With
the
continuous
development
of
China's
Internet
Things
technology,
application
this
technology
in
agriculture
is
becoming
more
and
extensive.
agricultural
irrigation
has
shown
a
trend
automation,
but
current
automatic
system
cannot
automatically
control
amount
water
irrigation,
it
not
intelligent
enough.
The
closely
related
to
modern
green
far
from
meeting
requirements
China
's
agriculture.
When
too
large,
will
cause
serious
waste
resources,
when
small,
affect
growth
crops.
Based
on
situation,
paper
designs
an
system,
which
combines
communication
module
with
single-chip
microcomputer,
monitors
data
crop
environment
real
time
help
ZigBee
wireless
sensors.
According
different
models
soil
nutrient
content
characteristics
laws
fertilizers
needed
by
crops,
platform
model
for
real-time
monitoring
information
based
constructed.
After
testing,
can
predict
fertilizer
required
process
growth,
so
as
make
timely
appropriate
decisions
scientifically,
improve
level
management.
greatly
alleviate
problem
resources
compaction.
It
only
realize
saving
energy
saving,
also
promote
production
income
increase.
provides
technical
basis
support
follow-up
Ain Shams Engineering Journal,
Journal Year:
2023,
Volume and Issue:
15(3), P. 102509 - 102509
Published: Sept. 30, 2023
Agriculture
must
overcome
escalating
problems
in
order
to
feed
a
growing
population
while
preserving
the
environment
and
natural
resources.
Recently,
it
has
become
clear
that
sensors
Internet
of
Things
(IoT)
are
effective
tools
for
boosting
agricultural
sustainability
food
security.
This
study
provides
insights
into
global
market
size
smart
agriculture
future
years
from
2021
2030,
In
addition,
this
research
offered
four
levels
IoT
architecture
agriculture:
perception
or
sensing
actuator
layer,
network
cloud
application
layer.
The
state
art
sensor
technologies
is
examined
review
paper,
along
with
some
their
potential
uses,
including
1)
irrigation
monitoring
systems,
2)
fertilizer
administration,
3)
crop
disease
detection,
4)
(yield
monitoring,
quality
processing
logistic
monotoring),
forecasting,
harvesting,
5)
climate
conditions
6)
fire
detection.
Additionally,
offers
number
can
detect
parameters
like
soil
NPK,
moisture,
nitrate,
pH,
electrical
conductivity,
CO2,
temperature,
humidity,
light,
weather
station,
water
level,
livestock,
plant
disease,
smoke,
flame,
flexible
wearable.
Subsequently,
highlights
advantages
agriculture,
superior
efficiency,
expansion,
reduced
resources,
cleaner
method,
agility,
product
improvement.
However,
there
still
issues
need
be
resolved
technology
used
where
covered
also
provide
directions
opportunities.
will
contribute
helping
readers
researchers
better
understand
academic
achievement
subject.
Agriculture,
Journal Year:
2024,
Volume and Issue:
14(7), P. 1141 - 1141
Published: July 14, 2024
Water
is
considered
one
of
the
vital
natural
resources
and
factors
for
performing
short-
long-term
agricultural
practices
on
Earth.
Meanwhile,
globally,
most
available
freshwater
are
utilized
irrigation
purposes
in
agriculture.
Currently,
many
world
regions
facing
extreme
water
shortage
problems,
which
can
worsen
if
not
managed
properly.
In
literature,
numerous
methods
remedies
used
to
cope
with
increasing
global
crises.
The
use
precision
water-saving
systems
(PISs)
efficient
management
under
climate
change
them
a
highly
recommended
approach
by
researchers.
It
mitigate
adverse
effects
changing
help
enhance
efficiency,
crop
yield,
environmental
footprints.
Thus,
present
study
aimed
comprehensively
examine
review
PISs,
focusing
their
development,
implementation,
positive
impacts
sustainable
management.
addition,
we
searched
literature
using
different
online
search
engines
reviewed
summarized
main
results
previously
published
papers
PISs.
We
discussed
traditional
method
its
modernization
enhancing
PIS
monitoring
controlling,
architecture,
data
sharing
communication
technologies,
role
artificial
intelligence
water-saving,
future
prospects
PIS.
Based
brief
review,
concluded
that
PISs
seems
bright,
driven
need
systems,
technological
advancements,
awareness.
As
scarcity
problem
intensifies
due
population
growth,
poised
play
critical
optimizing
modernizing
usage,
reducing
footprints,
thus
ensuring
agriculture
development.
