Self-Assembly of Multimolecular Components for Engineering Enzyme-Mimetic Materials
Accounts of Materials Research,
Journal Year:
2024,
Volume and Issue:
5(9), P. 1072 - 1086
Published: July 4, 2024
ConspectusNatural
enzymes,
with
their
intricate
three-dimensional
structures,
facilitate
a
wide
array
of
biochemical
reactions
exceptional
precision
and
speed.
The
catalytic
capabilities
enzymes
arise
from
the
distinctive
structures
active
sites,
where
functional
groups
collaborate
or
aid
cofactors
(organic
ionic)
in
binding
substrates
specificity
catalyzing
transformations.
Inspired
by
structure–function
relationship
supramolecular
self-assembly,
bottom-up
approach
nanofabrication,
has
been
employed
to
create
enzyme-mimetic
catalysts.
However,
accurately
replicating
enzymatic
sites
poses
formidable
challenge,
primarily
because
intricacies
mimicking
complexity
natural
protein
folding.Many
biological
systems,
such
as
tryptophan
synthase
ribosomes,
rely
on
association
multiple
component
subunits,
each
maintaining
its
structural
integrity,
enable
efficient
versatile
functionalities.
hierarchical
self-assembly
principles
observed
these
systems
have
inspired
us
design
self-assemble
complementary
molecular
building
blocks
that
form
individual
folding
aggregating
allowing
for
precise
control
over
distribution
reactive
enzyme-like
sites.
customization
either
without
disrupting
enables
flexible
engineering
properties.
This
Account
will
focus
employing
components,
drawing
research
progress
our
lab,
construct
catalysts
built-in
metal-dependent
metal-free
be
highlighted.To
fabricate
heme
pockets
copper
within
synthetic
materials,
we
scaffold
stabilizing
hemin
forming
cluster,
followed
introduction
second
enhance
substrate
adsorption
metal
reactivity.
resulting
enzyme
mimics
exhibit
remarkable
synergistic
activities
possess
great
stability
against
harsh
conditions,
high
temperatures,
ionic
strength,
cyclic
acidification/neutralization
treatment.
They
can
engineered
tailorable
selectivity
toward
specific
chirality
sizes
externally
stimulated
switch
between
ON/OFF
states.
These
shown
performances
sensing
biomolecules
interest,
biomass
degradation,
aiding
understanding
mechanism
native
enzymes.
To
achieve
catalysis,
introduce
"driving"
guide
formation
assemblies
activity
hydrolases,
photodecarboxylase,
photo-oxidase,
applications
peptide
modifications
antibacterial
therapy.
Moreover,
organized
components
like
histidine
catalyze
achieved
heme-dependent
providing
insights
into
novel
biocatalytic
mechanisms.
Additionally,
discuss
DNAzyme
units
DNA
nanostructured
templates,
which
provide
suitable
microenvironments
fabrication
polymer
nanopattern
well-defined
shapes.In
end,
key
challenges
related
modeling,
enhancing
performance,
increasing
We
also
propose
future
perspectives
achieving
high-value
practical
applications.
Our
collective
efforts
outline
strategies
developing
robust
catalysts,
general
methods
may
extend
other
aiming
mimic
catalysis.
Language: Английский
Fundamental and Application of Co-assembly of Peptides and Proteins: Experiment and Computation
Newton A. Ihoeghian,
No information about this author
Qing Shao
No information about this author
Supramolecular Materials,
Journal Year:
2025,
Volume and Issue:
unknown, P. 100103 - 100103
Published: April 1, 2025
Language: Английский
Biomolecular Actuators for Soft Robots
Chemical Reviews,
Journal Year:
2025,
Volume and Issue:
unknown
Published: May 7, 2025
Biomolecules
present
promising
stimuli-responsive
mechanisms
to
revolutionize
soft
actuators.
