Diabetic
neuropathy,
a
common
complication
of
diabetes
mellitus,
significantly
impacts
the
quality
life
for
millions
individuals
worldwide.
It
is
characterized
by
nerve
damage
that
can
lead
to
pain,
numbness,
and
impaired
functionality
in
affected
individuals.
With
rise
artificial
intelligence
(AI)
machine
learning
(ML)
technologies,
there
has
been
growing
interest
utilizing
these
techniques
enhance
diagnosis,
prediction,
management
diabetic
neuropathy.
This
research
paper
aims
explore
current
state
AI
ML
applications
highlighting
advancements,
challenges,
future
directions.
Frontiers in Endocrinology,
Journal Year:
2024,
Volume and Issue:
15
Published: April 29, 2024
Background
Diabetic
foot
complications
impose
a
significant
strain
on
healthcare
systems
worldwide,
acting
as
principal
cause
of
morbidity
and
mortality
in
individuals
with
diabetes
mellitus.
While
traditional
methods
diagnosing
treating
these
conditions
have
faced
limitations,
the
emergence
Machine
Learning
(ML)
technologies
heralds
new
era,
offering
promise
revolutionizing
diabetic
care
through
enhanced
precision
tailored
treatment
strategies.
Objective
This
review
aims
to
explore
transformative
impact
ML
managing
complications,
highlighting
its
potential
advance
diagnostic
accuracy
therapeutic
approaches
by
leveraging
developments
medical
imaging,
biomarker
detection,
clinical
biomechanics.
Methods
A
meticulous
literature
search
was
executed
across
PubMed,
Scopus,
Google
Scholar
databases
identify
pertinent
articles
published
up
March
2024.
The
strategy
carefully
crafted,
employing
combination
keywords
such
“Machine
Learning,”
“Diabetic
Foot,”
Foot
Ulcers,”
Care,”
“Artificial
Intelligence,”
“Predictive
Modeling.”
offers
an
in-depth
analysis
foundational
principles
algorithms
that
constitute
ML,
placing
special
emphasis
their
relevance
sciences,
particularly
within
specialized
domain
pathology.
Through
incorporation
illustrative
case
studies
schematic
diagrams,
endeavors
elucidate
intricate
computational
methodologies
involved.
Results
has
proven
be
invaluable
deriving
critical
insights
from
complex
datasets,
enhancing
both
planning
for
management.
highlights
efficacy
decision-making,
underscored
comparative
analyses
prognostic
assessments
applications
care.
Conclusion
culminates
prospective
assessment
trajectory
realm
We
believe
despite
challenges
limitations
ethical
considerations,
remains
at
forefront
paradigms
management
are
globally
applicable
precision-oriented.
technological
evolution
unprecedented
possibilities
opportunities
patient
Biosensors,
Journal Year:
2022,
Volume and Issue:
12(11), P. 985 - 985
Published: Nov. 8, 2022
Diabetic
foot
syndrome
is
a
multifactorial
pathology
with
at
least
three
main
etiological
factors,
i.e.,
peripheral
neuropathy,
arterial
disease,
and
infection.
In
addition
to
complexity,
another
distinctive
trait
of
diabetic
its
insidiousness,
due
frequent
lack
early
symptoms.
recent
years,
it
has
become
clear
that
the
prevalence
increasing,
among
diabetes
complications
stronger
impact
on
patient's
quality
life.
Considering
complex
nature
this
syndrome,
artificial
intelligence
(AI)
methodologies
appear
adequate
address
aspects
such
as
timely
screening
for
identification
risk
ulcers
(or,
even
worse,
amputation),
based
appropriate
sensor
technologies.
review,
we
summarize
findings
pertinent
studies
in
field,
paying
attention
both
AI-based
methodological
physiological/clinical
study
outcomes.
The
analyzed
show
AI
application
data
derived
by
different
technologies
provides
promising
results,
but
our
opinion
future
may
benefit
from
inclusion
quantitative
measures
simple
sensors,
which
are
still
scarcely
exploited.