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: April 6, 2025
Abstract
Urban
areas
face
significant
challenges,
including
a
lack
of
green
spaces,
scarce
water
resources,
environmental
pollution,
and
elevated
heat
emissions,
particularly
in
developing
countries
experiencing
rapid
population
growth.
Therefore,
the
study
aims
to
advance
sustainable
urban
agriculture
by
designing
evaluating
solar-powered
smart
rooftop
irrigation
system
for
peppermint
cultivation.
The
incorporates
two
drip
setups—conventional
irrigation—powered
photovoltaic
(PV)
panels.
integrates
real-time
monitoring
critical
variables,
(1)
soil
moisture,
(2)
relative
humidity,
(3)
PV
panel
temperature,
(4)
current
voltage.
Key
performance
metrics
such
as
energy
consumption,
use
efficiency,
productivity,
carbon
dioxide
emissions
were
evaluated
both
systems.
In
addition,
economic
analysis
was
determined.
Results
revealed
that
reduced
consumption
28.1%
compared
conventional
irrigation.
Additionally,
achieved
notable
reduction
footprint,
with
CO
2
0.181
kg
CO₂/m
/year
0.252
system.
system’s
demonstrated
payback
period
5.6
years,
highlighting
its
financial
viability.
This
underscores
transformative
potential
systems
enhancing
food
security,
conserving
water,
reducing
mitigating
agriculture.
Water,
Journal Year:
2024,
Volume and Issue:
16(5), P. 672 - 672
Published: Feb. 25, 2024
The
shortage
of
water
stands
as
a
global
challenge,
prompting
considerable
focus
on
the
management
consumption
and
irrigation.
suggestion
is
to
introduce
smart
irrigation
system
based
wireless
sensor
networks
(WSNs)
aimed
at
minimizing
while
maintaining
quality
agricultural
crops.
In
WSNs
deployed
in
irrigation,
accurately
determining
locations
nodes
crucial
for
efficient
monitoring
control.
However,
many
cases,
exact
positions
certain
may
be
unknown.
To
address
this
paper
presents
new
localization
method
localizing
unknown
WSN-based
systems
using
estimated
range
measurements.
proposed
can
determine
nodes,
even
when
they
are
located
distance
from
anchors.
It
utilizes
Levenberg–Marquardt
(LM)
optimization
algorithm
solve
nonlinear
least-squares
problem
minimize
error
estimating
node
locations.
By
leveraging
known
subset
inexact
measurements
between
pairs
transformed
into
problem.
validate
effectiveness
method,
extensive
simulations
experiments
were
conducted.
results
demonstrate
that
achieves
accurate
nodes.
Specifically,
it
19%
58%
improvement
estimation
accuracy
compared
vector-hop
(DV-Hop)
semidefinite
relaxation-LM
(SDR-LM)
algorithms,
respectively.
Additionally,
exhibits
robustness
against
measurement
noise
scalability
large-scale
networks.
Ultimately,
integrating
has
potential
achieve
approximately
28%
reduction
consumption.
Agriculture,
Journal Year:
2023,
Volume and Issue:
13(6), P. 1149 - 1149
Published: May 30, 2023
Cognitive
radio
wireless
sensor
networks
(CR-WSNs)
are
a
type
of
WSNs
that
use
cognitive
technology
to
enhance
the
spectrum
utilization
and
energy
efficiency.
This
paper
proposes
an
energy-efficient
resource
allocation
algorithm
(EERAA)
prolong
lifetime
WSN-based
smart
irrigation
system
under
realistic
scenarios.
In
proposed
algorithm,
power
subcarrier
assignment
performed
consecutively.
Considering
impact
intercarrier
interference
(ICI)
caused
by
timing
offset,
problem
maximizing
network-averaged
capacity
is
formulated
considering
constraints
in
The
obtained
results
reveal
attempts
maximize
averaged
CR-WSN
subject
total
constraint
tolerable
interference.
Numerically,
can
reduce
network
consumption
up
30%,
compared
with
conventional
approaches,
while
maintaining
high
level
performance
terms
secondary
users’
(SUs)
capacity.
Drones,
Journal Year:
2025,
Volume and Issue:
9(4), P. 253 - 253
Published: March 26, 2025
Wireless
sensor
networks
(WSNs)
enable
large-scale
data
collection
across
wide
areas
but
face
significant
challenges,
including
limited
energy
resources,
unbalanced
consumption,
and
inefficient
transmission,
leading
to
reduced
network
lifetime
poor
reliability.
To
address
these
issues,
this
paper
proposes
an
energy-efficient
clustering
scheme
that
integrates
unmanned
aerial
vehicle
(UAV)-assisted
wireless
power
transfer
(WPT)
enhance
WSN
performance
in
smart
irrigation
applications.
