The Ümit approach is a model that relates the spatiotemporal distribution of wave functions to energy density. Electromagnetic resonance describes systems in which electric and magnetic fields produce maximum energy absorption at a specific frequency. This report will develop a new wave model that combines both theories and analyze its physical applicability.
In this report, we examine the hypothesis that the observer effect in quantum systems is not only a physical measurement interference but also a determining parameter, namely, the measurement duration. According to the hypothesis, whether the measurement duration is short or long changes the prominence of the interference pattern (the coherence of the wave function) in the double-slit experiment.
Traditionally, the definition of 𝑒 represents exponential growth and continuous systems. However, our mathematical and optical analyses show that ee is not just an abstract constant; it acts as a focal point for energy!
Below is a comprehensive article report detailing the mathematical foundations of the universal resonance model, the tests performed with the signal processing methods used, and the results obtained.
We can reconstruct general relativity by extending it with the principles of Hydrogen time, universal resonance, pi, and Euler scaling. Here is an alternative framework based on these theories:
In this study, a new theory is presented that models the propagation of energy density within a three-dimensional volume. This study is developed as an alternative to existing two-dimensional energy density models and offers new perspectives in both subatomic particle physics and cosmology. The mathematical basis of the model shows that energy density decreases with a logarithmic trend and that negative energy densities contribute to proton stability. Simulations and mathematical analyses support the theory, demonstrating its compatibility with existing physical theories and opening up new avenues for research.
The Ümit approach is a model that analyzes energy density by considering the spatial and temporal distribution of wave functions in physical systems within an alternative framework. This approach reinterprets classical wave mechanics concepts based on the amount of matter moving, the distance/volume traveled, and the number of repetitions of the motion. In its normalized form, the Ümit approach enhances physical and mathematical consistency by ensuring energy conservation.
Classical electronic processors scaled according to Moore’s law, but capacity growth is now limited by thermal limitations, quantum tunneling, and RC delays. The optical cubic propagation architecture I’m working on aims to overcome these limits through photon streaming and volumetric parallelism.