Weaving is recognized as one of the most enduring and effective techniques for crafting intricate, ordered materials with properties that fundamentally diverge from those of unorganized components. The weaving of fibers into a fabric structure enhances strength and stiffness to a degree that significantly surpasses that of individual strands, making the woven fabrics highly suitable materials for both military and civil protective applications. Among various woven factors, such as fibril materials, areal mass and projectile sizes, that can influence the mechanical performance of fabrics, the modulation of weaving pattern is identified as one of the most efficient approaches to balance the strength, stiffness and toughness. Both experimental program and mesoscale numerical models validate this low-cost manufacturing process impacts the flexibility, durability and impact resistance of macroscopic fabrics by altering the mechanisms of energy absorption and dissipation. Unlike macroscopic conventional textiles with well-established manufacturing processes, the construction of 2D or 3D molecularly woven materials with long-range ordered entanglements by from crystalline interlacing 1D flexible molecular strands presents a significant challenge. Expanding on the initial concept of 'true' molecular weaving proposed by Busch and Hubin in 2000, creation of organic woven polymers has been achieved on several occasions by using reticular chemistry, supramolecular self-assembly, surface-templated MOF and tessellation of pre-woven building blocks. The obtained polymers exhibit not only expected mechanical properties, but also act as nets for adaptive guest inclusion and fishing ions or template polymer entanglements . While it appears that these interlaced molecular networks are becoming increasingly accessible through synthesis, understanding the structure-property relationship and manipulating material characteristics through molecular engineering of woven factors, akin to what has been achieved in commercial textiles, remains undiscovered.