Aluminate salts precipitated from caustic alkaline solutions exhibit a correlation between the anionic speciation and the identity of the alkali cation in the precipitate, with the aluminate ions occurring either in monomeric (Al(OH)4–) or dimeric (Al2O(OH)62–) forms. The origin of this correlation...
Filter results
Content type
Publication Type
Tags
- (-) Energy (2)
- Viruses (10)
- Health (8)
- Soil Microbiology (8)
- Virology (8)
- Virus (8)
- PerCon SFA (5)
- Microbiome (4)
- sequencing (4)
- Electrical energy (3)
- Fungi (3)
- Ions (3)
- Nanoparticles (3)
- Omics (3)
- RNA Sequence Analysis (3)
- Sodium (3)
- Synthetic Biology (3)
- Anions (2)
- Electron density (2)
- Excited states (2)
- Genomics (2)
- High Throughput Sequencing (2)
- Mass Spectrometry (2)
- Metagenomics (2)
- Nuclear magnetic resonance spectroscopy (2)
- Relativistic effects (2)
- Sorghum bicolor (2)
- Spectroscopy (2)
- spatial variability (1)
- temperate forest (1)
Showing 1 - 4 of 4
Electrolyte solutions in alkaline nuclear waste contain aluminate, hydroxide, nitrate and nitrite with sodium as the predominant counterion. The salts of these ions are highly soluble, so the liquids are highly concentrated. This study found that there is a substantial incompatibility between the...
Publication
Understanding the reactivity behavior of aluminum oxyhydroxide phases, widely present in nuclear waste tanks, in radiation environments is essential to develop better nuclear waste processing approaches. Recent experiments using vibrational sum frequency generation, a surface sensitive technique...
In highly alkaline “water-in-salt” Na2O/Al2O3/H2O solutions where the monomeric Al(OH)4– anion dominates, isolation of transitional species that seed crystallization of sodium aluminate salt hydrates has been challenging. For example, discrimination of dimeric [for example, Al2O(OH)62–] species via...