Journal of Tissue Viability,
Journal Year:
2024,
Volume and Issue:
unknown
Published: July 1, 2024
Globally,
diabetes
mellitus
poses
a
significant
health
challenge
as
well
the
associated
complications
of
diabetes,
such
diabetic
foot
ulcers
(DFUs).
The
early
detection
DFUs
is
important
in
healing
process
and
machine
learning
may
be
able
to
help
inform
clinical
staff
during
treatment
process.
Biomedical Signal Processing and Control,
Journal Year:
2024,
Volume and Issue:
92, P. 105998 - 105998
Published: Feb. 8, 2024
Diabetes
is
a
medical
condition
affecting
multiple
organs
and
systems
due
to
high
blood
glucose
levels
in
the
body
which
cause
diabetic
neuropathy
foot
ulcers.
Conventionally,
diabetes
detected
using
invasive
methods
such
as
pricking
finger
measuring
glucose.
However,
are
not
convenient
can
pain
patients.
An
alternative
method
detect
use
gait
analysis
abnormalities
be
analysed
patterns
predict
severity.
To
our
best
knowledge,
no
studies
have
investigated
of
acceleration
for
detection
hybrid
deep
learning
models.
Current
research
utilises
models
with
non-gait
data
electrocardiography
Pima
Indians
Database.
This
paper
aims
classify
by
utilising
from
wearable
sensors
placed
on
hip,
knees,
ankles,
employing
model
CNN-LSTM.
The
proposed
CNN-LSTM
consists
two
convolutional
layers
LSTM
layers.
By
combining
models,
extract
important
features
learn
classification.
performance
compared
CNN
accuracy,
precision,
recall,
F1
score,
AUC
ROC.
Compared
existing
methods,
has
achieved
higher
accuracy
91.25%,
surpassing
that
current
methods.
Hence,
this
demonstrates
non-invasive
techniques
hold
potential
replace
traditional
In
future,
muscle
activation
forces
together
improve
detection.
Canadian Journal of Cardiology,
Journal Year:
2024,
Volume and Issue:
40(10), P. 1922 - 1933
Published: Aug. 5, 2024
Type
2
diabetes
mellitus
(T2DM),
a
complex
metabolic
disorder
that
burdens
the
health
care
system,
requires
early
detection
and
treatment.
Recent
strides
in
digital
technologies,
coupled
with
artificial
intelligence
(AI),
may
have
potential
to
revolutionize
T2DM
screening,
diagnosis
of
complications,
management
through
development
biomarkers.
This
review
provides
an
overview
applications
AI-driven
biomarkers
context
diagnosing
managing
patients
T2DM.
The
benefits
using
multisensor
devices
develop
are
discussed.
summary
these
findings
patterns
between
model
architecture
sensor
type
presented.
In
addition,
we
highlight
pivotal
role
AI
techniques
clinical
intervention
implementation,
encompassing
decision
support
systems,
telemedicine
interventions,
population
initiatives.
Challenges
such
as
data
privacy,
algorithm
interpretability,
regulatory
considerations
also
highlighted,
alongside
future
research
directions
explore
use
screening
management.
Diagnostics,
Journal Year:
2023,
Volume and Issue:
13(2), P. 264 - 264
Published: Jan. 11, 2023
Diabetic
sensorimotor
polyneuropathy
(DSPN)
is
a
serious
long-term
complication
of
diabetes,
which
may
lead
to
foot
ulceration
and
amputation.
Among
the
screening
tools
for
DSPN,
Michigan
neuropathy
instrument
(MNSI)
frequently
deployed,
but
it
lacks
straightforward
rating
severity.
A
DSPN
severity
grading
system
has
been
built
simulated
MNSI,
utilizing
longitudinal
data
captured
over
19
years
from
Epidemiology
Diabetes
Interventions
Complications
(EDIC)
trial.
Machine
learning
algorithms
were
used
establish
MNSI
factors
patient
outcomes
characterise
features
with
best
ability
detect
nomogram
based
on
multivariable
logistic
regression
was
designed,
developed
validated.
