Exploring the Application and Prospects of Synthetic Biology in Engineered Living Materials
Advanced Materials,
Journal Year:
2023,
Volume and Issue:
unknown
Published: Sept. 7, 2023
At
the
intersection
of
synthetic
biology
and
materials
science,
engineered
living
(ELMs)
exhibit
unprecedented
potential.
Possessing
unique
"living"
attributes,
ELMs
represent
a
significant
paradigm
shift
in
material
design,
showcasing
self-organization,
self-repair,
adaptability,
evolvability,
surpassing
conventional
materials.
This
review
focuses
on
reviewing
applications
derived
from
bacteria,
fungi,
plants
environmental
remediation,
eco-friendly
architecture,
sustainable
energy.
The
provides
comprehensive
overview
latest
research
progress
emerging
design
strategies
for
various
application
fields
perspectives
science.
In
addition,
valuable
references
novel
ELMs,
extending
potential
future
ELMs.
investigation
into
synergistic
possibilities
amongst
different
species
offers
beneficial
reference
information
researchers
practitioners
this
field.
Finally,
trends
development
challenges
coming
years
are
discussed
detail.
Language: Английский
The role and mechanisms of microbes in dichlorodiphenyltrichloroethane (DDT) and its residues bioremediation
Girma Ebsa,
No information about this author
Birhanu Gizaw,
No information about this author
Mesele Admassie
No information about this author
et al.
Biotechnology Reports,
Journal Year:
2024,
Volume and Issue:
42, P. e00835 - e00835
Published: March 11, 2024
Environmental
contamination
with
dichlorodiphenyltrichloroethane
(DDT)
has
sever
effects
on
the
ecosystem
worldwide.
DDT
is
a
recalcitrant
synthetic
chemical
high
toxicity
and
lipophilicity.
It
also
bioaccumulated
in
food
chain
causes
genotoxic,
estrogenic,
carcinogenic,
mutagenic
aquatic
organisms
humans.
Microbial
remediation
mechanism
its
enzymes
are
very
important
for
removing
from
environment.
main
residues
dichlorodiphenyldichloroethylene
(DDE)
dichlorodiphenyldichloroethane
(DDD)
can
biodegrade
slowly
soil
water.
To
enhance
this
process,
number
of
strategies
proposed,
such
as
bio-attenuation,
biostimulation,
bioaugmentation
manipulation
environmental
conditions
to
activity
microbial
enzymes.
The
addition
organic
matter
flooding
degradation.
candidates
include
micro-algae,
fungi
bacteria.
This
review
provide
brief
information
recommendation
mechanisms.
Language: Английский
Biodegradation of chromium by laccase action of Ganoderma multipileum
Maha A. Alshiekheid,
No information about this author
Aisha Umar,
No information about this author
Fuád Ameén
No information about this author
et al.
Journal of King Saud University - Science,
Journal Year:
2023,
Volume and Issue:
35(10), P. 102948 - 102948
Published: Oct. 17, 2023
Laccase
is
a
fungal
enzyme
that
play
crucial
role
in
bioremediation.
The
purified
laccase
from
Ganoderma
multipileum
and
its
effectiveness
bioremediation
of
Cr
(VI)
was
determined
this
study.
Two
species
G.
were
identified
by
ITS
sequences
their
phylogeny
compared
with
taken
GenBank
(KF494997,
LC149613,
MG739453,
MG739455).
fungi
grown
on
guaiacol
substrate
for
optimization
using
different
environmental
nutritional
conditions.
Glacc113
(75
kDa)
partially
characterized
under
parameters.
(GIAPTAD)
confirmed
Precise
Protein
Sequencing
System
to
analyze
sequence
N-terminal
amino
acid.
exhibited
maximum
optimal
activity
(1355.5
±
8.8
U/L)
at
pH
3.0
can
tolerate
the
temperature
upto
70
°C.
