IGLOO: Machine Vision System for Determination of Solubilization Index in Phosphate-Solubilizing Bacteria
Microorganisms,
Journal Year:
2025,
Volume and Issue:
13(4), P. 860 - 860
Published: April 9, 2025
Phosphorus
is
an
important
macronutrient
for
plant
development,
but
its
bioavailability
in
soil
often
limited.
Phosphate-solubilizing
microorganisms
play
a
vital
role
phosphorus
biogeochemistry,
offering
sustainable
alternative
to
chemical
fertilizers,
which
pose
environmental
risks.
Manual
measurements
quantifying
phosphate
solubilization
capacity
are
laborious,
subjective,
and
time-consuming,
so
there
need
develop
more
efficient
objective
approaches.
This
study
aimed
validate
machine
vision
system
called
IGLOO
automate
optimize
the
determination
of
relative
efficiency
phosphate-solubilizing
bacteria.
was
developed
using
YOLOv8
conjunction
with
creating
labeling
dataset
images
bacterial
colonies
grown
vitro
strains
Enterobacter
R11
FCRK4.
The
model
trained
different
number
epochs.
IGLOO’s
performance
evaluated
by
comparing
segmentation
accuracy
accepted
metrics
domain
contrasting
estimates
experts’
manual
measurements.
achieved
greater
than
90%
colony
halo
detection,
error
less
6%
compared
measurements,
demonstrating
reliability
minimizing
observer
variability.
Finally,
represents
significant
advance
quantitative
evaluation
because
it
reduces
analysis
time
provides
reproducible
results
agricultural
studies.
Language: Английский
Preliminary Study on Sensor-Based Detection of an Adherent Cell’s Pre-Detachment Moment in a MPWM Microfluidic Extraction System
Alexandru Dinca,
No information about this author
Mihaita Ardeleanu,
No information about this author
Dan Constantin Puchianu
No information about this author
et al.
Sensors,
Journal Year:
2025,
Volume and Issue:
25(9), P. 2726 - 2726
Published: April 25, 2025
The
extraction
of
adherent
cells,
such
as
B16
murine
melanoma
from
Petri
dish
cultures
is
critical
in
biomedical
applications,
including
cell
reprogramming,
transplantation,
and
regenerative
medicine.
Traditional
detachment
methods-enzymatic,
mechanical,
or
chemical-often
compromise
viability
by
altering
membrane
integrity
disrupting
adhesion
proteins.
To
address
these
challenges,
this
study
investigated
sensor-based
detection
the
pre-detachment
phase
a
MPWM
(Microfluidic
Pulse
Width
Modulation)
system.
Our
approach
integrates
micromechatronic
system
with
microfluidic
suction
circuit,
real-time
CCD
imaging,
computational
analysis
to
detect
characterize
moment
before
full
extraction.
A
precisely
controlled
hydrodynamic
force
field
progressively
disrupts
multiple
stages,
reducing
mechanical
stress
preserving
integrity.
Real-time
video
enables
continuous
monitoring
positional
dynamics
oscillatory
responses.
Image
processing
deep
learning
algorithms
determine
object
center
coordinates,
allowing
dynamically
adjust
parameters.
This
optimizes
while
minimizing
liquid
absorption
reflux
volume,
ensuring
efficient
By
combining
microfluidics,
sensor
detection,
AI-driven
image
processing,
established
non-invasive
method
for
optimizing
detachment.
These
findings
have
significant
implications
single-cell
research,
medicine,
high-throughput
biotechnology,
maximal
minimal
perturbation.
Language: Английский
Deep Learning-Based In Situ Micrograph Synthesis and Augmentation for Crystallization Process Image Analysis
Muyang Li,
No information about this author
Tuo Yao,
No information about this author
Jian Liu
No information about this author
et al.
Mathematics,
Journal Year:
2024,
Volume and Issue:
12(22), P. 3448 - 3448
Published: Nov. 5, 2024
Deep
learning-based
in
situ
imaging
and
analysis
for
crystallization
process
are
essential
optimizing
product
qualities,
reducing
experimental
costs
through
real-time
monitoring,
controlling
the
process.
However,
large
high-quality
annotated
datasets
required
to
train
accurate
models,
which
time
consuming.
Therefore,
we
proposed
a
novel
methodology
that
applied
image
synthesis
neural
networks
generate
virtual
information-rich
images,
enabling
efficient
rapid
dataset
expansion
while
simultaneously
annotation
costs.
Experiments
were
conducted
on
L-alanine
obtain
images
validate
workflow.
The
method,
aided
by
interpolation
augmentation
data
warping
enhance
richness,
utilized
only
25%
of
training
annotations,
consistently
segmenting
comparable
those
models
utilizing
100%
achieving
an
average
precision
nearly
98%.
Additionally,
based
Kullback–Leibler
divergence,
method
demonstrated
excellent
performance
extracting
information
regarding
aspect
ratios
crystal
size
distributions
during
Moreover,
its
ability
leverage
expert
labels
with
four-fold
enhanced
efficiency
holds
great
potential
advancing
various
applications
processes.
Language: Английский