The ceramic tile industry is a dynamic sector whose technological innovation and market trends have drawn a complex picture of products and processes. This technological evolution has directly entailed with raw material formulations. The focus of this study is on the synthesis of  ‒Wollastonite and utilized as reinforcement filler for clay ceramic tile. The  ‒Wollastonite was synthesized by taking the raw limestone as a lime precursor and rice husk as a source of silica. The lime and silica powders were mixed with 1:1 w/w ratio and then calcined in an electric furnace at a temperature of 900 °C for 4 hours. Lime was produced by calcination of limestone at 950 ℃ for 5 hours. Silica was extracted from rice husk ash by using alkaline extraction followed by acid precipitation. A silica yield of 91.34% was achieved after calcination of rice husk in an electric furnace at 700ºC for 6 hours. The ceramic tiles were fabricated at different ratio of clay-AZ and  ‒ wollastonite. It was prepared by solid slip casting method by addition of 5, 15 and 25 % of  ‒wollastonite with a particle size of <63, 63-75 and 75-125µm at firing temperature of 950, 1000 and 1050°C. The results show that a minimum linear shrinkage of 1.25% and an ignition loss of 2.32% for ceramic tiles were recorded on 25% ratio of  ‒wollastonite with a particle size of 125µm at firing temperature of 950°C. The ceramic tiles fabricated were exhibited the lowest water absorption of 1.35%, the maximum bulk density of 2.35 g/cm3 and compressive strength of 38.35MPa with 25% ratio of  ‒wollastonite and a particle size of 63µm at firing temperature of 1050°C. Similarly, the maximum acid resistance of 99.985% (minimum weight loss (0.015%)) was found between 75-125µm particle size with 25% ratio of  -Wollastonite and 950ºC firing temperature. These results are consistent with the international standard of ceramic tiles.