Physics

This study investigates the basis of the periodic oscillations observed during the expansion of the universe and how the 3 Hz wave pattern emerged based on the cosmological resonance hypothesis. The theoretical model is based on the mathematical formulation of sinusoidal wave functions. Fourier analysis, Signal-to-Noise Ratio (SNR) measurements, and statistical bootstrap tests demonstrate that the 3 Hz component is strong and statistically significant. This paper aims to shed light on the connections between the expansion dynamics of the universe and the distribution of large-scale structures using datasets such as Planck, SDSS, and DES.

In this report, we mathematically model the effect of acceleration on time scales and explain how it can be applied to different physical contexts.

This study aims to analyze the role of π and e focal points in information transfer and energy conversion.

Hydrogen time (tHt_H) is the fundamental time scale calculated based on the 21 cm transition line frequency of the hydrogen atom. This frequency provides a universal and stable natural reference time.

Throughout this study, we defined a time scale based on the hydrogen transition frequency, creating a more natural and universal reference time than the classical time scale. The study involved the following steps:

This function:
– Creates energy density by focusing on the e and π points.
– Provides stabilization by adding optical harmonics.
– Contains a mechanism that carries energy information via phase modulation.

The universal resonance model presented in the report mathematically formulates how local periodicities can be transformed on a universal scale. This work, which reveals the connections between wave mechanics, frequency scaling, and gravitational acceleration, has been tested with signal processing techniques and supported by robust statistical results.

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.

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.