For a long time, mechanical metamaterials have traditionally been designed to maximize stiffness and strength-to-weight ratios. However, in recent years, a divergent paradigm has gained traction. New explorations, shaped from "pushing and pulling ropes" to avoid generating high stress concentrations joints, have proven that "knots are not for naught".Aligning with the emerging field of Soft Matter—which is revolutionizing industries beyond materials science— a new goal is set where, in stark contrast to the previous focus, high deformability, combined with resilience and recoverability, become the definitive objectives. This work introduces a novel framework for the design and 4D printing of entangled Nitinol networks, progressing from foundational algorithmic wovens to advanced Braided Architected Materials (BAMs). By utilizing laser powder bed fusion (LPBF) to fabricate junction-less helical geometries, we overcome the connectivity constraints that typically limit the compliance of additive manufactured metals. We first demonstrate a methodology for engineering a new generation of vascular implants, which utilize braided topologies to achieve unprecedented conformability to patient-specific anatomical surfaces. These devices maintain competitive radial stiffness while leveraging the superelasticity of Nitinol for minimally invasive delivery. Extending this framework to structural scales, we introduce BAMs—a robust mechanical platform that allows high-strength metals to mimic the behavior of elastomers. By interlocking independent braided units, these architected materials achieve a unique "soft-stiff" duality: high initial compliance followed by significant "topological hardening" as the entangled fibers engage. This configuration results in a failure-tolerant behavior where the global structural envelope remains stable even after localized fiber fracture. Ultimately, this research shows that the synergy of textile-inspired topologies and shape-memory alloys fundamentally expands the design space for metal metamaterials, offering scalable and resilient solutions for both biomedical and high-performance engineering applications.