Quantum Information Realm
Description of Quantum Computer;
|| Introduction into the Qubit
processing abilities and quantum error correction protocols of a quantum
computer
The Advanced processing efficiency
and software compatibility of a Quantum Computer has obtained the awe of many
physicist and programmers for years since the introduction of Conjugate Coding
by physicist Stephen Weisner in the 1970's that acts as an essential structure
of the model matrices of the "Calderbank-Shor-Steane (CSS") and
"Low Density Parity Check code" (LPDC) Quantum stabilizer coding that
prevents decoherence that were to come from the super-positional
properties of the subatomic particles (Electrons/protons) inside of the stream
of qubits becomes polarized inside of a confining magnetic Hyperfine structure
(H= ub/Bo2 "electron" Gn/Un/Bo2 "nucleus" + Ao e/ 0 n
" interaction with hyperfine structure") through
entanglement of the particle's nucleus structure during a particle spin that
were come from an electric quadrupole charge based from the symmetry of the
particles dipole movement around the encompassing axis of the electric charge
distribution of the nucleus's ellipsoid inside of the confining hyperfine
structure utilizing the principals of the Bose-Eisenstein condensate of the
spherical harmonic functions of the polar coordinates of the homeomorphic structure
of the Qubit's bloch sphere that were to come from quantum noise (or Rabi
Flopping that were to eliminate any atomic coherence) that occurs when a
electron particle fluctuates at an optical frequency creating a spontaneous
emission and collapse of the electron particle's eigenfunction within the Qubit
inside of the structure of a Quantum Gate ( a singular qubit or classical
gate NOT-gate {0}+B{1}/ a {1} + B {0} the Hadamard gate acts a medium to
either polarize or to split the steam information between the position of the
qubits pure state and mixed state based from unity matrices between the qubits
superposition of a right circular and traverse (left to right ) polarized
photons encoding 0 and 1 "pure state"( H{0}=1/2 (l 0} + l 1})
"mixed state" ( H{1}=1/2 (l0}-l 1}) ) the stream of the encoded
information is transmitted by "alice and received by "bob" both
"alice and bob" act as unitary operators as well as provide
orthogonal measurements of the Qubits eigenvalues and the rotational axis of
the Qubit's particle spin within the density matrix of the Qubit's
blochsphere (following the assembly of the qubits being in a pure state when
being transmitted by alice being "{0} + {1}/2 using the rotation formula
of "Ry/-π2 amongst the X,Y and Z polar coordinates, when being received
into a mixed state by bob) during the “Einstein- Podolsky- rosen” photon
entanglement process between bob and alice using "Eve" as a quantum
channel when transferring the encoded qubits that is generated into a lambda/2
or lambda/4 code that projects the bosons and fermion pairs into a
symmetrical bell state when the fermions and bosons become entangled amongst
the transmission wavelength to modularly exponentiation (example of the
computation of modular exponentiation when using the multiple of 40 in a left
to right binary program would be 5/41 mod 9= {4547474735088646111895751953125}
mod 9 and when calculating the algorithm into a right to left binary it would
use the modulation multiple of 60 such as the calculation of the 3/61 being
3/61 mod 8 ={12717347825648619542883299603}) the bell pairs into a RSA
inverse algorithm using the Euclidean algorithm (used within GCD programming)
and coprime integers between bob
and alice. The fermions and the bosons would have to tunnel through the
hadamard gate while "eve" acts as a QKG system (Quantum Key
Generator that was purposed in 1984 by Charles Henry Bennett and Giles
Brassard that is utilized within the BB84 ,BB92 and Ekert91 cryptographic
protocols that uses the properties of the Von Neumann measurement of the
Pi and Qi stacks in unitary dynamics inside of the eigenvalue of the encoded
Qubit) specifically if eve were to intercept the QKG stream of data that
is being transferred between the public channel of Bob and alice, Eve would
have to be able to calculate the integer factorization of the transferring algorithm
of the original qubit which the principals of the No-Cloning theorem (purposed
in 1982 by William Wootters, Wojciech Hubert Zurek and Dennis Dieks) and
Quantum non-locality of a particle can teleport based from the isomorphic
structure of its unitary transformation inside of the ERP pair of particles
within the lambda/4 coding structure enter into a ERP single state based
from the encoded particle's density matrix being reduced by P= {Coa}2 {0}{0} +
{C1b}2{1} {1} that is encoded by Bob before the particle is transferred into a
mixed quantum state when the particle approaches the "SWAP" gate that
would were to be constructed from a series of photonic "NOT"
gates using quantum tunneling and the quantum dot as a vector point
between the particle teleportation when being transmitted to alice.
