Articles

Application of Elementary Circuit Topology to Biochemical Molecule Design

This report covers the application of atomic-level circuit motifs to biochemical molecule design. Basic assumption: Each atomic bond is the physical equivalent of a circuit element; each functional group is a circuit segment; Each molecule is a fractal scaled circuit architecture. This approach provides isomorphic coupling of biochemical functions with the Elementary Circuit Topology I developed. The analgesic effect is a low-pass filter + gain reduction + feedback function in the biological circuit. Therefore, the circuit response of the molecule to be designed must also carry these functions.

Fractal Standard Model (FSM)

Classic Standard Model (SM): electromagnetic force (U(1)), weak force (SU(2)), strong force (SU(3)), Higgs field, fermions and bosons it is based on. Fractal Standard Model (FSM) is: motif area, spin field, entanglement field, fractal gauge fields, fracton particles, fractal Higgs field, fractal mass generation it is built on. FSM is the fractal generalization of classical SM.

Fractal Field Quantization (FFT-Q)

In quantum field theory (QFT): Field → is the fundamental physical object, Particle → is the quantum of the field, Interaction → is the algebra of field operators. Fractal Field Theory (FFT) is: Field → motif + spin + entanglement trio, Evolution → iterative transformation occurs with T(n), Norm → entanglement is determined by fEnt(n). Therefore, the quantization of FFT is a fractal generalization of classical QFT.

Expression of Black Holes in the Language of Fractal Mechanics

Expressing black holes in the language of fractal mechanics is actually one of the most natural applications of fractal mechanics. Because black hole: density → infinite, time → stop, info → jam, phase → deadlock, amplitude → slump, entanglement → near maximum shows such behavior. All of these behaviors match exactly the basic variables of fractal mechanics.