Engineered for Acoustic Control.

Aerosound provides solutions for both airborne and structure-borne noise, including duct liners, sound barriers and lagging materials, floor underlay and gym flooring for HVAC, MEP, Civil and architectural applications.

Aerosound insulation can help reduce noise transmission, minimize echo and reverberation, supporting acoustic comfort requirements in offices, hospitals, hotels, and educational spaces in line with global acoustic limits.

Yes. Aerosound products are engineered for fan rooms, AHU areas, chillers, pump rooms, power generators, mechanical shafts and civil applications reducing both airborne and structural noise.

Both. Aerosound products are designed for easy integration in new builds as well as retrofit upgrades, where acoustic problems appear after occupancy and require minimal-disruption solutions.
The selection should be based on a subject of study by an acoustic engineer.

Aerosound solutions are developed to align with recognized benchmarks such as ISO acoustic ratings, ASTM, and regional building regulations, ensuring validated performance and long-term stability.

Airborne noise: Sound that travels through the air (e.g., voices, AHU discharge). Aerosound addresses this using sound absorbers, acoustic panels and acoustic barriers.

Structure-borne noise: vibration that travels through elements such as slabs or ductwork. Aerosound addresses this using composite layers, acoustic lagging systems and resilient floor underlay solutions to reduce impact noise transmission.

The right specification depends on noise levels, frequency range, application type, and project’s acoustic targets. Aerosound provides material selection guidance for design consultants.
The selection should be based on a subject of study by an acoustic engineer.

Yes. By improving room acoustics and reducing mechanical noise, Aerosound can contribute to compliance with local codes, hospital and school acoustic regulations, and supports frameworks such as LEED & BREEAM and other green building mandates.
The selection should be based on a subject of study by an acoustic engineer. real life readings and measurements.

Yes. Aerosound products are suitable for industrial applications where noise control is required. EU regulations, primarily the EU Noise at Work Directive 2003/10/EC, set strict limits on occupational noise exposure and require employers to implement engineering controls when thresholds are exceeded. In recent years, enforcement and practical requirements have become more stringent, with greater emphasis on reducing noise at source rather than relying only on personal protective equipment. Aerosound solutions help support compliance with these requirements by reducing airborne and structure-borne noise from HVAC/R and mechanical systems. Final suitability should always be confirmed through an acoustic engineer’s project-specific assessment.

Absolutely. Aerosound is widely used in manufacturing facilities, transport hubs, metro stations, and utility structures, where sustained noise reduction and durability under rough conditions are required.

Aerosound supports stakeholders with acoustic performance data, submittals, installation guidelines, product integration advice, and on-site coordination to ensure the intended material performance is achieved. Moreover, Aerosound team can provide customized products.

Common acoustic design mistakes include underestimating required acoustic product thickness/volume, ignoring vibration from equipment like fans and pumps, and poor sealing of the joints. Another key issue is treating airborne noise without addressing structure-borne noise, which significantly reduces overall system performance in HVAC/R projects.
Additional critical errors include incorrect installation of HVAC/R equipment, inadequate foundation and mounting methods for mechanical systems, and unsealed or improperly sealed penetrations or openings through partitions and slabs. Poor placement of HVAC/R units, especially when located too close to occupied or sensitive spaces – can also significantly increase noise transfer and reduce overall acoustic comfort.
Moreover, overly aggressive cost-cutting can compromise acoustic comfort, while the actual savings are often minimal.

Acoustic insulation should be specified as early as the concept or schematic design phase. This allows proper coordination with HVAC layout, structural elements, and space planning, ensuring noise control is integrated from the start rather than added as a correction later.

Key factors include noise source type, frequency range, source noise level, room geometry, and expected decibel reduction levels.

Impact noise between floors can be significantly reduced by decoupling the floor surface from the structural slab with floor underlay, it reduces vibration transfer and impact noise, helping meet building acoustic requirements in multi-story developments. These materials absorb and dampen vibration from footsteps, dropped objects, and general movement, preventing sound transmission through the floor slab and improving overall acoustic comfort in residential and commercial buildings.

When selecting a floor underlay for acoustic performance, key factors include the required impact sound reduction level, the type of floor finish, slab construction, and expected building usage. Proper material selection should also consider long-term compression resistance, durability, and compatibility with adhesives and finishing systems. Correct installation is critical, as even high-performance materials will underperform if not installed continuously and without gaps or bridging, which can create sound transmission paths.

Aerosound GymFlooring, it is a dedicated high-density flooring system with impact-absorbing properties is recommended. Such systems are designed to reduce vibration, absorb heavy impact from weights and equipment like Stairmasters, treadmills, rowing machines and stationary bikes, and minimize noise transmission to surrounding areas while also protecting the structural slab from long-term damage.