Environmental Sciences Europe,
Год журнала:
2019,
Номер
31(1)
Опубликована: Дек. 1, 2019
Abstract
The
aim
of
the
European
Water
Framework
Directive
is
to
ensure
good
ecological
status
for
all
surface
waters.
However,
although
current
monitoring
strategies
identify
presence
and
magnitude
impacts,
they
provide
little
information
on
causes
an
ecosystem
impairment.
In
fact,
approaches
establish
causal
links
between
chemical
pollution
impacts
exposed
aquatic
systems
are
largely
lacking
or
poorly
described
established.
This
is,
however,
crucial
developing
implementing
appropriately
targeted
water
management
strategies.
order
role
ecosystem,
we
suggest
systematically
combine
four
lines
evidence
(LOEs)
that
complementary
potential
impact
complex
pollution:
(1)
component-based
methods
allow
a
predictive
mixture
risk
modeling;
(2)
effect-based
methods;
(3)
in
situ
tests;
(4)
field-derived
species
inventories.
These
LOEs
differ
their
specificity
pollution,
data
demands,
resources
required
relevance.
They
complement
each
other
and,
combination,
assess
contribution
pressure
structure
function.
Data
from
not
always
available
necessarily
consistent.
We
therefore
propose
systematic,
robust
transparent
approach
given
study,
consensual
conclusions
drawn
dataset.
allows
critical
gaps
needs
future
testing
and/or
options
efficient
management.
Environmental Sciences Europe,
Год журнала:
2019,
Номер
31(1)
Опубликована: Фев. 19, 2019
Environmental
water
quality
monitoring
aims
to
provide
the
data
required
for
safeguarding
environment
against
adverse
biological
effects
from
multiple
chemical
contamination
arising
anthropogenic
diffuse
emissions
and
point
sources.
Here,
we
integrate
experience
of
international
EU-funded
project
SOLUTIONS
shift
focus
a
few
legacy
chemicals
complex
mixtures,
identify
relevant
drivers
toxic
effects.
Monitoring
serves
range
purposes,
control
ecological
status
compliance
specific
uses,
such
as
drinking
abstraction.
Various
sampling
techniques,
target,
suspect
non-target
analyses
well
an
array
in
vitro,
vivo
situ
bioanalytical
methods
were
advanced
improve
contamination.
Major
improvements
broader
applicability
include
tailored
screening
identification
techniques
more
diverse
set
chemicals,
higher
detection
sensitivity,
standardized
protocols
chemical,
toxicological,
assessments
combined
with
systematic
evidence
evaluation
techniques.
No
single
method
or
combination
is
able
meet
all
divergent
purposes.
Current
approaches
tend
emphasize
either
targeted
exposure
effect
detection.
argue
that,
irrespective
purpose,
assessment
results
would
benefit
substantially
obtaining
linking
information
on
occurrence
both
potentially
In
this
paper,
specify
to:
(1)
contaminants,
(2)
assess
impact
aquatic
ecosystems,
(3)
quantify
cause–effect
relationships
between
contaminants
Specific
strategies
link
are
outlined
each
these
distinct
goals.
These
have
been
developed
explored
using
case
studies
Danube
Rhine
river
basins
rivers
Iberian
Peninsula.
suffers
biases
resulting
differences
associated
uncertainty
analyses.
While
ignore
gaps
(i.e.,
missing
contaminants),
effect-based
penalize
increased
factors.
This
integrated
work
suggests
ways
deal
mixture
exposures
balanced
way,
thus
provides
guidance
future
environmental
monitoring.
Environmental Sciences Europe,
Год журнала:
2018,
Номер
30(1)
Опубликована: Сен. 4, 2018
The
definition
of
priority
substances
(PS)
according
to
the
Water
Framework
Directive
(WFD)
helped
remove
many
these
chemicals
from
market
and
reduce
their
concentrations
in
European
water
bodies.
However,
it
could
not
prevent
that
have
been
replaced
by
others
with
similar
risks.
