International Journal of Remote Sensing,
Journal Year:
2022,
Volume and Issue:
43(9), P. 3429 - 3449
Published: May 3, 2022
Soil
organic
carbon
(SOC)
is
one
of
the
key
soil
components
for
cultivated
soils.
SOC
regularly
monitored
and
mapped
to
improve
quality,
health,
productivity
soil.
However,
traditional
SOC-level
monitoring
expensive
land
managers
farmers.
Estimating
using
satellite
imagery
provides
an
easy,
efficient,
cost-effective
way
monitor
surface
levels.
The
objective
this
study
was
estimate
distribution
in
selected
soils
Major
Land
Resource
Areas
(MLRA),
102A
(Rolling
Till
Plain,
Brookings
County,
SD),
103
(Central
Iowa
Minnesota
Prairies,
Lac
qui
Parle
MN),
with
different
resolutions
(Landsat
8
PlanetScope).
dominant
area
are
Haplustolls,
Calciustolls,
Endoaquolls,
which
formed
silty
sediments,
local
alluvium,
till.
Landsat
PlanetScope
spectral
bands
were
used
develop
prediction
models.
Parametric
data-driven
methods
employed
predict
SOC.
Multiple
linear
regression
Linear
Spatial
Mixed
Model
(LSMM)
on
data.
In
addition
parametric
models,
Regression
Trees
Random
Forest
also
both
results
showed
that
reduced
LSMM
provided
lowest
RMSE,
0.401
0.367
PlanetScope,
respectively.
Furthermore,
random
forest
has
highest
RPD
RPIQ
(RPD
2.67
2.49)
2.85
3.7).
all
cases,
models
obtained
from
better
than
those
8.
IEEE Journal of Selected Topics in Applied Earth Observations and Remote Sensing,
Journal Year:
2024,
Volume and Issue:
17, P. 7068 - 7088
Published: Jan. 1, 2024
Monitoring
vegetation
dynamics
is
essential
for
ecological
processes,
environmental
changes,
and
natural
resource
protection.
Fine-scale
representation
of
indices
necessary
regions
with
complex
topography
high
diversity
species.
However,
the
advanced
very-high-resolution
radiometer
(AVHRR),
which
covers
an
extensive
time
range
temporal
resolution,
does
not
provide
normalized
difference
index
(NDVI)
data
sufficient
spatial
resolutions
a
detailed
analysis
changes.
The
Moderate
Resolution
Imaging
Spectroradiometer
(MODIS),
has
higher
only
been
limited
to
last
few
decades.
To
deal
these
issues,
we
propose
Multi-scale
Residual
Convolutional
Neural
Net-work
(MRCNN)
that
utilizes
multi-scale
structure
residual
convolutional
neural
network
combine
MODIS
NDVI
AVHRR
data.
MRCNN
algorithm
improved
Mean
Absolute
Error
(MAE)
Root
Squared
(RMSE)
by
0.026
0.032,
respectively,
resulting
in
64.38%
improvement
MAE
62.79%
RMSE
compared
NDVI.
It
also
increased
Peak-Signal-to-Noise
Ratio
(PSNR)
28.5%
Structural
Similarity
(SSIM)
16.2%.
method
accurately
captures
actual
state
consistently
tracks
changing
trends
index.
exact
terrain
diverse
areas.
This
enhances
resolution
significantly
improves
accuracy
monitoring
nationwide
changes
over
30
years.
findings
establish
solid
scientific
foundation
implementing
conservation
measures
promoting
sustainable
growth.
Sustainability,
Journal Year:
2023,
Volume and Issue:
15(12), P. 9440 - 9440
Published: June 12, 2023
Traditional
mapping
of
salt
affected
soils
(SAS)
is
very
costly
and
cannot
precisely
depict
the
space–time
dynamics
soil
salts
over
landscapes.
Therefore,
we
tested
capacity
Landsat
8
Operational
Land
Imager
(OLI)
data
to
retrieve
salinity
sodicity
during
wet
dry
seasons
in
an
arid
landscape.
Seventy
geo-referenced
samples
(0–30
cm)
were
collected
March
(wet
period)
September
be
analyzed
for
pH,
electrical
conductivity
(EC),
exchangeable
sodium
percentage
(ESP).
Using
70%
band
reflectance
data,
stepwise
linear
regression
models
constructed
estimate
EC,
ESP.
The
validated
using
remaining
30%
terms
determination
coefficient
(R2)
residual
prediction
deviation
(RPD).
Results
revealed
weak
variability
while
EC
ESP
had
large
variabilities.
three
indicators
(pH,
ESP)
increased
from
period.
During
two
seasons,
OLI
bands
associations
with
near-infrared
(NIR)
could
effectively
discriminate
levels.
predictive
period
developed
NIR
band,
achieving
adequate
outcomes
(an
R2
0.65
0.61
RPD
1.44
1.43,
respectively).
In
period,
best-fitted
deep
blue
bands,
yielding
0.59
0.60
1.49
1.50,
respectively.
SAS
covered
50%
study
area
which
14
36%
saline
saline-sodic
soils,
extent
up
59%
including
(12%)
(47%).
Our
findings
would
facilitate
precise,
rapid,
cost-effective
monitoring
areas.
International Journal of Remote Sensing,
Journal Year:
2022,
Volume and Issue:
43(9), P. 3429 - 3449
Published: May 3, 2022
Soil
organic
carbon
(SOC)
is
one
of
the
key
soil
components
for
cultivated
soils.
SOC
regularly
monitored
and
mapped
to
improve
quality,
health,
productivity
soil.
However,
traditional
SOC-level
monitoring
expensive
land
managers
farmers.
Estimating
using
satellite
imagery
provides
an
easy,
efficient,
cost-effective
way
monitor
surface
levels.
The
objective
this
study
was
estimate
distribution
in
selected
soils
Major
Land
Resource
Areas
(MLRA),
102A
(Rolling
Till
Plain,
Brookings
County,
SD),
103
(Central
Iowa
Minnesota
Prairies,
Lac
qui
Parle
MN),
with
different
resolutions
(Landsat
8
PlanetScope).
dominant
area
are
Haplustolls,
Calciustolls,
Endoaquolls,
which
formed
silty
sediments,
local
alluvium,
till.
Landsat
PlanetScope
spectral
bands
were
used
develop
prediction
models.
Parametric
data-driven
methods
employed
predict
SOC.
Multiple
linear
regression
Linear
Spatial
Mixed
Model
(LSMM)
on
data.
In
addition
parametric
models,
Regression
Trees
Random
Forest
also
both
results
showed
that
reduced
LSMM
provided
lowest
RMSE,
0.401
0.367
PlanetScope,
respectively.
Furthermore,
random
forest
has
highest
RPD
RPIQ
(RPD
2.67
2.49)
2.85
3.7).
all
cases,
models
obtained
from
better
than
those
8.