Tire pyrolysis has evolved into a technologically mature pathway for recovering oil, carbon black, steel, and combustible gas from end-of-life tires. Despite its resource recovery potential, atmospheric emission control remains a decisive factor in determining operational viability and regulatory acceptance. Off-gas generated during tire pyrolysis contains a heterogeneous mixture of combustible hydrocarbons, particulate matter, sulfur-bearing compounds, and trace pollutants.

In rice husk pyrolysis, ash content directly influences the quality and yield of biochar and pyrolysis oil. Excessive ash reduces calorific value, accelerates equipment abrasion, and impairs thermal conductivity within a pyrolysis plant. Effective ash control is therefore critical for maximizing operational efficiency and maintaining product consistency. Rice husk, inherently high in silica and inorganic compounds, presents unique challenges. The silica-rich ash tends to accu

Tire pyrolysis presents a dual opportunity: mitigating environmental hazards associated with end-of-life tires while generating revenue from recovered materials. A pyrolysis plant converts waste tires into liquid oil, carbon black, steel wire, and combustible gas. Each product stream represents a potential income source, and careful optimization of operational parameters, product quality, and market positioning can maximize profitability. Understanding the revenue structure i