During
submerged
fermentation,
7th
day
after
inoculum
3
discs
100
rpm
yielded
laccase.
production
increased
inorganic
organic
nitrogen
carbon
sources.
used
reduce
(>94%)
μg/mL
into
less
toxic
chromium
(Cr
(III).
catalytic
kinetic
parameters
Vmax
Km
1.817
(mM
min-1)
1.4617
(mM),
respectively.
This
study
conditions
enhance
an
ecofriendly
approach
bio
remediate
exerted
durability
reliability
industrial
usage
also.
Language: Английский
Harnessing fungal bio-electricity: a promising path to a cleaner environment
Aisha Umar,
No information about this author
Mustansar Mubeen,
No information about this author
Iftikhar Ali
No information about this author
et al.
Frontiers in Microbiology,
Journal Year:
2024,
Volume and Issue:
14
Published: Jan. 30, 2024
Integrating
fungi
into
fuel
cell
systems
presents
a
promising
opportunity
to
address
environmental
pollution
while
simultaneously
generating
energy.
This
review
explores
the
innovative
concept
of
constructing
wetlands
as
cells
for
pollutant
degradation,
offering
practical
and
eco-friendly
solution
challenges.
Fungi
possess
unique
capabilities
in
producing
power,
fuel,
electricity
through
metabolic
processes,
drawing
significant
interest
applications
remediation
degradation.
Limited
data
exist
on
fungi’s
ability
generate
during
catalytic
reactions
involving
various
enzymes,
especially
remediating
pollutants.
Certain
species,
such
Trametes
versicolor,
Ganoderma
lucidum,
Galactomyces
reessii,
Aspergillus
spp.,
Kluyveromyce
smarxianus
,
Hansenula
anomala
have
been
reported
at
1200
mW/m
3
207
2
1,163
438
850,000
2,900
respectively.
Despite
potential
compared
conventional
methods,
role
remains
largely
unexplored.
delves
exceptional
catalysts,
serving
anodic
or
cathodic
agents
mitigate
land,
air,
water
pollutants
power.
Applications
cover
wide
range
tasks,
designed
degradation
is
discussed.
Cost-effectiveness
may
vary
depending
specific
contexts
applications.
Fungal
(FFCs)
offer
versatile
global
challenges,
addressing
increasing
demand
alternative
bioenergy
production
amid
population
growth
expanding
industrial
activities.
The
mechanistic
approach
fungal
enzymes
via
microbial
combinations
electrochemical
facilitates
oxidation
organic
substrates,
oxygen
reduction,
ion
exchange
membrane
orchestration
essential
reactions.
laccase
plays
crucial
removal
monitoring
contaminants.
consortiums
show
remarkable
fine-tuning
FFC
performance,
impacting
both
power
generation
Beyond
energy
generation,
effectively
remove
Overall,
FFCs
present
avenue
needs
simultaneously.
Language: Английский
Electricity generation and oxidoreductase potential during dye discoloration by laccase-producing Ganoderma gibbosum in fungal fuel cell
Aisha Umar,
No information about this author
Islem Abid,
No information about this author
Mohammed Antar
No information about this author
et al.
Microbial Cell Factories,
Journal Year:
2023,
Volume and Issue:
22(1)
Published: Dec. 14, 2023
Color
chemicals
contaminate
pure
water
constantly
discharged
from
different
points
and
non-point
sources.
Physical
chemical
techniques
have
certain
limitations
complexities
for
bioenergy
production,
which
motivated
the
search
a
novel
sustainable
production
approaches
during
dye
wastewater
treatment.
The
emerging
environmental
problem
of
decolorization
has
attracted
scientist's
attention
to
new,
cheap,
economical
way
treat
power
via
fungal
fuel
cells.
Ganoderma
gibbosum
was
fitted
in
cathodic
region
with
laccase
secretion
cell.
At
same
time,
placed
anodic
move
electrons
produce
power.
