Unified_wave_on_a_wave_theory_and_wave_convergence___a_particle_theory_by_Avyukt_jindal-5.pdf

This paper introduces a unified theoretical framework in which the formation of particles is explained through the convergence of quantum wavefronts in space and time. Rather than assuming particles are fundamental entities, the model treats them as localized concentrations of energy resulting from constructive wave interference. A central feature of the theory is a convergence function that represents the combined effect of interacting wavefronts, modulated by their spatial alignment, energy coupling, and temporal localization.To distinguish between stable and virtual particles, the framework introduces a synchronization function that evaluates the coherence of incoming waves. Stable particles arise when wavefronts are tightly phase-aligned and persist in time, while virtual particles emerge from angled or misaligned interactions that dissipate quickly. The influence of spacetime curvature is incorporated by allowing the underlying geometry—represented by the Ricci scalar from general relativity—to modulate the likelihood of particle formation. This means regions with strong curvature, such as those near massive bodies or in the early universe, can enhance the conditions for energy convergence.The paper also presents numerical predictions for particle masses across the Standard Model and compares them with experimental data. The predictions show strong agreement, demonstrating that the framework is not only conceptually unified but also quantitatively accurate. Diagrams are included to illustrate the difference between stable and virtual particle convergence. Overall, this work proposes a physically motivated, mathematically consistent alternative to traditional mass-generation mechanisms, offering a deeper connection between wave dynamics, field theory, and spacetime geometry(Written with help of AI, but the core ideas, interpretations, and equations remain of author's only)