Impact of Comminution Kinetic Energy: First Mathematical Modeling of Fragmentation Dynamic Fractures Per Millimetre of Coal

Abstract

Abstract The various aspects of coal, including its chemical composition, properties, and environmental impacts. The recent research focused on developing new technologies and processes to improve the efficiency and effectiveness of coal comminution, with a particular focus on the use of kinetic energy impact application of coal comminution with linear momentum. We explored the potential benefits of this approach, as well as ongoing research aimed at optimizing the comminution process and improving our understanding of the physics of coal comminution. Ultimately, the goal of this research is to reduce energy consumption and environmental impact associated with coal mining and use. From calculation on comminution of coal samples 10 mm long, 1 mm thick and 1 mm wide using linear momentum kinetic impact energy were carried out to produce coal between 100 mm and 1 mm in size. The main parameters of the process are the configuration of the impact surface of the runway wall, volume, mass and initial size of the sample, as well as the impact distance to the runway. The results of the analysis produce 55 process equations with models per millimetre scale; starting from the equation. The value of the kinetic energy of the fragmentation impact is increasing small if the distribution of energy has an increasing impact Far from static center impact; following with bigger size fragment. With doubling the value of the distribution of impact kinetic energy per millimetre; uniformity size fragment between 100mm to 1mm reached. This first mathematical model is expressed as a comminution dynamic fragmentation linear pattern per millimetre.