Recommendations for developing, documenting, and distributing data products derived from NEON data
Jeff W. Atkins,
No information about this author
Kelly S. Aho,
No information about this author
Xuan Chen
No information about this author
et al.
Ecosphere,
Journal Year:
2025,
Volume and Issue:
16(1)
Published: Jan. 1, 2025
Abstract
The
National
Ecological
Observatory
Network
(NEON)
provides
over
180
distinct
data
products
from
81
sites
(47
terrestrial
and
34
freshwater
aquatic
sites)
within
the
United
States
Puerto
Rico.
These
include
both
field
remote
sensing
collected
using
standardized
protocols
sampling
schema,
with
centralized
quality
assurance
control
(QA/QC)
provided
by
NEON
staff.
Such
breadth
of
creates
opportunities
for
research
community
to
extend
basic
applied
while
also
extending
impact
reach
through
creation
derived
products—higher
level
user
data.
Derived
are
curated,
documented,
reproducibly‐generated
datasets
created
applying
various
processing
steps
one
or
more
lower
products—including
interpolation,
extrapolation,
integration,
statistical
analysis,
modeling,
transformations.
directly
benefit
increase
broadening
size
diversity
base,
decreasing
time
effort
needed
working
data,
providing
primary
foci
development
via
derivation
process,
helping
users
address
multidisciplinary
questions.
Creating
promotes
personal
career
advancement
those
involved
publications,
citations,
future
grant
proposals.
However,
is
a
nontrivial
task.
Here
we
provide
an
overview
process
creating
outlining
advantages,
challenges,
major
considerations.
Language: Английский
Reservoir ecological health assessment Methods: A systematic review
Ecological Indicators,
Journal Year:
2025,
Volume and Issue:
171, P. 113130 - 113130
Published: Jan. 23, 2025
Language: Английский
Spanning scales: The airborne spatial and temporal sampling design of the National Ecological Observatory Network
Methods in Ecology and Evolution,
Journal Year:
2022,
Volume and Issue:
13(9), P. 1866 - 1884
Published: July 28, 2022
Abstract
1.
Each
year,
the
National
Ecological
Observatory
Network's
(NEON)
Airborne
Observation
Platform
(AOP)
collects
high‐resolution
hyperspectral
imagery,
discrete
and
waveform
lidar,
digital
photography
at
a
subset
of
81
terrestrial
aquatic
research
sites
throughout
United
States.
These
open
remote
sensing
data,
together
with
NEON
in
situ
sensor
measurements
field
observations,
enable
researchers
to
characterize
ecological
processes
multiple
spatial
temporal
scales.
2.
Here
we
describe
sampling
design
for
AOP
that
aims
meet
diverse
needs
science
community
within
operational
constraints
affecting
airborne
data
collection.
Our
protocol
captures
instrumented
systems,
plots
environmental
gradients
around
each
site
while
considering
context
airspace
restrictions
instrument
capabilities.
We
use
time
series
moderate
resolution
imaging
spectroradiometer
(MODIS)
satellite
PhenoCam
near‐surface
observations
define
windows
based
on
vegetation
peak
foliar
greenness.
developed
probabilistic
model
MODIS
reflectance
imagery
Monte
Carlo
simulation
estimate
durations
cloud‐free
collection
site.
3.
Agreement
estimated
phenophase
transition
dates
between
Enhanced
Vegetation
Index
Green
Chromatic
Coordinate
varied
by
class.
Results
from
both
sensors
show
some
classes
have
relatively
consistent
interannual
greenness
start‐
end‐dates,
others
experience
high
year‐to‐year
variability
green‐up
senescence.
In
addition
phenological
among
sites,
certain
forms
demonstrate
distinct,
asynchronous
responses
climate,
resulting
non‐overlapping
periods
single
flight
campaigns
showed
cloud‐likelihood
underestimated
actual
cloud
conditions
13%–26%,
depending
probability
used.
4.
Where
or
intra‐site
phenology
is
highly
variable
clouds
are
persistent
problem,
it
becomes
challenging
schedule
domain
deployments
so
all
flown
their
communities
Despite
limitations,
application
models
results
significant
improvements
quality.
Although
most
applicable
lidar
instruments
piloted
aircraft,
these
methods
may
be
valuable
resource
deployment
Unmanned
Aerial
Vehicles
research.
Language: Английский
A process approach to quality management doublesNEONsensor data quality
Methods in Ecology and Evolution,
Journal Year:
2022,
Volume and Issue:
13(9), P. 1849 - 1865
Published: July 31, 2022
Abstract
A
quality
management
system
is
critical
for
ensuring
that
the
data
and
services
provided
by
an
organization
meet
needs
of
its
mission.
With
a
mission
to
collect
long‐term
open‐access
ecological
better
understand
how
US
ecosystems
are
changing,
National
Ecological
Observatory
Network
(NEON)
highly
standardized
measurement
network
distributed
across
United
States
Puerto
Rico
collecting
on
biosphere
interfaces
with
pedosphere,
hydrosphere
atmosphere.
In
order
achieve
high‐quality,
comparable
network,
was
developed
applying
seven
ISO
9001:2015
principles
management:
customer
focus
,
leadership,
engagement
people,
process
approach,
improvement,
evidence‐based
decision
making
relationship
.
The
resultant
integrated
throughout
NEON's
organizational
structure
approach
connects
people
operational
processes
life
cycle
(
).
