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The current sceanrio in the development of health care materials introduced numerous biological materials [1,2]. Most of the biological materials target skin and wounds and only few materials focused the internal organs [3]. Bone, an important organ and if there is any critical injury or fracture it needs immediate attention. To fix a bone fracture surgeons use metal screws, pins, rods or plates to hold the bones in the place [4]. However, these materials needs to be removed (by another surgery) once the bone got repaired. In recent years, tissue regeneration, an important research area paves a way to have remediation through supporting materials in the form of biomaterials. Since, most of the biomaterials are from synthetic followed by natural, the biocompatibility and immunological issues restrict the benefits [5]. Our recent research on the development of tissue approximation agent for cut wounds demonstrated interested results for both external and internal tissue approximation [6,7]. The tissue approximation agent used in the present study is an engineered protein which under insitu condition acts as a glue and fix the fracture. Since, there is no biological glue is available for fixing the bone fracture, in the present study, an attempt was made to explore the bone fracture repairing efficacy of the engineered protein glue in small animals models. Experimental Methods Preparation of the PAMG and PAMG-gel

Engineered Protein Adhesive Gel as an Osteo Conductive Material for Bone Healing