The
extra
tree
model
applied
identify
top
seven
ranked
that
identified
namely
vibration
perception
(R),
10-gm
filament,
previous
diabetic
neuropathy,
(L),
presence
callus,
deformities
fissure.
nomogram’s
area
under
curve
(AUC)
0.9421
0.946
internal
external
datasets,
respectively.
probability
predicted
created
using
score.
An
independent
dataset
validate
model’s
performance.
patients
divided
into
four
different
levels,
i.e.,
absent,
mild,
moderate,
severe,
cut-off
values
10.50,
12.70
15.00
less
than
50,
75
100%,
We
provide
an
easy-to-use,
reproducible
approach
determine
prognosis
in
DSPN.
Biosensors,
Journal Year:
2024,
Volume and Issue:
14(4), P. 166 - 166
Published: March 29, 2024
Background:
Diabetic
neuropathy
is
one
of
the
most
common
complications
diabetes
mellitus.
The
aim
this
study
to
evaluate
Moveo
device,
a
novel
device
that
uses
machine
learning
(ML)
algorithm
detect
and
track
diabetic
neuropathy.
comprises
4
sensors
positioned
on
back
hands
feet
accompanied
by
mobile
application
gathers
data
ML
algorithms
are
hosted
cloud
platform.
measure
movement
signals,
which
then
transferred
through
application.
triggers
pipeline
for
feature
extraction
subsequently
feeds
model
with
these
extracted
features.
Methods:
pilot
included
23
participants.
Eleven
patients
suspected
were
in
experimental
group.
In
control
group,
8
had
radiculopathy,
participants
healthy.
All
underwent
an
electrodiagnostic
examination
(EDx)
examination,
consists
placed
participant’s
use
participant
performs
six
tests
part
standard
neurological
calculates
probability
A
user
experience
questionnaire
was
used
compare
experiences
regard
both
methods.
Results:
total
accuracy
82.1%,
78%
sensitivity
87%
specificity.
high
linear
correlation
up
0.722
observed
between
EDx
features,
underpins
model’s
adequacy.
revealed
majority
preferred
less
painful
method.
Conclusions:
represents
accurate,
easy-to-use
suitable
home
environments,
showing
promising
results
potential
future
usage.
Diagnostics,
Journal Year:
2023,
Volume and Issue:
13(12), P. 1983 - 1983
Published: June 6, 2023
The
World
Health
Organization
(WHO)
has
identified
that
diabetes
mellitus
(DM)
is
one
of
the
most
prevalent
disease
worldwide.
Individuals
with
DM
have
a
higher
risk
mortality,
and
it
crucial
to
prioritize
treatment
foot
ulcers,
which
significant
complication
associated
disease,
as
they
lead
development
plantar
results
in
need
amputate
part
or
leg.
People
are
at
experiencing
various
complications,
such
heart
eye
problems,
kidney
dysfunction,
nerve
damage,
skin
issues,
dental
diseases.
Unawareness
diabetic
ulcers
(DFU)
contributing
factor
mortality
patients.
Evolving
technological
advancements
deep
learning
techniques
can
be
used
predict
symptoms
early
possible,
helps
provide
effective
This
research
introduces
methodology
for
analyzing
images
patients,
focusing
on
feature
extraction
classification.
dataset
this
study
was
collected
from
historical
medical
records
patients
diabetes,
who
commonly
experience
major
complication.
pre-processed
segmented,
features
were
extracted
using
recurrent
neural
network
(DRNN).
Image
numerical/text
data
separately,
normal
abnormal
ranges
identified.
Foot
separated
classified
pre-trained
fast
convolutional
(PFCNN)
U++net.
classification
procedure
involves
analysis
their
pathogenesis.
To
assess
effectiveness
proposed
technique,
presented
simulation
results,
including
confusion
matrix
receiver
operating
characteristic
curve.
These
specifically
focused
predicting
two
classes:
ulcerations.
yielded
parameters,
accuracy,
precision,
recall
curve,
area
under
main
goal
introduce
an
novel
technique
assessing
ulceration
leveraging
ulcer
images.
researchers
segmented
data.
They
then
extract
based
numerical
text
U++net
examine
forecast
(DFU).
assessed
accuracy
99.32%
by
simulating
ulcers.
A
comparison
made
between
existing
approaches.