Another pioneer within quantum
encryption and modular exponentiation would be the physicist of the
Architecture of the "Shor Algorithm" for integer factorization
the computer scientist and mathematics professor of the Massachusetts institute
of technology Peter Wilson Shor that is used within 300 qubit quantum
simulation and the D-wave quantum computing system “Orion” that is used within
an adiabatic 16 qubit superconducting quantum processor amongst the quasi-loops
inside of its micro-circuitry similar to the architecture of a node graph
inside of a 7 qubit Nuclear Magnetic Resonance Quantum Computer that uses
the hamlitonian matrix to calculate the thermal equilibrium of the
particle's nuclei during a half spin inside of the qubit's density matrix
during the molecular tumbling of the particle's isotope when the particle
spin rate is split in half and divides the bit pairs using the
principals of quantum control and zeeman splitting (zeeman effect
developed by physicist Pieter Zeeman in 1902 showcasing the studies of particle
splitting with the particle's dipole movement inside of a plasma or
electromagnetic field inside of a spectral line during a angular moment of the
axis rotation of the nucleus inside of a particle when the particle is in a
quantum state) . The processing recognitive functionalities of a quantum
computer also had root within the work of physicist Richard Feynman with his
studies on quantum electrodynamics and quark theory with its adjudication of
quantum computing using the microstructure of Ion strings and how the encoded
ions can reach a superposition based from the interaction of the atoms and
protons generated by the attraction of the electron repulsion inside of a
quantum logic gate that traps the atoms and acts as qubit quantum memory
processor. the exponentional value of the trapped N-ions such as the
variable calculation of 2N (2^5= 32 2^ 10=1034 2^50=
1,125,899,906,842, 624 2^100= 1,267,650,600,228,229,401, 496,703,205,376) which
trapped ions inside of a qubit can become encoded as a photon based from the
quantization properties of a liner optic transformation using the Hamilton
matrix (e/uc^+ d-cd+ l 1 }a l 0 }b l 1}c l 0}d =e^-tan ucd+ {cos u^a}c^+c-d^+d
/e^tan uc^+d l 1} a l 0}b l 1} c l 1} d =cos u^ a l 1} a l 0 }b l
1} c l 0}= -l 1} a l 0} b l 0} c l 1 } d hat is brought by polarization
rotors and phase shifting between the orthogonal A and B acts as
polarization nodes for the controlled Qubit when defining the Cross-Kerr effect formula
inside of the Hamilton matrix using (H^Ckeer= ℏ ╥
/2 a^ + a (c^+d -cd+) ) and C and D act as annihilation operators inside
of the hadamard and NOT gates that acts a harmonic oscillator within processing
image and pattern recognition into an algorithm using quantum parallelism
to process the unit cells and pixilation for example a 8 x 8 black and
white square with an 32 X 20 array using photons to process the absorptive and
reflective parallel line geometry within binary optimization.
Superconducting electrons in a
cryogenic environment, Josephson Junctions the processing capacity of a silicon
chip and software of a quantum computer, The conventional nano-photonic
structure of a silicon chip that is used within quantum/micro processing,
plasmonics and quantum key distribution by using photonic qubits as
informational carriers for both photon-pair manipulation and entanglement using
a "SOI" Silicon-on-Insulator material amongst the bulk of the
Si-Mosfet (Silicon Metal Oxidate semiconductor field effect transistor)
that acts as a wave guide when transmitting terahertz microwave signals to the
chips connectors while having the qubit retrain it's quantum state when
transferring to each nano-photonic connecter within a span of 100 microseconds
amongst the chip's micro-ring's (containing about 5 -um radius and 400psi in
measurement) photon detectors that absorbs the photons that are being
transferred between the LC and RLC circuits using an electrical harmonic
variable compactor to modulate the optical communication of quantum information
between the LC and RLC circuits using ▲n=-00.1 as the index change among the
photon absorption changes of the pump pluses around micro-ring through the
probe input and output signals within the chip's micro-ring's nanocavities
▲n^NL= 21pump/▲a^NL=BTPA^nlpump. but of course the silicon chip has been
surpassed by Niobium chips and the 28/128/512 adiabatic qubit chips that
operates at a high efficiency with transmitting data faster than the silicon
chop without draining the computers reserves where the Niobium chip operates
within a speed of 6GHZ and consist of 1600 Josephson junctions and transmits up
to 60 billion gigabits per second while the circuitry acts as a superconducting
microprocessor
The Josephson effect or the Joseph
junction was originally developed by Brain David Josephson in 1962 with
converting a current of electrons inside of a non-conducting layers of metal
and alloy between two thin layer superconducting ceramic materials with
no additional voltage added to the layers while the non-conducting layers can
cooled around 20 degrees kelvin/nanokelvin or around the absolute zero mark to
have the metal reach a macroscopic phase transition once it reaches a
critical temperature (using a phase gradient to describe the phase transition
of the electron j= N8e ℏ /2m^ ∇φ using N
as the number of electrons ) causing a repulsion effect with the electron
particle's, causing the electron's to interact with the ionic lattice compounds
of the cooled metal after the crystal structure of the lattice compound
receives a positive charge when the electron are in low energy state creating a
energy gap between the temporal oscillations of the electron's particle phase
transition to cause the electrons to tunnel through superconducting material