Today,
monitoring
PS-based
chemical
status
WFD
covers
only
a
tiny
fraction
toxic
risks,
extensively
ignores
mixture
effects
lacks
incentives
guidance
for
abatement.
Thus,
we
suggest
complement
this
purely
status-related
approach
more
holistic
solution-oriented
monitoring,
which
at
same
time
helps
provide
links
ecological
status.
Major
elements
include
(1)
advanced
screening
techniques
supporting
risk
assessment
unraveling
source-related
patterns
complex
mixtures,
(2)
effect-based
detection
groups
establishment
toxicity
fingerprints,
(3)
effect-directed
analysis
drivers
(4)
translate
toxicological
fingerprints
into
footprints
prioritization
management
measures.
requirement
contamination
is
supported
significant
advancement
appropriate
tools
within
last
years.
Non-target
technology,
basic
understanding
are
available
conceptually
research
but
also
increasingly
find
way
practical
monitoring.
Substantial
progress
development,
evaluation
demonstration
tools,
example,
SOLUTIONS
project
enhanced
acceptability.
Further
advancement,
integration
demonstration,
extensive
data
exchange
closure
remaining
knowledge
gaps
suggested
as
high
needs
next
future
bridge
gap
between
insufficient
cost-efficient
abatement
Environmental Science & Technology,
Год журнала:
2023,
Номер
57(48), С. 19148 - 19155
Опубликована: Ноя. 16, 2023
Effect-directed
analysis
(EDA)
combined
with
nontarget
screening
(NTS)
has
established
a
valuable
tool
for
the
identification
of
unmonitored
toxic
substances
in
environmental
samples.
It
consists
three
main
steps:
(1)
highly
potent
fraction
identification,
(2)
toxicant
candidate
selection,
and
(3)
major
identification.
Here,
we
discuss
methodology,
current
status,
limitations,
future
challenges
EDA
NTS.
This
method
been
applied
successfully
to
various
samples,
such
as
sediments,
wastewater
treatment
plant
effluents,
biota.
We
present
several
case
studies
highlight
key
results.
undergone
significant
technological
advancements
past
20
years,
establishment
its
components:
target
chemical
analysis,
bioassays,
fractionation,
NTS,
data
processing.
However,
it
not
incorporated
widely
into
monitoring
programs.
provide
suggestions
application
NTS
programs
management,
further
research
needs.
Analytical and Bioanalytical Chemistry,
Год журнала:
2024,
Номер
unknown
Опубликована: Июль 12, 2024
Abstract
The
rapid
increase
in
the
production
and
global
use
of
chemicals
their
mixtures
has
raised
concerns
about
potential
impact
on
human
environmental
health.
With
advances
analytical
techniques,
particular,
high-resolution
mass
spectrometry
(HRMS),
thousands
compounds
transformation
products
with
adverse
effects
can
now
be
detected
samples.
However,
identifying
prioritizing
toxicity
drivers
among
these
remain
a
significant
challenge.
Effect-directed
analysis
(EDA)
emerged
as
an
important
tool
to
address
this
challenge,
combining
biotesting,
sample
fractionation,
chemical
unravel
complex
mixtures.
Traditional
EDA
workflows
are
labor-intensive
time-consuming,
hindering
large-scale
applications.
concept
high-throughput
(HT)
recently
gained
traction
means
accelerating
workflows.
Key
features
HT-EDA
include
combination
microfractionation
downscaled
bioassays,
automation
preparation
efficient
data
processing
supported
by
novel
computational
tools.
In
addition
microplate-based
high-performance
thin-layer
chromatography
(HPTLC)
offers
interesting
alternative
HPLC
HT-EDA.
This
review
provides
updated
perspective
state-of-the-art
HT-EDA,
methods/tools
that
incorporated
into
It
also
discusses
recent
studies
HT
prioritization
tools,
along
considerations
regarding
HPTLC.
By
current
gaps
proposing
new
approaches
overcome
them,
aims
bring
step
closer
monitoring
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