|
nanomechanics |
5 |
|
grain size |
3 |
|
high-entropy alloy |
3 |
|
in situ tem |
3 |
|
mechanical metamaterial |
3 |
|
microstructure |
3 |
|
thermal stability |
3 |
|
3d printing |
2 |
|
4h hexagonal phase |
2 |
|
ag microwire |
2 |
|
atom probe tomography |
2 |
|
bamboo |
2 |
|
contact resistance |
2 |
|
crack resistance |
2 |
|
deformation mechanism |
2 |
|
deformation twin |
2 |
|
dislocation |
2 |
|
ductility |
2 |
|
electron energy-loss spectroscopy |
2 |
|
flexural behavior |
2 |
|
fracture behavior |
2 |
|
grain boundary |
2 |
|
hardness |
2 |
|
he bubbles |
2 |
|
high-entropy alloys |
2 |
|
high-k dielectric |
2 |
|
highly pressurized helium nanobubbles |
2 |
|
in situ mechanical testing |
2 |
|
in situ nanomechanics |
2 |
|
in situ tensile testing |
2 |
|
in-situ tensile test |
2 |
|
map2: benchmark |
2 |
|
mechanical behavior |
2 |
|
mechanical properties |
2 |
|
medium-entropy alloy |
2 |
|
micro-mechanical device |
2 |
|
microlattice |
2 |
|
microwire |
2 |
|
molecular crystals |
2 |
|
monolayers |
2 |
|
nanoindentation |
2 |
|
nanomanufacturing |
2 |
|
nanowire |
2 |
|
organic field-effect transistors |
2 |
|
origami |
2 |
|
partial dislocations |
2 |
|
phase transition |
2 |
|
radiation-induced segregation |
2 |
|
rayleigh instability |
2 |
|
scale down |
2 |
|
semiconductors |
2 |
|
shrink films |
2 |
|
size effect |
2 |
|
sputtering |
2 |
|
stacking fault energy |
2 |
|
stacking faults |
2 |
|
strength |
2 |
|
strengthening effect |
2 |
|
structural materials |
2 |
|
subthreshold swing |
2 |
|
tensile testing |
2 |
|
thin films |
2 |
|
torsion |
2 |
|
transmission electron microscopy |
2 |
|
tungsten |
2 |
|
ultrathin gold nanoribbons |
2 |
|
work-hardening |
2 |
|
1-d nanomaterial |
1 |
|
1d nanostructure |
1 |
|
2d materials |
1 |
|
3d microelectronics |
1 |
|
3d nanostructure |
1 |
|
3d printing technique |
1 |
|
3d printing technology |
1 |
|
a1. crystal morphology |
1 |
|
a2. hydrothermal crystal growth |
1 |
|
actuator |
1 |
|
adhesion |
1 |
|
adhesion mechanism |
1 |
|
advanced manufacturing |
1 |
|
ag nanowire |
1 |
|
all-aqueous microfluidics |
1 |
|
alpha irradiation |
1 |
|
altivnb |
1 |
|
aluminum |
1 |
|
amorphous materials |
1 |
|
amorphous structure |
1 |
|
architected material |
1 |
|
architected metamaterials |
1 |
|
architectured graphene |
1 |
|
assembly |
1 |
|
asymmetric growth |
1 |
|
asymmetry |
1 |
|
atomic configuration |
1 |
|
atomic force microscopy (afm) |
1 |
|
auxetic |
1 |
|
auxetics |
1 |
|
b1. metals |
1 |
|
b1. nanomaterials |
1 |
|
bamboo constituents |
1 |
|
bending fracture |
1 |
|
bending stiffness |
1 |
|
bi-phase lattice |
1 |
|
bio-inspired structural materials |
1 |
|
biocompatibility |
1 |
|
bioinspired architecture |
1 |
|
biomechanics |
1 |
|
biomimetic structures |
1 |
|
biomimetics |
1 |
|
bonding |
1 |
|
boron nitride-like catalyst |
1 |
|
bottom-up manufacturing |
1 |
|
broadband ultrasound |
1 |
|
c/c composites |
1 |
|
carbon |
1 |
|
carbon dioxide reduction reaction |
1 |
|
carbon fiber |
1 |
|
carbon fiber bridging |
1 |
|
carbon fiber reinforced polymer (cfrp) |
1 |
|
carbon materials |
1 |
|
carbon nanotube |
1 |
|
cardiovascular stent |
1 |
|
cargo transport |
1 |
|
cathodes |
1 |
|
cell reprogramming |
1 |
|
cell transfection |
1 |
|
cellular materials |
1 |
|
cellulose membrane |
1 |
|
cementitious composites |
1 |
|
cementitious materials |
1 |
|
ceramic |
1 |
|
ceramic architectures |
1 |
|
cfrp |
1 |
|
chemical short-range order |
1 |
|
cnt nano-bridging |
