Thermoplastic Composite Deck Panel with Grid Ribs

The patent applies composite materials by combining thermoplastic material with fibrous strands (such as glass fibers, cellulose fibers, or other reinforcing fibers) to create a hybrid material structure. This composite approach allows the panel to achieve high strength and rigidity with reduced material quantity, directly resolving the contradiction between load-carrying capability and weight. The fibrous reinforcement provides structural integrity while the thermoplastic matrix binds the fibers together, creating a lightweight yet strong composite panel.

The patent implements local quality by strategically placing supporting ribs and interlocking features only where structurally necessary within the panel design. The supporting ribs are positioned to provide maximum structural efficiency for load distribution, while interlocking tabs and grooves are located at panel edges for joining purposes. This localized reinforcement approach ensures adequate strength and rigidity without uniformly increasing material usage throughout the entire panel, thus reducing overall weight while maintaining load-carrying capability.

The use of composite materials consisting of thermoplastic and fibrous strands provides a cost-effective solution by allowing reduced material consumption while maintaining structural performance. The fibrous reinforcement enables the use of less expensive thermoplastic material in smaller quantities, potentially reducing overall material costs compared to using large amounts of pure high-strength material. Additionally, the composite structure can be manufactured through efficient molding processes that incorporate fiber reinforcement during forming.

The patent applies segmentation by dividing the panel into functional zones with supporting ribs and interlocking features that are molded as integrated elements. This segmentation allows for optimized material distribution where material is concentrated in high-stress areas (ribs and interlocking regions) while minimal material is used in low-stress areas (panel surfaces and openings). This reduces total material consumption and manufacturing cost while maintaining adequate strength and rigidity.

The patent applies local quality by strategically positioning supporting ribs only where structurally necessary to provide rigidity and load distribution in open grid panels. The ribs are placed to create efficient load paths from the panel surface to the supporting frame, with spacing and dimensions optimized for minimum material usage. This localized reinforcement approach ensures adequate rigidity and strength while minimizing the quantity of moldable material required compared to uniform rib distribution.

The use of composite materials with fibrous reinforcement enables the supporting ribs to achieve high rigidity and strength with reduced cross-sectional dimensions and material volume. The fibrous strands within the ribs provide exceptional stiffness-to-weight ratio, allowing the ribs to be thinner and use less material while still providing the necessary structural reinforcement for open grid panel configurations.

The patent directly addresses this contradiction by using composite materials that provide high strength-to-weight ratio. The combination of thermoplastic material with fibrous strands (glass fibers, cellulose fibers, or other reinforcing fibers) creates a lightweight composite that maintains or enhances load-carrying capability despite reduced material quantity. The fibrous reinforcement compensates for the reduced thermoplastic material volume, ensuring adequate structural performance while achieving weight reduction for lower shipping and installation costs.

The patent applies local quality by concentrating material and structural reinforcement only where needed for load-carrying functions, rather than uniformly distributing material throughout the panel. The supporting ribs, interlocking features, and fiber reinforcement are positioned in high-stress regions to maintain structural integrity, while low-stress areas use minimal material. This optimized material distribution reduces overall panel weight and material cost while preserving load-carrying capability and service life.