Abstract Reliable, inexpensive, environment-friendly, and durable properties of carbon
materials with unique and outstanding photoelectric performance is highly desired for …

The introduction of dislocations and precipitates has proven to be the effective methods to
improve the mechanical properties of metallic materials and break strength-ductility trade-off …

Over the past few decades, in situ transmission electron microscopy (TEM) has emerged as
a powerful experimental technique for materials design and characterization. It offers …

For lithium-ion batteries (LIBs), the current collectors are indispensable components for
loading electrode materials. The electrolytic copper foils with different tensile strength were …

Most inorganic thermoelectric semiconductors are intrinsically brittle, restricting the
application of thermoelectric materials. Therefore, developing ductile thermoelectric …

Body-centred cubic (BCC) metals are known to have unstable intrinsic stacking faults and
high resistance to deformation twinning, which can strongly influence their twinning …

Most refractory high-entropy alloys (RHEAs) with Al possess excellent strength but low
elongation. Low ductility is generally induced by the formation of brittle phases after long …

To introduce D022 superlattice (noted as γ′′ phase) precipitation strengthening in
additive manufacturing, a design strategy of combining the overall valence electron …

A high strength steel with a combination of∼ 930 MPa yield strength and excellent low
temperature toughness with an upper shelf energy of above 200 J and ductile brittle …

High-strain-induced microstructural refinement and dislocations are critical for the
strengthening of metallic materials; however, this is difficult to achieve in ceramic materials …