Ümit Arslan

Universal Resonance and Gravitational Acceleration

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 Effects of Sunlight and Temperature Differences on Living Life

The continuity of life depends on the way solar radiation shapes the temperature balance on Earth. Solar radiation is the primary energy source driving ecosystems, driving biochemical transformations and changes in the structure of matter when certain temperature differences are maintained constant. Mathematical modeling of these processes can be approached from the perspectives of both thermodynamics and quantum field theory.

Combined Ümit-Electromagnetic Resonance Wave Model

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.

The Relationship of the Observer Effect with the Time Dimension in the Double Slit Experiment

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.

3D Energy Distribution and Its Impact on Proton Stability

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.