Macroscopic Phase and Operational Charge Inversion via Coherent Electromagnetic Fields: Exploring new Quantum and Temporal Effects

This manuscript is current in Official Peer Review. Not final version.Copyright©2026 Alex De Giuseppe.All rights reserved. This work is protected by copyright. Any form of plagiarism, unauthorized reproduction, or misappropriation of ideas, mathematically results, or text without proper citation constitutes a violation of academic and intellectual property standards and common laws. No commercial use, adaptation, or derivative works are permitted without explicit written permission from the author. For correspondence, citations, collaboration inquiries, or feedback please contact:[e-mail] The hash files that determine ownership have been created. This work presents a theoretical and conceptual proposal for the creation and stabilization of macroscopically phase-inverted quantum condensates in superconductors, combined with an operational equivalent of charge inversion, achieved via a coherent external electromagnetic field. The central idea is that, by inverting the spatial phase profile of a superconducting condensate and applying a carefully engineered coherent field, one can manipulate the effective interaction of the condensate’s charge carriers with external fields. This produces observable phenomena that mimic charge-conjugated behavior, including reversed currents, magnetic flux patterns, and Lorentz-force effects, without requiring actual antimatter. A critical aspect of this approach is the possible influence on temporal behavior within the coherent field region. The stabilized phase-and-charge inverted “bubble” may allow the condensate and nearby matter to experience altered effective temporal dynamics, analogous to macroscopic quantum temporal modulation. The work therefore explores not only spatial and electromagnetic effects but also potentially observable time-linked phenomena, opening new questions about the relation between phase, charge, and the flow of time in quantum-coherent systems. We propose three experimental scenarios: Phase-inverted superconductor without charge inversion: benchmarking supercurrent and flux inversion effects under conventional phase manipulation, optionally with a stabilizing field. Phase-inverted superconductor with operational charge inversion: applying a coherent stabilizing field to invert the effective coupling of carriers to electromagnetic potentials, producing persistent currents and magnetic flux patterns, and potentially revealing novel temporal correlations within the condensate. Pure coherent field experiments: creating a macroscopic coherent electromagnetic “bubble” and placing normal conductive or dielectric objects inside to study both electromagnetic and temporal responses, including the possibility of temporally anomalous behavior in the bubble region. This paper emphasizes a new experimental idea for macroscopic quantum control, coherent field engineering, and exploration of phase-charge-time relations. By operationally reversing effective charge coupling and globally inverting phase while maintaining coherence, this approach could provide unprecedented experimental access to quantum phenomena, including macroscopic temporal modulation. The aim is to present a rigorous, and operationally defined approach, inviting the scientific community to discuss and investigate these ideas further, potentially opening new directions in macroscopic quantum physics, coherent field dynamics, and time-related quantum effects.