Skip Navigation
Search
A U.S. Department of Energy, Office of Science funded Energy Frontier Research Center

Research Highlights 

 

Reaction network highlight slide

Wright-SHED

 


 

Miura-Observing and modeling

 


 

Wustrow-Lowering ternary oxide synthesis temperatures

 


 

Coaty-CRS

 


 

Beauvais-FeS flow cell

 


 

Wright-Crystal mapping

 


 

Huang-Parameterization

 


 

Denney-Illuminating Single Crystal Growth

 


 

Rakita Active Reaction Control

 


 

Todd-Defect-accommodating

 


 

Xia-Directed solution growth

 


 

ONolan-Gradient accelerated

 

 


 

Franco-In situ growth

 

 


 

Rimsza-Energetics and Structure

 


 

Cosby-Salt Effects

 


 

Pouchard-Data Curation

 


 

Coaty-Morphological Tuning

 


 

Synthesis of metal chloride films

 


Insights into bond strain in cluster-mediated synthesis

research image of hydrolysis and condensationHighlighted from cover article: John B. Parise, Bingying Xia, Jack W. Simonson, William R. Woerne, Anna M. Plonka, Brian L. Phillips and Lars Ehm  Crystals 2019, 9(5),246;  https://doi.org/10.3390/cryst9050246

Scientific Achievement

Determined the complete atomic arrangement in akdalaite, the presumed analogue of ferrihydrite, a sink for toxins in nature, and used as a synthetic barrier to contamination for environmental clean-up.

Significance and Impact

Provides insights into how the Al-analogue, which is defect free in nano- and fully condensed forms,  can provide a basis to model the defect structure of ferrihydrite, which changes along the reaction pathway.  

Research Details

In oxide-hydroxides condensed from clusters, significant strain accompanies conversion from cluster to extended nano-particles and crystals.

Joint x-ray, neutron and NMR studies reveal the extent of structural distortion and bond strain, compared to the clusters from which the extended solids are synthesized. 

The clusters are unstrained; condensation leads to significant under-bonding of the metals in the central tetrahedral site.