Resin Bracket Reinforcement Layout for Multidirectional Vibration Loads

The patent applies local quality by providing reinforcement portions at specific locations where stresses concentrate (column portions and connecting portions) rather than uniformly across the entire bracket. The reinforcement ribs are strategically positioned to address local stress concentration points, achieving effective reinforcement while avoiding unnecessary complexity in low-stress areas.

The patent uses composite materials by combining resin material with reinforcement ribs made of different materials (such as metal or fiber-reinforced materials). This composite approach enhances the reinforcing effect by leveraging the complementary properties of different materials - the resin provides base structure and damping, while the reinforcement ribs provide high strength and stiffness at critical locations.

The patent applies segmentation by dividing the reinforcement function into distinct components: the base resin bracket body and separate reinforcement ribs that are integrated into specific regions. This segmentation allows the reinforcement features to be designed and positioned independently, providing effective strengthening without requiring complete redesign of the entire bracket structure.

The patent employs dimensionality change by adding reinforcement ribs that extend in directions complementary to the main bracket geometry. The ribs protrude from the bracket surface in specific orientations to resist loads from multiple directions, effectively addressing three-dimensional stress states without requiring complex multi-component assemblies.

The patent applies local quality by concentrating reinforcement materials only in regions experiencing high stress concentrations (column portions and connecting portions) rather than uniformly throughout the entire bracket. This localized reinforcement approach provides necessary load resistance in critical areas while minimizing additional weight in low-stress regions.

The patent uses composite materials to achieve high strength-to-weight ratio by combining lightweight resin material with high-strength reinforcement ribs. This composite construction provides excellent load resistance against multi-directional forces while keeping the overall weight increase minimal compared to using solid metal construction throughout.