Proteins,
peptides,
and
nucleic
acids
foster
specific
intermolecular
interactions,
their
boundless
sequence
design
spaces
encode
precise
actuation
capabilities.
Drawing
inspiration
from
nature,
biomolecular
actuators
harness
existing
properties
meet
the
needs
of
diverse
applications.
This
review
features
that
respond
a
wide
variety
stimuli
drive
both
user-directed
autonomous
actuation.
We
discuss
how
advances
in
biomaterial
fabrication
accelerate
prototyping
precise,
custom
actuators,
we
identify
biomolecules
with
untapped
potential.
Finally,
highlight
opportunities
for
multifunctional
reconfigurable
improve
versatility
sustainability
next-generation
Language: Английский
Synthetic Nanoassemblies for Regulating Organelles: From Molecular Design to Precision Therapeutics
Yanfei Guo,
No information about this author
Peiran Li,
No information about this author
Xiaocui Guo
No information about this author
et al.
ACS Nano,
Journal Year:
2024,
Volume and Issue:
18(44), P. 30224 - 30246
Published: Oct. 23, 2024
Each
organelle
referring
to
a
complex
multiorder
architecture
executes
respective
biological
processes
via
its
distinct
spatial
organization
and
internal
microenvironment.
As
the
assembly
of
biomolecules
is
structural
basis
living
cells,
creating
synthetic
nanoassemblies
with
specific
physicochemical
morphological
properties
in
cells
interfere
or
couple
natural
architectures
has
attracted
great
attention
precision
therapeutics
cancers.
In
this
review,
we
give
an
overview
latest
advances
for
precise
regulation,
including
formation
mechanisms,
triggering
strategies,
biomedical
applications
therapeutics.
We
summarize
emerging
material
systems,
polymers,
peptides,
deoxyribonucleic
acids
(DNAs),
their
intermolecular
interactions
intercellular
nanoassemblies,
highlight
design
principles
constructing
precursors
that
assemble
into
targeting
organelles
cellular
environment.
further
showcase
developed
intracellular
mitochondria,
endoplasmic
reticulum,
lysosome,
Golgi
apparatus,
nucleus
describe
underlying
mechanisms
regulation
cancer.
Last,
essential
challenges
field
prospects
future
are
discussed.
This
review
should
facilitate
rational
organelle-targeting
comprehensive
recognition
by
materials
contribute
deep
understanding
application
Language: Английский
Nanomaterials and methods for cancer therapy: 2D materials, biomolecules, and molecular dynamics simulations
Journal of Materials Chemistry B,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Jan. 1, 2024
Nanomaterials
made
from
2D
semiconductors
and
biomolecules
are
reviewed.
Cell-nanoparticle
interactions
examined
in
recent
simulations.
These
nanomaterials
MD
simulations
reveal
novel
mechanisms
enable
cancer
drug
delivery
targeting.
Language: Английский
Design of Cell-Specific Targeting Peptides for Cancer Therapy
Targets,
Journal Year:
2024,
Volume and Issue:
2(3), P. 186 - 201
Published: July 27, 2024
The
landscape
of
cancer
therapy
has
gained
major
impetus
through
the
development
materials
capable
selectively
targeting
cells
while
sparing
normal
cells.
Synthetic
peptides
are
appealing
as
scaffolds
for
creation
such
materials.
They
small
in
size,
amenable
to
chemical
synthesis
and
functionalization,
possess
diverse
structural
space
modulating
properties.
Here,
we
review
some
fundamental
insights
into
design,
discovery,
evolution
peptide-based
agents,
with
a
particular
focus
on
two
types
cell
targets:
unique/overexpressed
surface
receptors
abnormal
physiological
We
highlight
cutting-edge
strategies
from
literature
last
decades
that
demonstrate
innovative
approaches
constructing
receptor-specific
cyclic
binders
stimulus-responsive
Additionally,
discuss
potential
future
directions
advancing
this
field,
aim
pushing
frontiers
targeted
forward.
Language: Английский