Concrete offers several benefits over steel, including availability, affordability, viscosity, compressive strength, and manufacturing simplicity. However, one notable drawback is that concrete has a lower tensile strength, which causes microcracks when subjected to persistent pressure and harsh weather conditions. The service life of a structure is mostly determined by its concrete strength; in other words, moderate environmental conditions may strengthen it, while severe environmental conditions may weaken it. The degradation of concrete materials is also induced by bio-corrosion produced by microorganisms that generate sulphuric acid to make sulphate. The source of durability and repair system issues is a lack of concrete supply. Bacterial uses in concrete rehabilitation, pore-clogging, and cracking have all been investigated. Bacillus species are tiny creatures that are gram-positive, spore-forming, oxygen-dependent, and have dormant, thick-walled cells. They may live for up to 200 years as spore-forming bacteria. According to an experimental investigation, the compressive strength of concrete is improved by using ceramic tile waste powder-based bacterial concrete. Bacillus megaterium is used in this experiment. This research looked at various concrete tests, including compressive strength, split tensile strength, and workability.