Quantum-mechanical
models
of
human
cognition,
opinion
formation
and
decision-making
have
changed
the
way
we
understand
predict
behaviour
in
many
practical
situations,
including
political
elections,
financial
decisions
international
affairs.
Yet,
at
present,
such
overlook
certain
essential
social
aspects
self-identification.
In
this
paper,
introduce
a
magnetism-inspired
quantum-mechanical
model
gender
fluidity,
concept
that
challenges
norms
across
globe.
Addressing
number
independent
suggestions
made
by
members
general
public
concerning
potential
analogy
between
quantum
superposition
non-binary
self-identification,
explore
new
territories,
demonstrating
physic
magnetism
can
help
explain
fluidity
similar
phenomena
better
than
traditional
cognition
perception.
We
anticipate
proposed
be
used
to
analyse
experimental
datasets
aimed
develop
sexual
orientation
identity
legal
definitions
as
well
create
artificial
intelligence
systems
sensibly
identify
both
binary
genders.
Algorithms,
Journal Year:
2024,
Volume and Issue:
17(1), P. 30 - 30
Published: Jan. 10, 2024
Ambiguous
optical
illusions
have
been
a
paradigmatic
object
of
fascination,
research
and
inspiration
in
arts,
psychology
video
games.
However,
accurate
computational
models
perception
ambiguous
figures
elusive.
In
this
paper,
we
design
train
deep
neural
network
model
to
simulate
human
the
Necker
cube,
an
drawing
with
several
alternating
possible
interpretations.
Defining
weights
connection
using
quantum
generator
truly
random
numbers,
agreement
emerging
concepts
artificial
intelligence
cognition,
reveal
that
actual
perceptual
state
cube
is
qubit-like
superposition
two
fundamental
states
predicted
by
classical
theories.
Our
results
finds
applications
games
virtual
reality
systems
employed
for
training
astronauts
operators
unmanned
aerial
vehicles.
They
are
also
useful
researchers
working
fields
machine
learning
vision,
quantum–mechanical
mind
decision
making.
Electronics,
Journal Year:
2024,
Volume and Issue:
13(6), P. 1164 - 1164
Published: March 21, 2024
Physical
reservoir
computing
(RC)
is
a
machine
learning
algorithm
that
employs
the
dynamics
of
physical
system
to
forecast
highly
nonlinear
and
chaotic
phenomena.
In
this
paper,
we
introduce
quantum
RC
probed
atom
in
cavity.
The
experiences
coherent
driving
at
particular
rate,
leading
measurement-controlled
evolution.
proposed
can
make
fast
reliable
forecasts
using
small
number
artificial
neurons
compared
with
traditional
algorithm.
We
theoretically
validate
operation
reservoir,
demonstrating
its
potential
be
used
error-tolerant
applications,
where
approximate
approaches
may
feasible
conditions
limited
computational
energy
resources.
Information,
Journal Year:
2024,
Volume and Issue:
15(7), P. 413 - 413
Published: July 18, 2024
Paradoxical
decision-making
behaviours
such
as
preference
reversal
often
arise
from
imprecise
or
noisy
human
preferences.
Harnessing
the
physical
principle
of
magnetisation
in
ferromagnetic
nanostructures,
we
developed
a
model
that
closely
reflects
dynamics.
Tested
against
spectrum
psychological
data,
our
adeptly
captures
complexities
inherent
individual
choices.
This
blend
physics
and
psychology
paves
way
for
fresh
perspectives
on
understanding
imprecision
processes,
extending
reach
current
classical
quantum
models
behaviour
decision
making.
Big Data and Cognitive Computing,
Journal Year:
2025,
Volume and Issue:
9(1), P. 12 - 12
Published: Jan. 14, 2025
Contemporary
machine
learning
(ML)
systems
excel
in
recognising
and
classifying
images
with
remarkable
accuracy.
However,
like
many
computer
software
systems,
they
can
fail
by
generating
confusing
or
erroneous
outputs
deferring
to
human
operators
interpret
the
results
make
final
decisions.
In
this
paper,
we
employ
recently
proposed
quantum
tunnelling
neural
networks
(QT-NNs)
inspired
brain
processes
alongside
cognition
theory
classify
image
datasets
while
emulating
perception
judgment.
Our
findings
suggest
that
QT-NN
model
provides
compelling
evidence
of
its
potential
replicate
human-like
decision-making.
We
also
reveal
be
trained
up
50
times
faster
than
classical
counterpart.
Communications Engineering,
Journal Year:
2024,
Volume and Issue:
3(1)
Published: June 19, 2024
Abstract
While
physical
reservoir
computing
is
a
promising
way
to
achieve
low
power
consumption
neuromorphic
computing,
its
computational
performance
still
insufficient
at
practical
level.
One
approach
improving
deep
in
which
the
component
reservoirs
are
multi-layered.
However,
all
of
deep-reservoir
schemes
reported
so
far
have
been
effective
only
for
simulation
and
limited
reservoirs,
there
no
reports
nanodevice
implementations.
Here,
as
an
ionics-based
implementation
we
report
demonstration
with
maximum
four
layers
using
ion
gating
reservoir,
small
high-performance
reservoir.
previously
scheme
did
not
improve
our
deep-ion
achieved
normalized
mean
squared
error
9.08
×
10
−3
on
second-order
nonlinear
autoregressive
moving
average
task,
best
any
this
task.
