Physics

The latest theories and fundamental laws of physics, all in one place. From thermodynamics and electromagnetism to astrophysics, quantum mechanics, and particle physics—explore research and insights written with academic depth, yet made perfectly accessible.

Towards Fractal Physics

Below are resources on fractal mechanics, fractal atom theory, and quantum mechanics. These are based directly on academic and theoretical studies; some address the classical foundations of quantum mechanics, while others deal with fractal mathematics and physics applications.

Common Motifs in Nature at Different Scales 5 – The Energy Carriers Motif

In natural systems, the “energy carriers” motif represents the transformation mechanism that provides energy to the system. On a cellular scale, this task is undertaken by mitochondria and electron transitions, while on a cosmic scale, it is carried out by the nuclear fusion of stars. The essence of the motif: Energy is produced at the center and distributed to the system through carrier mechanisms.

Quantum Fractal Atom Theory

Let’s build the quantum fractal atom theory step by step. This theory aims to explain both energy levels and wave-particle behavior through multiscale repeating structures by extending classical atomic models (Bohr, Schrödinger) with fractal motifs.

Common Motifs at Different Scales in Nature 2 – The Membrane-Boundary Motif

The “Membrane-Boundary” motif represents the protective barrier that regulates the internal-external interaction of systems in nature. At the cellular scale, this manifests as the cell membrane, and at the planetary scale, as the atmosphere/magnetosphere. In both cases, the function of the motif is the same: to protect internal processes, filter external influences, and maintain equilibrium.

Quantum Fractal Electronics – New Circuit Laws

Quantum fractal electronics redefines circuit behaviors beyond classical Ohm, Kirchhoff, and Maxwell laws through fractal dimension (𝐷𝑓), multiscale resonance, and quantum entanglement motifs. The goal here is to explain electron flow not only with linear resistance/capacitance but with self-similar energy distributions.