Biology

An interdisciplinary approach to life sciences. From cellular mechanics and biophysical processes to the transformation of energy in nature and modern biological theories—discover the latest research, in-depth analysis, and scholarly articles in this category.

New Laws of Inheritance According to Quantum Fractal Biology

Mendel’s laws of inheritance (dominance, segregation, independent assortment) are the cornerstones of classical genetics. However, when viewed from the perspective of quantum fractal biology, these laws are merely a simplified projection of a “linear” model. The fractal approach proposes that inheritance is a multiscale network woven with energy motifs and shaped by quantum resonances.

Quantum Fractal Biology Lecture Notes

Reveals how biological systems can be explained at the intersection of fractal mathematics and quantum mechanics. These notes systematically cover how quantum effects integrate with fractal structures both at the cellular level and in genetic information transfer.

Spiral-Fractal Evolution Theory

1. Basic Idea: Evolution = Flow of Motifs, Selection = Resonance Alignment Classical Evolution: Mutation + Selection + Drift + Migration Spiral–Fractal Evolution Theory: Motif Variation + Resonance Alignment + Fractal Propagation + Spiral Time Short Formula: Evolution = 𝑑𝑀 / 𝑑𝑡 ,Selection = ℛ(𝑀, 𝒞) 𝑀: spiral–fractal motif (genome + structure + behavior) 𝒞:

Spiral-Fractal Genetic Theory

Genome = Encoded Energy–Information Map of the Spiral–Fractal Motif 1. FUNDAMENTAL AXIOMS OF GENETICS A1 — The gene is the linear code of the spiral–fractal motif. The DNA sequence is not a “text,” but a 1-dimensional projection of the spiral–fractal motif. 𝐺 ≡ Π(𝑀) 𝑀: spiral–fractal motif Π: projection operator A2 — Genetic information is