The Role of Lattice Distortion in Catalysis: Functionality and Distinctions from Strain

Area of Science:

• Materials Science
• Catalysis
• Surface Chemistry

Background:

• High-performance catalysts are crucial for clean energy and environmental solutions.
• Structural modifications, particularly lattice distortion, profoundly influence catalytic processes.
• Lattice distortion, an intrinsic atomic reconfiguration, differs from strain, which arises from external factors.

Purpose of the Study:

• To systematically compare lattice distortion and strain in catalysis.
• To elucidate the mechanistic roles of lattice distortion in enhancing catalytic activity and stability.
• To discuss challenges and future outlooks for practical applications.

Main Methods:

• Comparative analysis of definitions, origins, and characterization methods for lattice distortion and strain.
• Review of literature focusing on the mechanistic impacts of lattice distortion on catalytic performance.
• Discussion of synergistic effects, advanced characterization, and sustainable strategies.

Main Results:

• Lattice distortion enhances catalysis through intrinsic structure modification, carrier migration modulation, and surface chemistry tuning.
• It improves catalyst stability and reactivity by influencing molecular adsorption, reaction pathways, and active site tailoring.
• Lattice distortion coupled with spin polarization effects promotes efficient catalytic performance.

Conclusions:

• Lattice distortion is a key factor in designing high-performance catalysts.
• Understanding and controlling lattice distortion offers significant potential for advancing chemical and energy transformation technologies.
• Future research should focus on synergistic regulation, advanced in-situ characterization, and sustainable applications.