A Dynamic Framework for Mass-Energy Interaction: Exploring the Role of Time and Relativity

While the relationship between mass and energy is well-established, in classical and relativistic frameworks, the dynamic interaction between mass, energy, and time has not been fully explored. This study examines how the introduction of time into mass-energy interaction influences the behavior of mass, proposing a new framework in which mass is considered not a static quantity but a dynamic entity that interacts with energy and time. Furthermore, it explores whether under certain conditions, the efficient utilization of energy could theoretically allow for travel at speeds potentially exceeding that of light. This paper extends the conceptualization of energy by considering mass not as a static entity but as a dynamic quantity. It explores how mass distributes received energy and its behavior under various values of energy and time. The investigation begins with the fundamental form of mass, specifically the point energy mass, which is influenced by both energy and time. The study then expands to encompass larger and more complex forms of mass, analyzing the generalized effects of energy and time on their behavior. Additionally, the study examines the roles of space and speed in relation to energy and time, incorporating in the investigation fundamental equations of relativity, including Lorentz transformation and mass energy equivalence. The findings suggest the possibility of mass traveling at speeds that would be considered as limited until now, by setting appropriate mass factors