Biomimetics is an exciting interdisciplinary field that is inspired by the elements of nature for finding solutions of complex human challenges by mimicking biological systems, processes, and models. It merges biology with engineering, material science, and design, offering innovative solutions that are often more efficient and sustainable than traditional technologies. Biomimetics inspires to study and emulate the inherently self-sufficient healing mechanisms already in place inside human body. In modern orthopaedic technology, biomimetics have had a profound impact on the design and development of next generation of advanced implants, prosthetics, tissue regeneration, and medical devices aimed at restoring or enhancing musculoskeletal function. Biomimetics, the study and emulation of nature’s designs, is revolutionizing the field of materials science and orthopaedic technology. By closely imitating biological systems, researchers and engineers develop materials and devices that integrate seamlessly with the human body. This approach is particularly relevant in orthopaedics, where the need for materials that replicate the behaviour of bone, cartilage, and other tissues is critical for the success of implants and prosthetics. Biomimetic biomaterials should be designed based on four key principles: (1) Biocompatibility (non-immunogenic, minimal foreign body response, non-toxic; promoting cell adhesion, proliferation, and osseointegration), (2) Mechanical properties (light weight, hard, high fatigue strength, appropriate elastic modulus, high wear resistance, and promote integration into native tissue), (3) Biostability (tunable and programmable biodegradability, resistance to hydrolysis, erosion, corrosion or oxidation, biocompatible degradation products), (4) Microarchitecture (fabrication of tissue-specific microtopographic structure at cellular, subcellular, and molecular levels using biomimetic tissue engineering). In the context of orthopaedics, the human musculoskeletal system, with its intricate and highly efficient structures like bones, tendons, and ligaments, provides a natural template for innovation. For example, bones have remarkable properties such as high strength-to-weight ratios, self-repair capabilities, and unique hierarchical structures, which can inspire the design of biomimetic orthopaedic implants that are more effective in mimicking the natural tissue they are meant to replace or support, with their added advantages. As the global population ages and demand for better orthopaedic treatments increases, biomimetics provides a promising pathway towards more advanced and personalized healthcare solutions.