Neural Network for AI-Driven Prediction of Larval Protein Yield: Establishing the Protein Conversion Index (PCI) for Sustainable Insect Farming
Claudia L. Vargas-Serna,
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Angie N. Pineda-Osorio,
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Carlos Gómez-Velasco
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et al.
Sustainability,
Journal Year:
2025,
Volume and Issue:
17(2), P. 652 - 652
Published: Jan. 16, 2025
The
predictive
capabilities
of
artificial
intelligence
for
predicting
protein
yield
from
larval
biomass
present
valuable
advancements
sustainable
insect
farming,
an
increasingly
relevant
alternative
source.
This
study
develops
a
neural
network
model
to
predict
conversion
efficiency
based
on
the
nutritional
composition
feed.
utilizes
structured
two-layer
with
four
neurons
in
each
hidden
layer
and
one
output
neuron,
employing
logistic
sigmoid
functions
layers
linear
function
layer.
Training
is
performed
via
Bayesian
regularization
backpropagation
minimize
mean
squared
error,
resulting
high
regression
coefficient
(R
=
0.9973)
low
mean-squared
error
(MSE
0.0072401),
confirming
precision
estimating
yields.
AI-driven
approach
serves
as
robust
tool
yields,
enhancing
resource
promoting
sustainability
insect-based
production.
Language: Английский
Evaluating the Influence of Nutrient-Rich Substrates on the Growth and Waste Reduction Efficiency of Black Soldier Fly Larvae
Sustainability,
Journal Year:
2024,
Volume and Issue:
16(22), P. 9730 - 9730
Published: Nov. 8, 2024
Background:
The
black
soldier
fly
(Hermetia
illucens)
has
emerged
as
a
promising
tool
in
sustainable
waste
management,
owing
to
its
larvae’s
ability
efficiently
convert
organic
into
valuable
biomass.
Objective:
This
study
investigates
the
impact
of
various
substrate
compositions
on
growth,
reduction
efficiency,
and
bioconversion
rate
(BSF)
larvae
illucens).
aim
is
optimize
feeding
strategies
enhance
effectiveness
BSF
management
protein
production.
Methods:
A
controlled
experiment
was
conducted
over
20-day
period,
using
four
different
types:
100%
sludge,
75%
sludge
+
25%
chicken
feed,
feed.
Each
treatment
had
three
replicates
with
100
each.
Larval
growth
metrics,
including
weight
width,
were
recorded
bi-daily.
efficiency
calculated
based
remaining
larval
biomass,
respectively.
Elemental
analysis
performed
determine
type
accumulation
elements
larvae.
Results:
Significant
differences
observed
rates
across
substrates.
feed
led
highest
(M
=
0.0881
g/day,
SD
0.0042)
7.52%,
0.34),
while
achieved
86.2%,
2.15).
ANOVA
tests
indicated
that
composition
significantly
affected
these
outcomes
(p
<
0.05).
showed
substantial
variations
concentrations
calcium,
cadmium,
nickel
among
substrates,
having
0.2763
ppm,
0.023),
from
other
treatments
0.001).
Conclusions:
results
demonstrate
crucial
for
optimizing
efficiency.
Nutrient-rich
such
biomass
production,
although
careful
consideration
elemental
accumulation,
especially
heavy
metals,
essential
safe
application
animal
Language: Английский
Black Soldier Fly Larvae’s Optimal Feed Intake and Rearing Density: A Welfare Perspective (Part II)
Insects,
Journal Year:
2024,
Volume and Issue:
16(1), P. 5 - 5
Published: Dec. 26, 2024
The
large-scale
insect
rearing
sector
is
expected
to
grow
significantly
in
the
next
few
years,
with
Hermetia
illucens
L.
(black
soldier
fly,
BSF)
playing
a
pivotal
role.
As
traditional
livestock,
it
essential
improve
and
ensure
BSF
welfare.
A
starting
point
can
be
an
adaptation
of
Five
Freedoms
framework.
Feed
availability
must
optimized
meet
larvae
nutritional
needs
(freedom
from
hunger)
while
maximizing
substrate
conversion
efficiency.
Similarly,
density
well-being,
particularly
operations.
In
this
study,
Control
(commercial
laying
hen
feed)
Omnivorous
substrates
(vegetable
meat)
were
used
as
dietary
regimes.
first
trial,
three
feeding
rates
tested:
50,
100,
200
mg
feed/larva/day;
second
densities
evaluated:
5,
10,
15
larvae/cm2.
Performance
parameters,
including
final
larval
weight,
frass
biomass,
growth
rate,
reduction,
feed
ratio,
length,
survival
chemical
composition,
process
optimization,
studied.
Our
results
show
that
rate
approximately
90
feed/larva/day
diet
175
diet,
along
5
7.57
larvae/cm2,
respectively,
diets,
produced
optimal
performances
ensuring
well-being.
This
outcome
offers
valuable
insights
for
implementing
good
welfare
practices
farming
optimizing
management
Language: Английский