special box (plenum box) that ensures the air coming from the air duct is distributed evenly to the diffuser. This structure improves diffuser performance by regulating air flow. It also contributes to reducing noise level. It is an important component in terms of flow control and system balance. Adjustable Blade Diffuser: Adjustable blade diffusers are flexible systems in which the air flow direction can be changed by the user. By changing blade angles, the direction and spread of the air jet are controlled. This feature ensures optimization of indoor comfort conditions. It offers flexible use in HVAC systems. High Throw Diffuser: High throw diffusers are systems that can deliver air flow over long distances and supply air at high velocity. They are especially preferred in high-ceiling and large-volume areas. They provide effective air distribution in large areas by maintaining the momentum of the air jet. They are widely used in industrial facilities and large commercial projects. Concealed (Aesthetic) Slot Diffuser: Concealed slot diffusers are special air distribution elements designed to be invisible or minimally visible in integration with architectural design. They are generally integrated into gypsum board ceiling systems and only a narrow air outlet line is visible. They are preferred in luxury projects where aesthetic expectations are high. They provide both a decorative and functional solution. Jet Nozzle Diffusers: Jet nozzle diffusers are special air distribution elements designed especially for large-volume areas, providing high-velocity air throw over long distances. These diffusers create a high-momentum air jet, allowing air flow to reach long distances. Thanks to the adjustable head structure, the air flow direction can be changed manually or motorized. This feature provides flexibility according to different usage scenarios. They are generally preferred in airports, sports halls, hangars, and large shopping malls. Thanks to their high induction rate, rapid mixing with room air is achieved and temperature balance is created. Perforated Diffusers: Perforated diffusers are systems that distribute air at low velocity by spreading it over a wide surface through numerous small holes (perforations) on their surface. This structure ensures homogeneous air flow and minimizes draft formation. They are especially preferred in areas where comfort conditions are critical, such as offices, hospitals, and laboratories. They provide quiet operation by reducing the velocity of the air jet. They also offer a modern and simple aesthetic appearance. Floor Diffusers: Floor diffusers are special air distribution elements that provide air supply or return from floor level. These systems are especially used in raised floor applications and direct air flow from bottom to top. They optimize comfort conditions by providing low-velocity air distribution. Since they are produced in a walkable structure, they require high mechanical strength. They are generally preferred in offices, data centers, and large commercial areas.