The
proposed
divides
the
into
two
regions:
a
central
circular
area
containing
standard
nodes
outer
region
divided
four
clusters
housing
advanced
nodes.
It
dynamically
adjusts
cluster
formation,
optimizes
head
(CH)
selection
based
on
residual
energy,
minimizes
transmission
hops,
ensures
shortest
possible
UAV
path,
thereby
reducing
consumption.
Additionally,
UAV-based
WPT
provides
continuous
replenishment,
mitigating
hotspot
problem
extending
lifetime.
Extensive
simulations
demonstrate
reduces
consumption
by
up
13.16%,
enhances
efficiency
8.84%,
extends
more
than
9.6%
compared
Yoon’s
scheme.
achieves
26%
higher
43%
increase
throughput
over
Moreover,
applications,
water
approximately
20%,
demonstrating
its
effectiveness
for
sustainable
precision
agriculture.
AIP conference proceedings,
Journal Year:
2024,
Volume and Issue:
3050, P. 050008 - 050008
Published: Jan. 1, 2024
Agriculture
is
the
backbone
of
success
rural
countries
like
India.
In
this
way,
proposed
procedure
to
utilize
mechanization
and
web
thing
(IoT)
innovation
form
agribusiness
smart.
There
are
currently
several
commercial
IoT
frameworks
for
water
system
planning
that
create
differentiators
monitoring
storage.
However,
framework
focuses
on
exploiting
newly
available
resources
without
controlling
selected
resources.
Think
about
it,
an
inexpensive
Arduino-based
was
developed
design
a
computerized
system,
it
will
provide
estimation
requirements
by
using
low-cost
sensors.
This
paper
around
IOT
based
keen
cultivating
structure
framework.
The
extreme
motivation
computerize
method
watering
plants.
work
makes
difference
us
notice
values
different
parameters
moisture,
temperature,
humidity
plants
them
appropriately.
can
be
done
utilizing
Arduino
board,
voltage
controller
transfer
which
commands
engine.
paper,
we
have
created
brilliantly
control
apportioning
trim
intelligently
any
administrator
endeavors
gadgets,
sensors,
particularly
advanced
procedures
actualized
in
farming,
such
as
shrewdly
frameworks.
main
vision
research
detect
minimum
amount
needed
nourish
Mass
ranchers
waste
time
instead
focusing
providing
crops
at
need.
find
out
desired
quantity
basis
information
received
through
sensors
-
advantage
use
precision
cloud
platforms,
expand
compost,
also
helps
decision
making.
increase
crop
yields.
weather
conditions
field.
article
moreover
points
domestic
gardening
kept
up
human
checking.
It
consequently
checks
dampness
soil
beneath
tree
within
cultivate
case
moo
demonstrates
message
pours
naturally
from
capacity
associated.
exact
utilization
strategy
there
may
requirement
precipitation
or
dried
regions.
For
cause,
mechanized
utilized
appropriate
all
conditions.
detector
sense
substance
demonstrate
either
pump
not.
offer
assistance
diminish
wastage
additionally
grow
indeed
event
isn't
physically
present.
has
been
tested
field
tests
calculate
sensor
accuracy,
independent
operation,
usability
monitoring,
evaluate
its
capabilities
functionality.
appears
used
effectively
management
various
resources:
water,
groundwater,
seawater
wastewater.
By
extension,
shown
frame
long
periods
source
control,
make
ideal
device
annual
crops.
IntechOpen eBooks,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Jan. 24, 2024
Maize
is
a
versatile
crop
that
serves
as
staple
food
for
millions
of
people
and
provides
various
raw
materials.
Its
adaptability
to
different
climates
potential
makes
it
economically
valuable.
However,
the
ongoing
emissions
greenhouse
gases
pose
significant
challenges
sustain
maize
production.
Sustainable
agricultural
practices
are
crucial
mitigate
gas
reduce
carbon
footprints.
Conservation
tillage
based
on
no-till
promote
sequestration,
footprints
compared
conventional
tillage.
These
potentially
improve
soil
health
water
productivity.
This
chapter
explores
aspects
production,
with
focus
conservation
systems,
engineering
technologies,
footprint
reduction.
It
discusses
also
perspectives
in
achieving
sustainable
begins
an
overview
farming,
highlighting
its
challenges.
The
second
section
advantages
third
part
focuses
technologies
precision
agriculture
tools,
well
remote
sensing.
In
fourth
section,
strategies
reducing
adopting
clean
energy
farming
considered.
final
addresses
sustaining
discussing
barriers,
opportunities,
solutions.