More
importantly,
device
outperformed
full
computing.
The
dramatic
improvement
architecture
paves
high-performance,
large-scale,
neural
network
devices.
Dynamics,
Journal Year:
2024,
Volume and Issue:
4(1), P. 119 - 134
Published: Feb. 8, 2024
Reservoir
computing
(RC)
systems
can
efficiently
forecast
chaotic
time
series
using
the
nonlinear
dynamical
properties
of
an
artificial
neural
network
random
connections.
The
versatility
RC
has
motivated
further
research
on
both
hardware
counterparts
traditional
algorithms
and
more-efficient
RC-like
schemes.
Inspired
by
processes
in
a
living
biological
brain
solitary
waves
excited
surface
flowing
liquid
film,
this
paper,
we
experimentally
validated
physical
system
that
substitutes
effect
randomness
underpins
operation
algorithm
for
transformation
input
data.
Carrying
out
all
operations
microcontroller
with
minimal
computational
power,
demonstrate
so-designed
serves
as
technically
simple
counterpart
to
‘next-generation’
improvement
algorithm.
Dynamics,
Journal Year:
2024,
Volume and Issue:
4(3), P. 643 - 670
Published: Aug. 12, 2024
Artificial
intelligence
(AI)
systems
of
autonomous
such
as
drones,
robots
and
self-driving
cars
may
consume
up
to
50%
the
total
power
available
onboard,
thereby
limiting
vehicle’s
range
functions
considerably
reducing
distance
vehicle
can
travel
on
a
single
charge.
Next-generation
onboard
AI
need
an
even
higher
since
they
collect
process
larger
amounts
data
in
real
time.
This
problem
cannot
be
solved
using
traditional
computing
devices
become
more
power-consuming.
In
this
review
article,
we
discuss
perspectives
development
neuromorphic
computers
that
mimic
operation
biological
brain
nonlinear–dynamical
properties
natural
physical
environments
surrounding
vehicles.
Previous
research
also
demonstrated
quantum
processors
(QNPs)
conduct
computations
with
efficiency
standard
computer
while
consuming
less
than
1%
battery
power.
Since
QNPs
are
semi-classical
technology,
their
technical
simplicity
low
cost
compared
make
them
ideally
suited
for
applications
systems.
Providing
perspective
future
progress
unconventional
reservoir
surveying
outcomes
200
interdisciplinary
works,
article
will
interest
broad
readership,
including
both
students
experts
fields
physics,
engineering,
technologies
computing.
Atoms,
Journal Year:
2024,
Volume and Issue:
12(2), P. 10 - 10
Published: Feb. 6, 2024
Extreme
learning
machines
explore
nonlinear
random
projections
to
perform
computing
tasks
on
high-dimensional
output
spaces.
Since
training
only
occurs
at
the
layer,
approach
has
potential
speed
up
process
and
capacity
turn
any
physical
system
into
a
platform.
Yet,
requiring
strong
dynamics,
optical
solutions
operating
fast
processing
rates
low
power
can
be
hard
achieve
with
conventional
materials.
In
this
context,
manuscript
explores
possibility
of
using
atomic
gases
in
near-resonant
conditions
implement
an
extreme
machine
leveraging
their
enhanced
properties.
Our
results
suggest
that
these
systems
have
not
work
as
but
also
computations
few-photon
level,
paving
opportunities
for
energy-efficient
solutions.
Quantum-mechanical
models
of
human
cognition,
opinion
formation
and
decision-making
have
changed
the
way
we
understand
predict
behaviour
in
many
practical
situations,
including
political
elections,
financial
decisions
international
affairs.Yet,
at
present,
such
overlook
certain
essential
social
aspects
self-identification.In
this
paper,
introduce
a
magnetism-inspired
quantum-mechanical
model
gender
fluidity,
concept
that
challenges
norms
across
globe.Addressing
number
independent
suggestions
made
by
members
general
public
concerning
potential
analogy
between
quantum
superposition
non-binary
self-identification,
explore
new
territories,
demonstrating
physic
magnetism
can
help
explain
fluidity
similar
phenomena
better
than
traditional
cognition
perception.We
anticipate
proposed
be
used
to
analyse
experimental
datasets
aimed
develop
sexual
orientation
identity
legal
definitions
as
well
create
artificial
intelligence
systems
sensibly
identify
both
binary
genders.
Journal of Physics A Mathematical and Theoretical,
Journal Year:
2024,
Volume and Issue:
57(29), P. 295702 - 295702
Published: July 9, 2024
Abstract
Reservoir
computing
(RC)
is
an
efficient
artificial
neural
network
for
model-free
prediction
and
analysis
of
dynamical
systems
time
series.
As
a
data-based
method,
the
capacity
RC
strongly
affected
by
sampling
interval
training
data.
In
this
paper,
taking
Lorenz
system
as
example,
we
explore
influence
on
performance
in
predicting
chaotic
sequences.
When
increases,
first
enhanced
then
weakened,
presenting
bell-shaped
curve.
By
slightly
revising
calculation
method
output
matrix,
with
small
can
be
improved.
Furthermore,
learn
reproduce
state
large
interval,
which
almost
five
times
larger
than
that
classic
fourth-order
Runge–Kutta
method.
Our
results
show
applications
where
intervals
are
constrained
laid
foundation
building
fast
algorithm
iteration
steps.