1 |
|
cnt-reinforced epoxy nanocomposites |
1 |
|
co o 3 4 |
1 |
|
coating |
1 |
|
cold welding |
1 |
|
composite lattice |
1 |
|
composites |
1 |
|
compression and release processes |
1 |
|
compressive behavior |
1 |
|
computational modeling |
1 |
|
contact mechanics |
1 |
|
copper |
1 |
|
core–shell double microtubes structure |
1 |
|
corrosion resistance |
1 |
|
crack propagation |
1 |
|
crss |
1 |
|
crystalline-amorphous nanostructure |
1 |
|
cspbbr 3 |
1 |
|
cu-ta alloy |
1 |
|
cu-to-cu direct bonding |
1 |
|
cyclic deformation |
1 |
|
cyclic deformation performance |
1 |
|
damage mechanisms |
1 |
|
damage recoverability |
1 |
|
damage tolerance |
1 |
|
defect engineering |
1 |
|
defect tolerance |
1 |
|
deform mechanism |
1 |
|
deformation behaviors |
1 |
|
diamond |
1 |
|
diamond nanoneedle |
1 |
|
dielectric property |
1 |
|
digital micromirror device (dmd) |
1 |
|
dislocation nucleation |
1 |
|
dual-phase strengthening |
1 |
|
ductile semiconductor |
1 |
|
dust-mitigation |
1 |
|
dynamic solute partitioning |
1 |
|
elastic deformation |
1 |
|
elastic modulus |
1 |
|
elastic property |
1 |
|
elastic strain engineering |
1 |
|
elasticity |
1 |
|
electrical property |
1 |
|
electrocatalysts |
1 |
|
electrochemical performance |
1 |
|
electronics |
1 |
|
energy conversion |
1 |
|
energy metabolism |
1 |
|
energy storage |
1 |
|
epoxy composite |
1 |
|
experimental techniques |
1 |
|
facets |
1 |
|
fatigue |
1 |
|
fatigue behavior |
1 |
|
fatigue failure model |
1 |
|
fatigue prediction model |
1 |
|
fea |
1 |
|
fem simulation |
1 |
|
femtosecond laser |
1 |
|
few-layer mos2 |
1 |
|
fiber supercapacitor |
1 |
|
fibromyalgia |
1 |
|
flexible |
1 |
|
flexible electronics |
1 |
|
flexible sensor |
1 |
|
flexible supercapacitor |
1 |
|
flexible thermoelectric generator |
1 |
|
flow lithography |
1 |
|
focused ion beam |
1 |
|
focused ion beam machining |
1 |
|
fracture |
1 |
|
fracture strength |
1 |
|
fracture toughness |
1 |
|
functionalities |
1 |
|
functionalization |
1 |
|
functionally graded design |
1 |
|
functionally graded structure |
1 |
|
gase |
1 |
|
gene fusion |
1 |
|
geopolymer composites |
1 |
|
gold microwire |
1 |
|
gold nanorod |
1 |
|
gold nanowires |
1 |
|
gradient evolution effect |
1 |
|
grain boundaries |
1 |
|
grain boundary segregation |
1 |
|
graphene |
1 |
|
graphene fibers |
1 |
|
graphene nanofilms |
1 |
|
graphene oxide |
1 |
|
graphene oxide (go) |
1 |
|
graphite flakes |
1 |
|
h-bn |
1 |
|
hall-petch relationship |
1 |
|
hardening |
1 |
|
helium bubbles |
1 |
|
heterostructures |
1 |
|
hierarchical architecture |
1 |
|
hierarchical nanostructure |
1 |
|
hierarchical structure |
1 |
|
hierarchical structures |
1 |
|
high conductivity |
1 |
|
high crystallinity |
1 |
|
high cycle fatigue testing |
1 |
|
high entropy alloy |
1 |
|
high-entropy alloy (hea) |
1 |
|
high-temperature corrosion |
1 |
|
hollow microtubes |
1 |
|
human-machine interface |
1 |
|
hydrodynamic regulation |
1 |
|
hydrogen evolution reaction |
1 |
|
hydrophobicity |
1 |
|
in situ |
1 |
|
in situ compression |
1 |
|
in situ compressive test |
1 |
|
in situ electron microscopy (sem and tem) |
1 |
|
in situ flexural bending test |
1 |
|
in situ mechanical tests |
1 |
|
in situ nanoindenter |
1 |
|
in situ sem |
1 |
|
in situ sem/tem |
1 |
|
in situ sem/tem testing |
1 |
|
in situ testing |
1 |
|
in situ tests |
1 |
|
in situ transmission electron microscope (tem) |
1 |
|
in situ transmission electron microscopy (tem) |