This
study
treated
using
oxidoreductase
enzymes
released
extracellularly
Remazol
Brilliant
Blue
R
(RBBR)
degradation
fungal-based
maximum
density
14.18
mW/m2
current
35
mA/m2
were
shown
by
concentration
5
ppm
activity
RBBR.
catalysts
gained
considerable
because
eco-friendly
alternative
easy
handling
methods.
Fungal
Fuel
Cells
(FFCs)
are
efficiently
used
treatment
electricity
production.
article
also
highlighted
construction
catalytic
cells
enzymatic
performance
species
energy
Language: Английский
Functional organic materials for energy storage and conversion: recent developments and future perspectives
Chemical Papers,
Journal Year:
2024,
Volume and Issue:
78(13), P. 7335 - 7374
Published: July 29, 2024
Language: Английский
Reducing Plastic Waste and Generating Bioelectricity Simultaneously through Fuel Cells Using the Fungus Pleurotus ostreatus
Sustainability,
Journal Year:
2024,
Volume and Issue:
16(18), P. 7909 - 7909
Published: Sept. 10, 2024
Plastic
waste,
a
persistent
and
escalating
issue,
the
high
costs
of
installing
electric
power,
particularly
in
remote
areas,
have
become
pressing
concerns
for
governments.
This
research
proposes
novel
method
generating
power
from
sugarcane
bagasse
waste
reducing
plastic
waste.
The
key
to
this
is
use
fungus
Pleurotus
ostreatus
microbial
fuel
cells.
Microbial
cells
(MFCs)
demonstrated
their
effectiveness
by
peaks
current
(4.325
±
0.261
mA)
voltage
(0.427
0.031
V)
on
day
twenty-six,
with
pH
5.539
0.278.
peak
electrical
conductivity
substrate
was
130.574
4.981
mS/cm.
MFCs
were
able
reduce
chemical
oxygen
demand
83%,
showing
maximum
density
86.316
4.724
mW/cm2
an
internal
resistance
37.384
62.522
Ω.
infrared
spectra
samples
showed
decrease
2850–2920,
1470,
720
cm−1,
which
are
more
characteristic
plastic,
demonstrating
action
samples.
Also,
micrographs
taken
SEM
reduction
thickness
film
54.06
µm
formation
microstructures
surface,
such
as
pores
raised
layers
sample
used.
Language: Английский
Exploring fungal potential for enhancement of environment
Revista Brasileira de Ciências Ambientais,
Journal Year:
2024,
Volume and Issue:
59
Published: Jan. 1, 2024
Inadequate
effluent
disposal
has
caused
damage
to
the
environment
worldwide.
This
study
aimed
perform
a
scientometric
analysis
of
studies
exploiting
fungi
applied
improve
quality
effluents.
We
used
Web
Science,
Scopus
and
Pubmed
databases
search
for
publications
between
1980
2023.
The
pollutants
parameters
most
commonly
addressed
in
scientific
literature
were
identified,
revealing
trends
gaps
field.
A
correlation
was
performed
variables
Research
Development
(R&D),
gross
domestic
product
(GDP)
per
capita,
number
inhabitants
country
investigate
whether
these
are
correlated
with
research
each
country.
In
addition,
linear
regression
effect
on
studies.
total
11183
articles
obtained,
which
2001
identified
as
related
main
topic,
then
more
than
30
different
types
removed,
such
primarily
including
dyes
(951),
phenolic
compounds
(682),
heavy
metals
(562).
Concerning
parameters,
chemical
oxygen
demand
frequently
mentioned
obtained
from
review
(620).
world’s
populous
countries
produce
largest
topic.
Our
results
highlight
bioremediation
potential
importance
literature,
even
under
inhospitable
conditions
microorganisms
(such
toxicity,
low
temperatures,
high
acidity),
reducing
environmental
aquatic
environments
mitigating
harm
public
health.
Language: Английский