Honeycomb Flat Membrane Support Plate for Rigidity and Cost Reduction

The support plate adopts a honeycomb porous structure with through-holes arranged in hexagonal patterns. This porous configuration provides structural support while significantly reducing material usage compared to solid plates. The honeycomb geometry maintains rigidity and strength requirements while lowering material costs, directly resolving the contradiction between supporting strength and material cost.

The support plate combines different material properties within a single component - the honeycomb structure integrates solid hexagonal cells with hollow through-holes. This composite configuration allows the plate to achieve both structural integrity and material efficiency, resolving the contradiction between strength requirements and cost reduction.

The honeycomb porous structure provides high structural efficiency with minimal material. The through-holes arranged in hexagonal patterns create a lightweight yet rigid framework that maintains plate stability without requiring excessive thickness. This resolves the contradiction by achieving rigidity with reduced material quantity.

The support plate transitions from a two-dimensional flat structure to a three-dimensional honeycomb configuration with vertical through-holes. This dimensional transformation adds structural complexity that enhances rigidity without increasing material cost, as the third dimension provides additional support pathways.

The support plate divides the water discharge function into multiple segments - numerous through-holes distributed across the honeycomb structure serve as multiple discharge pathways. This segmentation allows water to exit through many small channels rather than requiring a single complex drainage system, enabling gravity-based flow while maintaining structural simplicity.

The honeycomb porous structure with its distributed through-holes creates a passive drainage system that utilizes gravity differential pressure. Water can flow through the porous structure without requiring active pumping, as the distributed holes provide multiple pathways for gravity-driven discharge, thereby reducing energy consumption while maintaining structural simplicity.

The honeycomb porous structure with uniformly distributed through-holes creates uniform pressure distribution across the membrane surface. Water flows through the porous structure under gravity differential pressure, ensuring even suction force across all areas. This uniform flow pattern prevents localized pressure spikes that cause membrane fouling, while maintaining effective water discharge productivity.

The distributed honeycomb structure creates equipotential pressure distribution across the membrane surface. Multiple through-holes arranged in hexagonal patterns ensure that water pressure differences are equalized throughout the structure, resulting in uniform suction force. This equipotential configuration prevents non-uniform flow patterns that lead to membrane fouling, while maintaining efficient water discharge.