industrial catalytic converter

1.4em; text-align: center;">Handling High Flow Rates in Industrial Catalytic Converters

1.4em; text-align: center;">

1.4em; text-align: left;">Industrial catalytic converters. High exhaust mass flow. Stationary engines. Power generation units. Gas turbines. Boilers. Continuous operation.

1.4em; text-align: left;">Flow rate higher than automotive systems. Face velocity control required. Frontal area increased. Pressure drop limited.

1.4em; text-align: left;">Substrate geometry adjusted. Lower cell density. Higher open frontal area. Channel length set for required residence time.

1.4em; text-align: left;">Metallic substrate commonly selected. Thin metal foil. High mechanical strength. Vibration tolerance. Continuous thermal exposure. Ceramic substrate possible. Additional mechanical support required.

1.4em; text-align: left;">Inlet flow condition critical. Non-uniform velocity at inlet. Local high-speed zones. Temperature imbalance. Uneven catalyst aging. Flow straightener or diffuser installed upstream. Multi-brick layout used where required.

1.4em; text-align: left;">Thermal load proportional to flow. Housing design allows uniform temperature distribution. Continuous expansion expected. Expansion gaps and flexible supports applied.

1.4em; text-align: left;">Design objective. Stable flow. Controlled pressure loss. Uniform temperature. Long service life under steady high-flow operation.