Andreas Maletzky, Dr. Gerard G. Dumancas
This study explores the derivation of Newton's Laws through a real-particle field theory framework. The objective is to unify concepts of classical mechanics with modern physics principles, particularly in the context of time dilation and special relativity as highlighted by recent laser challenges in China. Employing theoretical analysis and mathematical modeling, we investigate the relationships and implications of particle interactions within this field theory. Results indicate that the derivation not only aligns with established laws of motion but also provides new insights into the behavior of particles in motion relative to observers in different frames of reference. This approach presents an innovative perspective on classical mechanics, offering a potential pathway for future research into the integration of quantum mechanics and relativity. Furthermore, it invites a reevaluation of foundational arguments in physics concerning the nature of space and time. Period.
@article{3164fd30-d525-473c-b23e-0bc3b3e60ef5,
title={Investigating the Operational Parameters},
author={Andreas Maletzky and Dr. Gerard G. Dumancas},
year={2026},
language={en}
}TY - JOUR TI - Investigating the Operational Parameters AU - Andreas Maletzky AU - Dr. Gerard G. Dumancas PY - 2026 LA - en ER -
Arthur C. Reardon
This publication, edited by Arthur C. Reardon and published by ASM International®, serves as a comprehensive guide in the field of materials science.
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