Expert Review of Anti-infective Therapy,
Год журнала:
2024,
Номер
22(6), С. 413 - 422
Опубликована: Май 13, 2024
Introduction
Infectious
diseases
still
cause
a
significant
burden
of
morbidity
and
mortality
among
children
in
low-
middle-income
countries
(LMICs).
There
are
ample
opportunities
for
innovation
surveillance,
prevention,
management,
with
the
ultimate
goal
improving
survival.
Diagnostics,
Год журнала:
2023,
Номер
13(3), С. 534 - 534
Опубликована: Фев. 1, 2023
Malaria
is
predominant
in
many
subtropical
nations
with
little
health-monitoring
infrastructure.
To
forecast
malaria
and
condense
the
disease’s
impact
on
population,
time
series
prediction
models
are
necessary.
The
conventional
technique
of
detecting
disease
for
certified
technicians
to
examine
blood
smears
visually
parasite-infected
RBC
(red
cells)
underneath
a
microscope.
This
procedure
ineffective,
diagnosis
depends
individual
performing
test
his/her
experience.
Automatic
image
identification
systems
based
machine
learning
have
previously
been
used
diagnose
smears.
However,
so
far,
practical
performance
has
insufficient.
In
this
paper,
we
made
analysis
deep
algorithms
disease.
We
Neural
Network
like
CNN,
MobileNetV2,
ResNet50
perform
analysis.
dataset
was
extracted
from
National
Institutes
Health
(NIH)
website
consisted
27,558
photos,
including
13,780
parasitized
cell
images
13,778
uninfected
images.
conclusion,
MobileNetV2
model
outperformed
by
achieving
an
accuracy
rate
97.06%
better
detection.
Also,
other
metrics
training
testing
loss,
precision,
recall,
fi-score,
ROC
curve
were
calculated
validate
considered
models.
Parasites & Vectors,
Год журнала:
2024,
Номер
17(1)
Опубликована: Апрель 16, 2024
Abstract
Background
Malaria
is
a
serious
public
health
concern
worldwide.
Early
and
accurate
diagnosis
essential
for
controlling
the
disease’s
spread
avoiding
severe
complications.
Manual
examination
of
blood
smear
samples
by
skilled
technicians
time-consuming
aspect
conventional
malaria
toolbox.
persists
in
many
parts
world,
emphasising
urgent
need
sophisticated
automated
diagnostic
instruments
to
expedite
identification
infected
cells,
thereby
facilitating
timely
treatment
reducing
risk
disease
transmission.
This
study
aims
introduce
more
lightweight
quicker
model—but
with
improved
accuracy—for
diagnosing
using
YOLOv4
(You
Only
Look
Once
v.
4)
deep
learning
object
detector.
Methods
The
model
modified
direct
layer
pruning
backbone
replacement.
primary
objective
removal
individual
analysis
residual
blocks
within
C3,
C4
C5
(C3–C5)
Res-block
bodies
architecture’s
C3-C5
bodies.
CSP-DarkNet53
simultaneously
replaced
enhanced
feature
extraction
shallower
ResNet50
network.
performance
metrics
models
are
compared
analysed.
Results
outperform
original
model.
YOLOv4-RC3_4
pruned
from
C3
body
achieves
highest
mean
accuracy
precision
(mAP)
90.70%.
mAP
>
9%
higher
than
that
model,
saving
approximately
22%
billion
floating
point
operations
(B-FLOPS)
23
MB
size.
findings
indicate
also
performs
better,
an
increase
9.27%
detecting
cells
upon
redundant
layers
CSP-DarkeNet53
backbone.
Conclusions
results
this
highlight
use
red
cells.
Pruning
helps
determine
which
contribute
most
least,
respectively,
model’s
performance.
Our
method
has
potential
revolutionise
pave
way
novel
learning-based
bioinformatics
solutions.
Developing
effective
process
will
considerably
global
efforts
combat
debilitating
disease.
We
have
shown
removing
undesirable
can
reduce
size
its
computational
complexity
without
compromising
precision.
Graphical
Sensors,
Год журнала:
2025,
Номер
25(2), С. 390 - 390
Опубликована: Янв. 10, 2025
Malaria
remains
a
global
health
concern,
with
249
million
cases
and
608,000
deaths
being
reported
by
the
WHO
in
2022.
Traditional
diagnostic
methods
often
struggle
inconsistent
stain
quality,
lighting
variations,
limited
resources
endemic
regions,
making
manual
detection
time-intensive
error-prone.
This
study
introduces
an
automated
system
for
analyzing
Romanowsky-stained
thick
blood
smears,
focusing
on
image
quality
evaluation,
leukocyte
detection,
malaria
parasite
classification.
Using
dataset
of
1000
clinically
diagnosed
images,
we
applied
feature
extraction
techniques,
including
histogram
bins
texture
analysis
gray
level
co-occurrence
matrix
(GLCM),
alongside
support
vector
machines
(SVMs),
assessment.
Leukocyte
employed
optimal
thresholding
segmentation
utility
(OTSU)
thresholding,
binary
masking,
erosion,
followed
connected
components
algorithm.
Parasite
used
high-intensity
region
selection
adaptive
bounding
boxes,
custom
convolutional
neural
network
(CNN)
candidate
identification.
A
second
CNN
classified
parasites
into
trophozoites,
schizonts,
gametocytes.