1 |
|
in-plane mechanical properties |
1 |
|
in-situ tem |
1 |
|
induced pluripotency |
1 |
|
ink formulation process |
1 |
|
integrated metabolomics |
1 |
|
interconnect |
1 |
|
interface engineering |
1 |
|
interface wettability |
1 |
|
interfacial segregation |
1 |
|
interfacial strength |
1 |
|
intermetallics |
1 |
|
internal stress |
1 |
|
intracellular delivery |
1 |
|
janus nanostructures |
1 |
|
l-j potential |
1 |
|
laser engraving |
1 |
|
laser polishing |
1 |
|
laser-induced plasmon |
1 |
|
laser-induction hybrid cladding (lihc) |
1 |
|
lattice |
1 |
|
lattice electrodes |
1 |
|
lattice material |
1 |
|
lattice materials |
1 |
|
lattice thermal conductivity |
1 |
|
lattice-inspired structure |
1 |
|
lattices |
1 |
|
ldh |
1 |
|
lightweight high-entropy alloy film |
1 |
|
lightweight structures |
1 |
|
liquid metals |
1 |
|
low reynolds number |
1 |
|
lunar dust |
1 |
|
macroassembly |
1 |
|
magnetron sputtering |
1 |
|
mandibular prosthesis |
1 |
|
map4: demonstrate |
1 |
|
mcralx |
1 |
|
mechanical characterization |
1 |
|
mechanical metamaterials |
1 |
|
mechanical property |
1 |
|
mechanical recoverability |
1 |
|
mechanical testing |
1 |
|
mechanics |
1 |
|
membrane disruption |
1 |
|
mems |
1 |
|
meso-lattice composites |
1 |
|
metal-free |
1 |
|
metallic glass |
1 |
|
metallic glass microwires |
1 |
|
metallic glasses |
1 |
|
metallic thin film coating |
1 |
|
metallurgy |
1 |
|
metamaterials |
1 |
|
mg alloy |
1 |
|
micro-/nano-fluidics |
1 |
|
microdevices |
1 |
|
microelectromechanical systems (mems) |
1 |
|
microfiber |
1 |
|
microfluidics |
1 |
|
microlattice metamaterial |
1 |
|
micromechanical device |
1 |
|
micromechanical model |
1 |
|
micromechanical testing |
1 |
|
micromechanics |
1 |
|
micropillar compression |
1 |
|
microspheres |
1 |
|
microstrain |
1 |
|
microstructural evolution |
1 |
|
microstructure characterization |
1 |
|
microstructure evolution |
1 |
|
misfit |
1 |
|
mnco-ldh |
1 |
|
mno nanowire 2 |
1 |
|
mo c nanozyme 2 |
1 |
|
molecular dynamics |
1 |
|
molecular dynamics (md) |
1 |
|
molecular dynamics simulation |
1 |
|
molten salts |
1 |
|
monolayer graphene |
1 |
|
multi-component alloy |
1 |
|
multi-principal element alloy |
1 |
|
multi-scale mechanical characterization |
1 |
|
multilayer coating |
1 |
|
multilayer graphene |
1 |
|
multiscale structure |
1 |
|
multiwall carbon nanotube |
1 |
|
multiwall carbon nanotubes |
1 |
|
nano generator |
1 |
|
nano welding |
1 |
|
nano-composites |
1 |
|
nano-fatigue |
1 |
|
nano-manufacturing |
1 |
|
nanocomposite piezoresistive sensor |
1 |
|
nanocrystalline |
1 |
|
nanoelectronics |
1 |
|
nanogap |
1 |
|
nanograined structure |
1 |
|
nanoindenter |
1 |
|
nanolattice |
1 |
|
nanolayered composites |
1 |
|
nanomanipulation |
1 |
|
nanopolycrystalline |
1 |
|
nanostructured al film |
1 |
|
nanotechnology |
1 |
|
nanotwin |
1 |
|
nanotwins and 9r phase |
1 |
|
nanowelding |
1 |
|
nanowires |
1 |
|
natural overlays |
1 |
|
negative poisson's ratio |
1 |
|
negative poisson's ratio (npr) microlattice |
1 |
|
negative thermal expansion |
1 |
|
nems |
1 |
|
neutron diffraction |
1 |
|
ni nanoparticles |
1 |
|
ni nanowire |
1 |
|
nickel nanowire |
1 |
|
nickel wire |
1 |
|
nickel-cobalt double hydroxides |
1 |
|
nico o 2 4 |
1 |
|
nio |
1 |
|
nitride thin film |
1 |
|
nitrogen doping |
1 |
|
noncontact manipulation |
1 |
|
nonlocal elastic theory |
1 |
|
notched 2.5d woven composites |
1 |
|
nuclear materials |
1 |
|
numerical simulation |
1 |
|
