Electrochemical CO2 reduction (CO2 ECR) is an efficient approach to achieving eco-friendly
energy generation and environmental sustainability. This approach is capable of lowering …

X-ray-based analytics are routinely applied in many fields, including physics, chemistry,
materials science, and engineering. The full potential of such techniques in the life sciences …

At the nanoscale, elastic strain and crystal defects largely influence the properties and
functionalities of materials. The ability to predict the structural evolution of catalytic …

Defect engineering has recently gained considerable interest in electrocatalysis by
extending the portfolio of materials' design strategies toward more efficient and sustainable …

Electrocatalysis is at the heart of a broad range of physicochemical applications that play an
important role in the present and future of a sustainable economy. Among the myriad of …

The ability to visualize crystalline defects and lattice distortions at the nanoscale holds
profound implications for enhancing material properties and optimizing their design. Bragg …

High‐Ni layered oxides undergo distinct chemomechanical evolution upon high‐voltage
charging over 4.2 V, producing crystallographic defects and associated lattice distortions …

Electronic or catalytic properties can be modified at the nanoscale level. Engineering
efficient and specific nanomaterials requires the ability to study their complex structure …

Understanding the strain dynamic behavior of catalysts is crucial for the development of cost-
effective, efficient, stable, and long-lasting catalysts. Using time-resolved Bragg coherent …

Bimetallic catalysts can undergo segregation or redistribution of the metals driven by
oxidizing and reducing environments. Bragg coherent diffraction imaging (BCDI) was used …