Porous CO2 Diffuser Tip for Stable Surgical Gas Cushioning

The patent employs a porous diffuser element with controlled pore sizes (10-100 micrometers) to transform the gas flow regime. The porous structure distributes gas through numerous small channels, creating a laminar flow pattern that prevents turbulence and maintains a stable local CO2 atmosphere without mixing with environmental air.

The patent changes the physical parameters of gas flow by controlling pore size (10-100 micrometers) and gas flow rate (0.5-5 liters per minute) to transition from turbulent to laminar flow. This parameter optimization ensures smooth gas delivery that maintains atmospheric stability while preventing air contamination.

The patent segments the gas flow into numerous small streams through the porous structure with multiple pores. This segmentation allows the total gas flow to be distributed across many micro-channels, maintaining laminar flow characteristics even at higher overall flow rates, thereby expanding coverage area without inducing turbulence.

The porous diffuser enables high flow rates to be delivered while maintaining laminar flow through its controlled pore architecture. The material structure ensures that increased gas volume is distributed smoothly across the surgical field without creating turbulent mixing with environmental air.

The patent creates and maintains an inert CO2 atmosphere by delivering gas through a laminar flow system that prevents mixing with environmental air. The controlled laminar flow ensures the CO2 cushion remains isolated from air-containing environments, eliminating the risk of air emboli and reducing infection risk while maintaining efficient gas delivery.

By optimizing gas flow parameters (laminar flow regime, controlled velocity, appropriate pore size), the patent achieves efficient gas delivery that maintains a pure CO2 atmosphere. The parameter control prevents air contamination while ensuring adequate gas supply to maintain the protective atmosphere.