Abstract

This research explores a theoretical concept: the idea that by controlling entropy, we may be able to control the flow of time. In classical physics, time is known to move forward because entropy the measure of disorder in a system naturally increases. This study proposes a new framework in which entropy is treated as a controllable variable, and time becomes a consequence of its behavior. A mathematical model is introduced, where a control function f(t) determines how entropy changes over time. Based on this, different scenarios emerge: increasing entropy leads to forward time, constant entropy results in frozen time, decreasing entropy may cause time reversal, and entropy reaching zero could reset the universe to its most ordered state. The model is entirely theoretical but opens new possibilities in thermodynamics, cosmology, and quantum mechanics. Although this idea challenges the Second Law of Thermodynamics and has no experimental support yet, it aligns with speculative areas of physics that deal with black holes, information theory, and the early universe. Future research may explore these concepts in quantum systems, simulated environments, or theoretical cosmological models. This paper offers a fresh perspective on how we understand time and its relationship to entropy, encouraging further exploration and dialogue in advanced theoretical physics. Keywords: Entropy, Time travel, Entropy control, Arrow of time, Thermodynamics, Entropy- time relationship, Mathematical modeling.