that used when creating Magnetic flux/rapid single flux quantum effects within
quantum chips and "SQUID" Magnetometers to determine the equilibrium
of the particle's thermal fluctuations within the material to detect miniature
magnetic fields when the metal is an a meta-stable state due to the cryogenic
temperatures that is used within the Qubit gigahertz processing capacity of a
quantum chip when a sending a probe microwave signal that is used unitary
quantum-lattice based algorithms and cryptography to simulate a Bose-Einstein
condensate with the encodes qubits from the chip. that was originally developed
in 1996 when showing the usage of lattice based mathematical compounds to
encoded algorithms and homeomorphic encryptions
The Architecture of the Quantum
Computing software and applications that is used to help run simulation
protocols and processing speed that is used to solve prime factorization using
exponential parallelism and matrix multiplication when calculating the swap
aptitudes of unitary matrices of the qubits inside of the algorithm while
being processed when creating a spectral decomposition into a diagonalizable matrix
with using the quantum dot as an anchoring entanglement point for the qubit's eigenvalues
using the Cosine-Sine and Cayley-Hamilton decomposition theorem when the Bell
pair goes into a phase shift inside of isomorphism of Two Qubit’s matrice structure
with exponentiating the qubits into digits. but normally if there is a
complicated decomposition for a computer to compute into an encoding algorithm
it would be incapable of doing so. Which many of the programming inside of the
software uses the principals of the Dirac notation for modularizing the source
program using syntax, lexical and semantic analysis to tokenize the
algorithm strings which the data reaches the QCC (Quantum Computer Compiler)
for the code generating process for error correction.
Quantum Computing compatibles to
human neurobiology and cell structure.
The Relations between the quantum
computer, the neurological processing abilities and the cytoarchitectural
structure of the human brain has been synonymous for research and development
with duplicating that functionality into cybernetics and robotics. The
informational processing of the stimulus of thought can range to around 300 to
500 milliseconds based from neuron communication using the dorsal
("where?"system) and ventral ("what?" system)
pathways between the sub-cortical, inferior temporal cortex and neocortex areas
such as the singulate gyrus, isthmus, and thalamus that are beneath of the
corpus callosum of the pre frontal sections of the cerebral cortex with ranging
neuroactivity of 50-100 ms with processing the environmental surrounding such
as the phonon particles of coloration and light refraction though the
suprachiasmatic nucleus of the corpus callousm's brodmann areas that manages the melatonin levels and the
Circadain rhythm of the brain's time perception during its active and sleeping
phases with the superachiasmastic nucleus processes about 20,000 neurons for
image processing. But the conundrum is how can a human brain exhibit any
microscopic quantum behavioral patterns and how is the brain similar to a
quantum computer's atomic structure? The brain holds similarities of
experiencing a biological like decoherence within the higher brain’s
functionalities depending on the thermal temperatures of the tissue
structure(that were to exceed the temperatures -300 kelvin inside of the
brain's Microtubule that manages the centrosomes and basal bodies that is
consisted of motor proteins such as kinsein and dynein within the microtubule's
substructure)of the mid-brain that acts as its own respective satellite when
housing the brain's consciousness and other sensory functions that each
section. And another similarity can be noted about how the brain shares it's simulates
with nerve impulses inside of the Microtubles though the membranes proteins of
the co-enzyme" Adenosine-5 triphosphate " (ATP) that act as a light harvesting
protein Carotenoids and transfers electrons and other pigmentation absorbed by
light particles using a singlet exciton energy transfer to the phototropic
bacteria "Bacteriochlorophyll" that is studied by Quantum DNA
simulation and DNA computation with calculating the particles kinect velocity
inside of the mutli- component protein pigment assemblies inside of the
bacteria using Visual Molecular Dynamics "VMD" programs to run simulations
of the enzyme's helix strand structures to how a quantum computer would process
the qubits that oscillates at similar wavelengths to neural spike patterns,
which makes the microtubles a network of quantum computation between the Chla (Chlamydomonas-reinhardtii
) and flagella pathways inside of the Adenonsine-5 triphosphate structure
of the microtubules
Another development within quantum
computing is the development of a headband that consist intracranial
nanowires to harness the neurological processing abilities of the brain into a
biological computing interface/Brain computer interface or "BCI" that
consist of an microthread electrospun carbon based fiber, the headband's
electrodes magnetizes and entangles the electron particles inside glucose
content of the cerebro-spinal fluid and the microglia cells near the spinal
cord and brain tissue with using the brain's axon speed as the processing
source of the headband that were to come from the dielectric properties of the
myelin inside of the axon structure of the white matter of the brain. With this
headband it becomes possible for the brain to interact with other users of this
headband or other technological appliances or even to operate prosthetic limbs,
with using the 64X64 glucose fuel cells as a superconducting material
||
No comments:
Post a Comment