Multifunctional specimens that are compatible with living tissues, accelerate the healing process of fractures, actively inhibit the growth of microorganisms, and are mechanically reinforced to support increased pressure on partially healed bone segments—a process known as bone mineralization—were obtained through a comprehensive investigation. Utilizing graphene oxide to enhance the mechanical properties of bio glass prepared using the sol-gel method, calcination at 600 degrees Celsius, increasing its microbial resistance by adding varying ratios of silver nanoparticles during preparation, drying by lyophilizing technique (freeze drying), testing its biocompatibility outside of living organisms (in- vitro study) by immersing all samples in simulated body fluid (SBF) with the same chemical composition as blood plasma, and investigating by different techniques both before and after soaking in SBF for the multifunctional, such as TGA, DSC, EDXs, X-Ray, FT-IR, X-Ray crystallization testing, and surface imaging using (SEM) scanning electron microscopy.This study demonstrated that a 0.5% improvement in graphene oxide’s mechanical characteristics is optimal. Additionally, it shown that 2% is the optimal level of resistance that silver nanoparticles may provide against microorganisms (fungi and bacteria) without causing these organisms to adapt and begin to resist inversely. The best sample had with 0.5% graphene and 2% silver that the highest hydroxyapatite layer deposit that was compatible with live tissue was found.

Keywords: Bio-material, Bioactive glass, Antimicrobials, Bone mineralization

Abbreviations: Thermogravimetric Analysis (TGA), Differential Scanning Calorimetry (DSC), and (EDXs), Energy-Dispersive X-ray spectroscopy