Cell Language Theory, The: Connecting Mind And Matter

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116 The Cell Language Theory: Connecting Mind and Matter

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

any osmotic barrier, the essential requirement of chemiosmosis, i.e., the
conversion of chemical energy to osmotic energy. In other words, the che-
miosmotic hypothesis has little to say concerning the fundamental molecu-
lar mechanisms underlying enzymic catalysis and muscle contraction that
do not require any membranes.
Physicists distinguish between kinematics and dynamics. The former
describes the motion of objects in space and time without investigating the
cause of motions, i.e., the source of the forces involved (https://
en.wikipedia.org/wiki/Kinematics). In contrast, the latter (also called ana-
lytical dynamics) investigates the motion of bodies and its causes, i.e.,
forces (https://en.wikipedia.org/wiki/Analytical_dynamics) and force-
generating mechanisms. The chemiosmotic model of P. Mitchell [138–
141] is concerned primarily with the kinematics of oxidative phosphorylation,
i.e., the movement of protons within and across biomembranes in relation
to the phosphorylation process of ADP to form ATP (see Figures 3.32(a)
and (b)) without specifying the mechanism underlying the generation of
the forces behind the proton movement. However, the conformon model
is built upon the basic molecular mechanisms underlying the conversion
of the chemical energy of oxidizable substrate to the mechanical energy
of the ATP synthase that drives the synthesis of ATP from ADP and Pi
(see the a to c transition in Figure 3.30(a)) and Section 3.4.7.

Table 3.14 A brief comparison between the chemiosmotic and the EMC (or conformon)
models of oxidative phosphorylation.
Oxidation/respiration: NADH + ½ O 2 + H+ → NAD+ + H 2 O (3.32)
Phosphorylation: ADP + Pi → ATP + H 2 O (3.33)
The chemiosmotic model [138, 139]:
Respiration → ∆pH + ∆y → ATP (3.34)
The conformon model [8, 14, 143, 145]:
|→ ∆pH + ∆y (3.35)
|
Respir. → conform. ----|→ ATP (3.36)
|
|→ NADPH (3.37)
Note: Conformons are defined as the conformational strains of biopolymers that store mechanical
energy at sequence-specific sites to generate forces to drive goal-directed molecular motions in living
cells (see Section 3.4 and [6, 65]).

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