ods coating |
1 |
|
optical fabrication |
1 |
|
optimization design |
1 |
|
optoelectronics |
1 |
|
oriented attachment |
1 |
|
osmosis |
1 |
|
oxidation |
1 |
|
oxygen evolution reaction |
1 |
|
p3 oxide |
1 |
|
passive protection technology |
1 |
|
pen-ink electrode |
1 |
|
perovskite nanowire |
1 |
|
phonon scattering |
1 |
|
photocatalytic co reduction 2 |
1 |
|
piezoresistive |
1 |
|
piezoresistive sensor |
1 |
|
planar heterogeneous structure |
1 |
|
plastic deformation |
1 |
|
plasticity |
1 |
|
point contact reaction |
1 |
|
poiseuille flow |
1 |
|
polylactide |
1 |
|
polymer composite |
1 |
|
polymeric reinforcement |
1 |
|
porous structure |
1 |
|
post-treatment |
1 |
|
power electronics |
1 |
|
pressure sensor |
1 |
|
programmable pathway |
1 |
|
projection micro-stereolithography (pμsl) |
1 |
|
propulsion |
1 |
|
protein chimeras |
1 |
|
protein-based materials |
1 |
|
pulley-type contacts |
1 |
|
pulse rate |
1 |
|
pyrolysis |
1 |
|
ravinelike coni s 2 4 |
1 |
|
reaction mechanism |
1 |
|
real volume fraction |
1 |
|
recent development |
1 |
|
recoverability |
1 |
|
recrystallization |
1 |
|
rehabilitation |
1 |
|
relative humidity |
1 |
|
reliability |
1 |
|
resolved shear stress |
1 |
|
rotating magnetic field |
1 |
|
second phase strengthening |
1 |
|
self-assembly |
1 |
|
self-healing |
1 |
|
senor |
1 |
|
service |
1 |
|
shear band initiation |
1 |
|
silicon carbide |
1 |
|
silver fabrics |
1 |
|
silver nanowires |
1 |
|
single-fiber pull-out |
1 |
|
single-layer mos2 |
1 |
|
slip length |
1 |
|
smart applications |
1 |
|
sodium-ion batteries |
1 |
|
soft |
1 |
|
soft matter |
1 |
|
specific energy absorption |
1 |
|
spray-on sensor |
1 |
|
stacking fault |
1 |
|
stereolithography |
1 |
|
stereolithography (sla) 3d printing |
1 |
|
stiff |
1 |
|
strain engineering |
1 |
|
strain rate sensitivity |
1 |
|
strain sensor |
1 |
|
strength-ductility synergy |
1 |
|
stretchable electronics |
1 |
|
structural design |
1 |
|
structural metamaterials |
1 |
|
supercapacitor |
1 |
|
supercapacitors |
1 |
|
surface creep |
1 |
|
surface mechanical attrition treatment (smat) |
1 |
|
synchrotron x-ray scattering |
1 |
|
syntactic foams |
1 |
|
tandem catalysis |
1 |
|
temperature |
1 |
|
tension behaviors |
1 |
|
terahertz sensors |
1 |
|
testing method |
1 |
|
testing technique |
1 |
|
theoretical modeling |
1 |
|
thermal barrier coatings |
1 |
|
thermal barrier coatings (tbcs) |
1 |
|
thermal conductivity |
1 |
|
thermal instability |
1 |
|
thermal properties |
1 |
|
thermal sensor |
1 |
|
thermoacoustic devices |
1 |
|
thermoelectric material |
1 |
|
thermoelectrics |
1 |
|
thin film |
1 |
|
thin film coating |
1 |
|
tial-based alloy |
1 |
|
titanium dioxide |
1 |
|
topology optimization |
1 |
|
toughness |
1 |
|
tri-phase lattice |
1 |
|
tubular silica microfiber |
1 |
|
tumbling motion |
1 |
|
twin boundaries |
1 |
|
twistronics |
1 |
|
two-dimensional (2d) materials |
1 |
|
two-photon lithography (tpl) |
1 |
|
ultra-strength |
1 |
|
ultrafast response |
1 |
|
ultrathin au nanowires |
1 |
|
ultrathin gold nanowire |
1 |
|
ultrathin gold nanowires |
1 |
|
ultrathin nanowire |
1 |
|
uniform rotating magnetic field |
1 |
|
unmanned aerial vehicle (uav) |
1 |
|
viscoelasticity |
1 |
|
voids |
1 |
|
w/o/w double emulsion droplet |
1 |
|
water splitting |
1 |
|
wearable electronics |
1 |
|
weibull modulus |
1 |
|
wire bonding |
1 |
|
wood |
1 |
|
yield strength |
1 |
|
yttria stabilized zirconia (ysz) |
1 |
|
zr alloying |
1 |