The
achieved
F1-score
95%
88.92%
82.10%
detection.
F1-score-a
metric
balancing
precision
(correctly
identified
positives)
recall
detected
instances
out
actual
positives)-is
especially
valuable
assessing
models
imbalanced
datasets.
In
stage
classification,
F1-scores
85%
88%
83%
robust
scalable
that
addresses
critical
challenges
diagnosis
integrating
advanced
assessment
deep
learning
techniques
system's
adaptability
to
low-resource
settings
underscores
its
potential
improve
diagnostics
globally.
Journal of Microscopy,
Год журнала:
2025,
Номер
unknown
Опубликована: Янв. 3, 2025
Abstract
The
idea
that
disease
is
caused
at
the
cellular
level
so
fundamental
to
us
we
might
forget
critical
role
microscopy
played
in
generating
and
developing
this
insight.
Visually
identifying
diseased
or
infected
cells
lays
foundation
for
any
effort
curb
human
pathology.
Since
discovery
of
Plasmodium
‐infected
red
blood
cells,
which
cause
malaria,
has
undergone
an
impressive
development
now
literally
resolving
individual
molecules.
This
review
explores
expansive
field
light
microscopy,
focusing
on
its
application
malaria
research.
Imaging
technologies
have
transformed
our
understanding
biological
systems,
yet
navigating
complex
ever‐growing
landscape
techniques
can
be
daunting.
offers
a
guide
researchers,
especially
those
working
by
providing
historical
context
as
well
practical
advice
selecting
right
imaging
approach.
advocates
integrated
methodology
prioritises
research
question
while
considering
key
factors
like
sample
preparation,
fluorophore
choice,
modality,
data
analysis.
In
addition
presenting
seminal
studies
innovative
applications
highlights
broad
range
topics,
from
traditional
white
advanced
methods
such
superresolution
time‐lapse
imaging.
It
addresses
emerging
challenges
including
phototoxicity
trade‐offs
resolution
speed,
insights
into
future
impact
mix
perspective,
technological
progress,
guidance
appeal
novice
microscopists
alike.
aims
inspire
researchers
explore
could
enrich
their
studies,
thus
advancing
through
enhanced
visual
exploration
parasite
across
scales
time.
IntechOpen eBooks,
Год журнала:
2025,
Номер
unknown
Опубликована: Март 11, 2025
Diagnostic
methods
are
vital
for
dealing
with
the
global
malaria
burden
and
decreasing
incidence.
The
diagnosis
by
microscopy
is
considered
a
gold
standard;
however,
rapid
diagnostic
tests
(RDTs)
have
become
primary
test
in
many
malaria-endemic
areas.
RDTs
advantages;
gene
deletion,
poor
sensitivity
low
parasite
levels,
cross-reactivity,
prozone
effect
certain
disadvantages.
quantitative
buffy
coat
(QBC),
polymerase
chain
reaction
(PCR),
flow
cytometry,
loop-mediated
isothermal
amplification
(LAMP),
mass
spectrometry
disadvantages
that
limit
their
scale
implications
endemic
Recently,
based
on
artificial
intelligence
smartphone-based
applications
been
developed,
which
can
be
implemented
fields
once
high
specificity
achieved.
In
current
scenario,
deletion
events
Plasmodium
falciparum
created
vacuum
filled
development
of
more
advanced
RDT.
Abstract
Background
Malaria
remains
an
enduring
public
health
concern
in
Indonesia,
exacerbated
by
its
equatorial
climate
that
fosters
the
proliferation
of
Anopheles
mosquitoes.
This
study
seeks
to
assess
performance
malaria
elimination
programme
comprehensively.
Methods
Between
May
and
August
2022,
a
qualitative
was
conducted
Muara
Enim
Regency,
South
Sumatra
Province,
involving
22
healthcare
professionals
from
diverse
backgrounds.
These
informants
were
strategically
chosen
for
their
pivotal
roles
providing
profound
insights
into
various
facets
programme.
encompasses
inputs
such
as
human
resources,
budgetary
allocation,
infrastructural
support;
processes
like
case
identification
management,
capacity
enhancement,
epidemiological
surveillance,
prevention
measures,
outbreak
control,
enhanced
communication
educational
initiatives;
and,
notably,
programme’s
outcomes.
Data
collected
through
3-h
Focus
Group
Discussions
(FGDs)
divided
two
groups,
each
with
12
participants:
managers.
Additionally,
in-depth
interviews
(IDIs)
ten
informants.
Employing
Input-Process-Output
(IPO)
model,
this
meticulously
analysed
system
dynamics
interventions’
efficacy.
Results
The
unveiled
many
challenges
during
input
phase,
including
absence
entomologists
shortage
diagnostic
tools.
Despite
these
obstacles,
it
documented
remarkable
accomplishments
output
domain,
marked
significant
advancements
distribution
mosquito
nets
successful
implementation
Early
Warning
System
(EWS).
adversities,
has
made
substantial
strides
towards
elimination.
Conclusions
Urgent
action
is
imperative
bolster
effectiveness
Key
measures
encompass
augmenting
entomologist
workforce,
optimizing
resource
ensuring
stringent
adherence
regional
regulations.
Addressing
concerns
will
enhance
efficacy,
yielding
benefits.
research
substantially
contributes
Indonesia’s
ongoing
endeavours,
furnishing
actionable
enhancement.
Consequently,
holds
importance
drive.