Screening Materials Relevant for Energy Technologies.

Area of Science:

• Materials Science
• Computational Chemistry
• Energy Science

Background:

• Large-scale screening of materials is crucial for advancing energy technologies.
• Nanoporous materials show promise for applications such as carbon capture and methane storage.
• Computational methods accelerate the discovery and optimization of materials for energy applications.

Purpose of the Study:

• To review recent advances in computational techniques for materials screening.
• To highlight the application of these techniques to carbon capture and methane storage.
• To assess the potential of computational screening in meeting economic targets for energy processes.

Main Methods:

• Review of recent computational techniques for materials discovery.
• Application of large-scale screening to nanoporous materials.
• Analysis of economic viability for targeted energy applications.

Main Results:

• Computational screening effectively identifies promising nanoporous materials for energy applications.
• Recent advances enable efficient large-scale screening of diverse material classes.
• Screening studies demonstrate the potential to achieve economic targets for carbon capture and methane storage.

Conclusions:

• Computational materials screening is a powerful tool for accelerating energy technology development.
• Nanoporous materials are key candidates for future energy solutions.
• Economic feasibility can be predicted and guided by computational screening approaches.