IRR™ system utilizes a strong, yet light weight specialty material to construct the internal support ring. It helps the soft fabric air dispersion system retain inflated look without static pressure. The system is extremely light weight, and adds very little extra installation time. The patent pending sew-in pocket construction makes the system very flexible and easy to wash. Additional tension cables at the end of each straight section ensure fabric between rings is kept round and taut when deflated.
Entire portion of the flexible fabric surface remain round and taut when deflated. Fully maintain the inflated appearance.
No inflation / deflation motion, Completely eliminate start up pop.
It adds very little extra time to system installation. The rings can also be very easily removed for laundering the fabric portion
The system is also much lighter and easier to transport and install comparing to old generation of external circular or axial metal support system.
There is still drop or sag at lower part of the duct, wrinkles exist on surface, bad visual appearance.
Triple points internal support, there is still sag or drop between suspension points, cause interference to the internal airflow. Start-up pop noise can't be erased completely.
Difficult for packing and transportation,heavy weight, Difficult for installation, it takes 3 times more time to install than Durkeesox IRR system.
Unsatisfactory visual appearance, Complicated structure, difficult for installation, heavy weight.
Public facilities, offices, sports facilities, and any building that has high demand of aesthetic.
Buildings that require minimum noise.
(Including start up pop noise and airflow noise).
Application with prolonged period when the fan cycles on and off during occupied hours.
Large percentage variation VAV system requires the fabric air dispersion system to keep the round shape at minimum occupancy.
System with complex layout, excessive fittings and elevation changes can benefit from the easy installation of single row suspension in IRR system