We
describe
respect
sensor
(automated
measurements),
demonstrating
effectiveness
through
examples,
lessons
learned
continuous
history
improvement
towards
goals,
including
doubling
in
meteorological
soil
datasets
since
2015
substantial
gains
other
datasets.
Owing
particularly
interconnectedness
human
information
systems,
can
serve
as
model
networks
variety
structures
sizes.
Language: Английский
The US National Ecological Observatory Network and the Global Biodiversity Framework: national research infrastructure with a global reach
Journal of Ecology and Environment,
Journal Year:
2023,
Volume and Issue:
47
Published: Dec. 14, 2023
Ecological
Observatory
Network
(NEON)
is
a
continental-scale
program
intended
to
provide
open
data,
samples,
and
infrastructure
understand
changing
ecosystems
for
period
of
30
years.NEON
collects
co-located
measurements
drivers
environmental
change
biological
responses,
using
standardized
methods
at
81
field
sites
systematically
sample
variability
trends
enable
inferences
regional
continental
scales.Alongside
key
atmospheric
variables,
NEON
measures
the
biodiversity
many
taxa,
including
microbes,
plants,
animals,
samples
from
these
organisms
long-term
archiving
research
use.Here
we
review
composition
use
resources
date
as
whole
specific
an
exemplar
potential
national
contribute
globally
relevant
outcomes.Since
initiated
full
operations
in
2019,
has
produced,
on
average,
1.4
M
records
over
32
TB
data
per
year
across
more
than
180
products,
with
85
products
that
include
taxonomic
or
other
organismal
information
science.NEON
also
collected
curated
503,000
specimens
spanning
all
domains
life,
up
100,000
be
added
annually.Various
metrics
use,
web
portal
visitation,
download
requests,
scientific
publications,
reveal
substantial
interest
global
community
NEON.More
47,000
unique
IP
addresses
around
world
visit
NEON's
portals
each
month,
requesting
average
1.8
200
researchers
have
engaged
requests
Biorepository.Through
its
partnerships,
particularly
Global
Biodiversity
Information
Facility,
been
used
900
publications
date,
samples.These
outcomes
demonstrate
provided
by
NEON,
situated
broader
network
infrastructures,
are
critical
scientists,
conservation
practitioners,
policy
makers.They
effective
approaches
meeting
targets,
such
those
captured
Kunming-Montreal
Framework.
Language: Английский
Spatial Patterns in Fish Assemblages across the National Ecological Observation Network (NEON): The First Six Years
Fishes,
Journal Year:
2023,
Volume and Issue:
8(11), P. 552 - 552
Published: Nov. 16, 2023
The
National
Ecological
Observation
Network
(NEON)
is
a
thirty-year,
open-source,
continental-scale
ecological
observation
platform.
objective
of
the
NEON
project
to
provide
data
facilitate
understanding
and
forecasting
impacts
anthropogenic
change
at
continental
scale.
Fish
are
sentinel
taxa
in
freshwater
systems,
has
been
sampling
collecting
fish
assemblage
wadable
stream
sites
for
six
years.
One
two
located
sixteen
domains
from
Alaska
Puerto
Rico.
goal
site
selection
was
that
represent
local
conditions
but
with
intention
be
analyzed
observatory
level.
Site
did
not
include
criteria.
Without
using
criteria,
anomalies
assemblages
level
may
skew
expected
spatial
patterns
North
American
assemblages,
thereby
hindering
detection
subsequent
However,
if
representative
current
distributions
we
could
expect
find
most
diverse
Atlantic
drainages
depauperate
Pacific
drainages.
Therefore,
calculated
alpha
regional
(beta)
diversities
highlight
patterns.
As
expected,
followed
predictable
diversity
patterns,
which
future
attribution
changes
environmental
drivers,
any.
Language: Английский
Using large, open datasets to understand spatial and temporal patterns in lotic ecosystems: NEON case studies
Ecosphere,
Journal Year:
2022,
Volume and Issue:
13(5)
Published: May 1, 2022
Abstract
Leveraging
big,
open
data
is
the
next
frontier
in
ecology.
The
National
Ecological
Observatory
Network
(NEON)
a
network
of
monitoring
sites
collecting
ecological
from
across
United
States.
Using
case
study
approach,
we
provide
examples
how
NEON
can
be
applied
to
address
few
big
questions
aquatic
First,
examined
spatial
patterns
stream
water
chemistry,
determine
whether
tend
cluster
into
regions
based
on
geographic
proximity.
We
found
that
this
was
not
case,
likely
because
hydrologic,
geologic,
and
anthropogenic
factors
drive
heterogeneity
chemistry
vary
smaller
scales.
Second,
temporal
variability
chemistry.
determined
majority
catchments
are
relatively
chemostatic
(i.e.,
discharge
varies
by
orders
magnitude
more
than
concentrations)
differences
between
shift
decades
due
changes
conductivity.
Third,
tested
predictions
River
Continuum
Concept
(RCC)
along
gradient
second‐order
seventh‐order
river.
longitudinal
metabolism,
carbon
macroinvertebrate
community
composition
generally
follow
predicted
RCC.
only
its
third
year
full
operations,
with
planned
30‐year
life.
studies
presented
here
show
utility
data,
while
using
subset
many
products
produces.
massive
amounts
types
generates,
conjunction
other
national‐scale
datasets,
will
allow
research
better
understand
ecosystems
function
respond
drivers
long‐term
change.
Language: Английский