Cell Language Theory, The: Connecting Mind And Matter

64 The Cell Language Theory: Connecting Mind and Matter

b2861 The Cell Language Theory: Connecting Mind and Matter “6x9”

The phenomenon of human mind can be connected to the vibrational

motions of individual chemical bonds of enzymes in the human brain.

(3.6)

Since the mathematical principle underlying Statements (3.5) and (3.6)

is the Fourier theorem, we may refer to these statements as the corollaries

of a more general statement to be referred to as

The Fourier Principle-based Connection between Matter and Mind

(FPCMM). (3.7)

Indirect support for the validity of FPCMM is provided by (i) the fit-

ting of the long-tailed histograms generated by atomic and brain processes

to the Planckian distribution equation (PDE) that embodies the wave–

particle duality principle (see Chapter 8 and [26, 27]) and (ii) the reso-

nance wave-like structures in the genetic code that can be described in

terms of matrix mathematics (see Chapter 5 and [158]).

During the mitochondrial respiration, electrons and protons get sepa-

rated from each other because the Fe ions in the ETCs can only accept elec-

trons, leaving protons behind. Thus, metal ions including Fe ions can be

referred to as charge separators in mitochondria. The electron pathways

through the respiratory chain are precisely characterized due to the well-

known structures of the ETCs, I–IV (e.g., see Figures 3.20, 3.32, 3.39,

and 3.40). But the pathway or trajectory of the respiratory protons that

accompany electrons are not as well known, except in a few cases as exem-

plified by the two proton-transfer pathways identified in cytochrome c oxi-

dase (see Figures 3.39, 3.40(a), 3.40(b) and [118, 119]). It is postulated in

Figure 3.4 that the trajectories of intramembrane protons are non-random and

precisely regulated within the membrane phase (as indicated by the proton

pathways confined within the membrane along with the electron pathways).

In fact, if the concept of pseudolinkage of Wyman (see Section 3.2.10) is to

apply to oxidative phosphorylation, the proton pathways must be confined to

the intramembrane phase and not equilibrate with the extramembrane bulk

phase as the chemiosmotic hypothesis of Mitchell assumes (see Section

3.3.3), since the latter mechanism would be less efficient in conserving free

energy of chemical reactions than the intramembrane mechanism (see Figure

3.33). Regulation implies the participation of proteins, either as catalysts or

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