Researchers examined the determinants influencing hydraulic forming processes and determined that the efficacy of these processes relies on several critical factors, including: the characteristics of the material being formed (such as elasticity and tensile strength), the design and engineering precision of the molds, the magnitude of applied hydraulic pressure and its rate of variation, and the forming temperature. Research indicates that the quality and purity of hydraulic fluids significantly affect process efficiency and machine longevity. Moreover, the importance of precise and sustainable regulation of these elements was emphasized to improve product quality, reduce costs, and increase production. Researchers discovered that addressing these elements could lead to reduced waste and increased energy efficiency in industrial processes. When comparing the theoretical and practical dimensions of hydraulic forming processes, researchers found that theoretical models often provide accurate predictions regarding material behavior and the impact of variables such as pressure and temperature on forming. However, practical implementation often reveals unexpected obstacles, such as slight variations in material properties, the effect of friction between the mold and the material, or the uneven distribution of hydraulic pressure. The gaps between theory and application highlight the necessity of conducting rigorous experimental studies to refine theoretical models and create more precise methods. Comparisons indicated that the continuous improvement of practical processes relies on a deep understanding of fundamental concepts, thereby enhancing the integration of both sides to achieve better manufacturing outcomes.