Porous materials: The next frontier in energy technologies

Пористые материалы: следующая граница в энергетических технологиях
Maja Rücker, Andreas Stein, Eliyahu M. Farber, Nicola M. Seraphim, Kesha N. Tamakuwala, David Eisenberg
2025-10-30

energy transfer vectorsmass charge heat transportpore size distributionporosity design and characterizationporous materials
Porous materials with pore sizes spanning the range from molecular to macroscopic dimensions (from angstroms to centimeters) are essential in electrochemical, thermoelectric, nuclear, and solar power sources and in the extraction of oil, gas, and geothermal heat. To enable the clean, fast, and efficient conversion of energy, the porous structure must be designed to allow, modulate, or block the flow of energy transfer vectors. The most important energy streams are mass, charge, heat, radiation, and pressure, and they must be optimized while packing the optimal surface area per device volume. In this Review, we analyze the physical processes that enable energy transfer in porous structures, highlighting recent advances in the design, characterization, modeling, and fundamental understanding of porosity that have enabled breakthroughs across the landscape of energy technologies.
1
Effective energy conversion requires designing porous structures to allow, modulate, or block flow of key energy transfer vectors: mass, charge, heat, radiation, and pressure.
2
Optimizing porous materials involves balancing these energy streams while maximizing surface area per device volume.
3
Porous materials with pore sizes from angstroms to centimeters are essential across many energy technologies including electrochemical, thermoelectric, nuclear, and solar power.
4
Recent advances in design, characterization, modeling, and fundamental understanding of porosity have enabled breakthroughs across diverse energy applications.

Porous materials (structures with pore sizes from angstroms to centimeters)

Design, characterization, modeling, and fundamental understanding of porosity to enable and optimize energy transfer (mass, charge, heat, radiation, pressure) and surface-area-per-volume for energy technologies

Publication Details
Publication Date
2025-10-30
Journal
Publisher
ISSN
Cited by
114
Access Type
Author Information
Authors
Maja Rücker
Andreas Stein
Eliyahu M. Farber
Nicola M. Seraphim
Kesha N. Tamakuwala
David Eisenberg
Explore further
Open the scid.ai AI chat with a ready-made request: it will find papers on a similar topic and help build a literature review.
Find similar papers in the chat
Make a presentation
100%