Filter Results
Related Organization
- Biological and Environmental Systems Science Directorate (23)
- Computing and Computational Sciences Directorate (35)
- Energy Science and Technology Directorate (217)
- Fusion and Fission Energy and Science Directorate (21)
- Information Technology Services Directorate (2)
- Isotope Science and Enrichment Directorate (6)
- National Security Sciences Directorate (17)
- Neutron Sciences Directorate (11)
- Physical Sciences Directorate
(128)
- User Facilities (27)
Researcher
- Lawrence {Larry} M Anovitz
- William Carter
- Alex Roschli
- Andrzej Nycz
- Brian Post
- Chris Masuo
- Luke Meyer
- Ryan Dehoff
- Adam Stevens
- Alex Walters
- Alice Perrin
- Amy Elliott
- Andrew G Stack
- Cameron Adkins
- Christopher Ledford
- Erin Webb
- Evin Carter
- Isha Bhandari
- Jeremy Malmstead
- Joshua Vaughan
- Juliane Weber
- Kitty K Mccracken
- Liam White
- Michael Borish
- Michael Kirka
- Oluwafemi Oyedeji
- Patxi Fernandez-Zelaia
- Peng Yang
- Peter Wang
- Rangasayee Kannan
- Roger G Miller
- Sai Krishna Reddy Adapa
- Sarah Graham
- Soydan Ozcan
- Sudarsanam Babu
- Tyler Smith
- William Peter
- Xianhui Zhao
- Yan-Ru Lin
- Ying Yang
- Yukinori Yamamoto

CO2 capture by mineral looping, either using calcium or magnesium precursors requires that the materials be calcined after CO2 is captured from the atmosphere. This separates the CO2 for later sequestration and returned the starting material to its original state.

The use of biomass fiber reinforcement for polymer composite applications, like those in buildings or automotive, has expanded rapidly due to the low cost, high stiffness, and inherent renewability of these materials. Biomass are commonly disposed of as waste.

Mineral looping is a promising method for direct air capture of CO2. However, reduction of sorbent reactivity after each loop is likely to be significant problems for mineral looping by MgO.

High strength, oxidation resistant refractory alloys are difficult to fabricate for commercial use in extreme environments.