Modern stabilization methods increasingly incorporate biological techniques to enhance fracture healing. Bone grafts, including autografts and allografts, are often used to fill gaps or support bone regeneration in severe fractures. Some calcium based bioceramics are used as bone cement because they comprises most part of the natural bone structure . However, most commonly used bone cement is based on poly(methyl methacrylate)(PMMA) which is strong, shows acceptable biocompatibility and can easily be cured but its rigidity leads to brittleness and also cause stress shielding where bone weakens around the implant . This triggered a strong need for alternative materials which can be resorbed in the body getting replaced by natural bone tissue and promote self-healing process of bone . Recently, more advancement has been introduced in stabilizing bone fracture by using biomimetic materials. These materials are designed in a way to mimic the natural bone structure and functions. For example, hydroxyapatite and tricalcium phosphate (TCP) are widely used in bone repair as their composition resembles the mineral component of bone. Mostly, HA or TCP are used as a coating on metal implants to enhance their integration with bone 2 . Some metal alloys like magnesium and titanium have also been used in bone scaffolds due to their excellent biocompatibility and mechanical properties.