This paper presents a novel theoretical framework that bridges electromagnetic and gravitational fields through generalized gauge transformations. The author demonstrates how curvature tensor components, such as the antisymmetric Weyl tensor, can be derived from the electromagnetic antisymmetric tensor, offering a new perspective on the interaction between these fields. A systematic method for converting electromagnetic force into gravitational force is proposed, utilizing the theory of generalized gauge transformations. By regulating the Weyl tensor with electromagnetic fields, the need for negative curvature is circumvented, representing a significant advancement in curvature engine-type spacecraft theories. While current technology does not yet enable realization of this concept, the approach holds considerable potential for both theoretical and technological progress. Key insights include the direct conversion of electromagnetic fields into gravity via generalized gauge equations, the possibility of creating differential curvature for superluminal travel, and the potential for future advancements in electromagnetic control of spacetime curvature. This work may lay the groundwork for further exploration of engine technologies and human interstellar flight, with a focus on powerful electromagnetic field generation, nonlinear electromagnetic and gravitational field models, and precise control of the Weyl tensor.
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