A flowbench is only useful if it delivers repeatable airflow data. This SuperFlow unit starts with a precision-ground adapter plate so we can connect different parts without introducing unnecessary variables. Inside, a flow-straightening mesh helps produce laminar flow across the section, which keeps readings consistent. Air movement comes from 14 vacuum motors, and rotating cutout plates above and below them let us switch flow direction for intake or exhaust testing. That matters because when we compare stock, Banks, or competitor components, the test setup has to be controlled before the airflow numbers mean anything.
The flow bench begins with a precision-ground adapter plate at the top of the unit. That plate provides a flat, accurate mounting surface so different adapters can be attached for whatever component is being tested. By swapping adapters, the bench can be connected to a wide range of parts while maintaining a controlled interface for repeatable measurements.
With the adapter plate removed, the first internal chamber becomes visible. This chamber is the initial stage of the airflow path and is designed to support stable, measurable flow before air reaches the rest of the system. The layout emphasizes consistency so the readings taken during testing are not distorted by turbulence introduced at the entry point.
Inside that first chamber, the most noticeable feature is the flow-straightening mesh. Its purpose is to condition the air as it moves across the cross-section of the bench. By straightening and evening out the airflow, the mesh promotes a more laminar flow pattern, which in turn helps the bench deliver consistent readings from one test to the next.
The bench's pumping system consists of 14 vacuum motors. In this context, those motors are what drive airflow through the test setup. Rather than relying on a single pump, the system uses multiple vacuum motors to generate the airflow needed for component testing.
Above and below the pump section are cutouts fitted with rotating plates. These plates determine which passages are open and which are closed. By changing that arrangement, the operator can reverse the direction of airflow through the bench.
That directional control allows the same flow bench to be used for either intake or exhaust testing. Depending on the component being evaluated, the airflow can be routed in the appropriate direction so the part is tested under the correct flow condition. This makes the bench adaptable to different types of components without changing the basic machine layout.
