DISCUSSIONS
In this work we introduced an operationalfor malismand a relational
reference frame theory that predicts a fundamental decoherence
mechanism, by combining black-hole cryptography solutions to Einstein’s
Eqsfor perfor ming quantum communication, neural matrix factorizations,
and putative ligand-receptor visualizations to apply quantum mechanics
from the point of view of a reference frame translated to a quantum
pharmacophoric system of (( 2S, 5R, 6R) ‐6‐(( 2S) ‐2‐amino‐2‐ phenylacetamido) ‐3, 3‐
dimethyl‐7‐oxo‐ 4‐thia‐1‐ azabicyclo ( 3. 2. 0)heptane‐2‐carbonyloxy), ( { (( 2‐amino‐6‐ oxo‐ 6,
9‐dihydro‐3H‐purin‐9‐yl) oxy) ( hydroxy)phosphoryl} oxy) phosphinic acid―chemical bridge, which we
call quantum reference frame. ( 31-42, 43) This
reference frame has an arrow of time emerges from a time-symmetric
theory on virtual compound libraries and its own degrees of freedom,
which can be in quantum superposition or entangled and evolve in time
according to their own Hamiltonian with respect to the docking frame of
reference. Moreover, our model adopts a relational view, according to
which any reference frame is described as a quantum degree of freedom
relatively to another reference frame, collapse of the wave packet and
circumvents the problem of generalizing chemical characters to a quantum
pharmacophoric system as the probability interpretation which was only
ever applied to diagonal density operators. Hence, theframe of reference
in this research paper by combining black-hole cryptography solutions to
Einstein’s Eqsfor perfor ming quantum cryptographic communications is a
quantum system relative to the quantum reference frame of a
pharmacophoric system of (( 2S, 5R, 6R) ‐ 6‐(( 2S) ‐2‐amino‐2‐ phenylacetamido) ‐3, 3‐
dimethyl‐7‐oxo‐ 4‐thia‐1‐ azabicyclo ( 3. 2. 0)heptane‐2‐ carbonyloxy), ( { (( 2‐amino‐6‐oxo‐ 6,
9‐dihydro‐3H‐purin‐9‐yl) oxy) ( hydroxy)phosphoryl} oxy) phosphinic acid, much like the pharmacophoric
system of (( 2S, 5R, 6R) ‐6‐ (( 2S)‐2‐amino‐2‐ phenylacetamido) ‐3, 3‐ dimethyl‐7‐oxo‐ 4‐thia‐1‐
azabicyclo ( 3. 2. 0) heptane‐ 2‐carbonyloxy),
( { (( 2‐amino‐6‐oxo‐ 6, 9‐dihydro‐3H‐purin‐9‐yl)oxy) ( hydroxy) phosphoryl} oxy) phosphinic
acid that interprets a quantum system relative to the laboratory frame.
This allows us to avoid assuming the existence of an external
perspective of an absolute reference frame and choose a generalized
parity-swap operator which acts as a piece of information that enables
the sender of a message to encrypt the message and the receiver of a
message to decrypt the message ( Hoffstein, Pipher, &
Silverman, 2008) in such a way that the solutions of the Eqs of
motion of pharmacophoric system C from the point of view of A are of
opposite sign to those of the Eqs of motion of pharmacophoric system of(( 2S, 5R, 6R) ‐ 6‐ (( 2S) ‐2‐amino‐2‐
phenylacetamido) ‐ 3, 3‐dimethyl‐7‐oxo‐ 4‐thia‐1‐ azabicyclo( 3. 2. 0) heptane‐2‐ carbonyloxy), ( {(( 2‐amino‐6‐ oxo‐6, 9‐dihydro‐ 3H‐puri n‐9‐yl)oxy) ( hydroxy) phosphoryl} oxy) phosphinic
acid from the point of view of C. Considering that quantum
cryptographical techniques will continue to advance drug discovery
approaches to obtain the relational degrees of freedom from the very
start physical degrees of freedom to be relational from the point of
view of a chosen QRF. These Schrödinger inspired docking algorithms when
combining with black-hole solution to Einstein’s Eqs as seen from a QRF
and other chemistry-theoretic tasks of the reference-frame
transformation for finding topological descriptors, eigenvectors, and
eigenvalues with advanced machine learning algorithms, such as the data
mining to merge pharmacophoric elements used could be appropriate to
design multi-targeted ligandsfor other diseases as well.(METHODS AND MATERIALS) (Scheme of Eqs. 1-210),(METHODS AND MATERIALS) (Cluster of Eqs. 1-104)