Topographic Analysis of Calcite (104) Cleavage Surface Dissolution in Ethanol–Water Solutions
The interaction of organic molecules with calcite surfaces plays a key role in many geochemical, industrial and biomineralization processes, and exploring the influences of organic molecules on calcite reactions is crucial for a fundamental understanding of the reaction mechanisms. Here, we used dig...
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doaj-4bd55a65605b4ad98ffcbe44b1066d312021-04-02T23:01:38ZengMDPI AGMinerals2075-163X2021-04-011137637610.3390/min11040376Topographic Analysis of Calcite (104) Cleavage Surface Dissolution in Ethanol–Water SolutionsShaoxiong Ye0Pan Feng1Jiaping Liu2Jiangsu Key Laboratory of Construction Materials, School of Materials Science and Engineering, Southeast University, Nanjing 211189, ChinaJiangsu Key Laboratory of Construction Materials, School of Materials Science and Engineering, Southeast University, Nanjing 211189, ChinaJiangsu Key Laboratory of Construction Materials, School of Materials Science and Engineering, Southeast University, Nanjing 211189, ChinaThe interaction of organic molecules with calcite surfaces plays a key role in many geochemical, industrial and biomineralization processes, and exploring the influences of organic molecules on calcite reactions is crucial for a fundamental understanding of the reaction mechanisms. Here, we used digital hologram microscopy to explore the in situ evolution of the calcite (104) surfaces when dissolved in ethanol–water solutions, and total organic carbon analysis was applied to confirm the adsorption of ethanol by calcite. The results showed that the bulk dissolution rate of calcite decreases as the volume fraction of ethanol increases, and the topographic features of etch pits were also altered by the presence of ethanol. When exposed to too much ethanol, the etch pits’ growth was inhibited and their shapes tended to change from rhombuses in ultrapure water to triangles. Our results provide insights into the interaction between adsorbed ethanol and evolving calcite crystal, which highlights the dissolution regulation of calcite by organic molecules that could benefit a broad range of fields.https://www.mdpi.com/2075-163X/11/4/376calcitedissolutionethanoletch pitadsorption |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Shaoxiong Ye Pan Feng Jiaping Liu |
spellingShingle |
Shaoxiong Ye Pan Feng Jiaping Liu Topographic Analysis of Calcite (104) Cleavage Surface Dissolution in Ethanol–Water Solutions Minerals calcite dissolution ethanol etch pit adsorption |
author_facet |
Shaoxiong Ye Pan Feng Jiaping Liu |
author_sort |
Shaoxiong Ye |
title |
Topographic Analysis of Calcite (104) Cleavage Surface Dissolution in Ethanol–Water Solutions |
title_short |
Topographic Analysis of Calcite (104) Cleavage Surface Dissolution in Ethanol–Water Solutions |
title_full |
Topographic Analysis of Calcite (104) Cleavage Surface Dissolution in Ethanol–Water Solutions |
title_fullStr |
Topographic Analysis of Calcite (104) Cleavage Surface Dissolution in Ethanol–Water Solutions |
title_full_unstemmed |
Topographic Analysis of Calcite (104) Cleavage Surface Dissolution in Ethanol–Water Solutions |
title_sort |
topographic analysis of calcite (104) cleavage surface dissolution in ethanol–water solutions |
publisher |
MDPI AG |
series |
Minerals |
issn |
2075-163X |
publishDate |
2021-04-01 |
description |
The interaction of organic molecules with calcite surfaces plays a key role in many geochemical, industrial and biomineralization processes, and exploring the influences of organic molecules on calcite reactions is crucial for a fundamental understanding of the reaction mechanisms. Here, we used digital hologram microscopy to explore the in situ evolution of the calcite (104) surfaces when dissolved in ethanol–water solutions, and total organic carbon analysis was applied to confirm the adsorption of ethanol by calcite. The results showed that the bulk dissolution rate of calcite decreases as the volume fraction of ethanol increases, and the topographic features of etch pits were also altered by the presence of ethanol. When exposed to too much ethanol, the etch pits’ growth was inhibited and their shapes tended to change from rhombuses in ultrapure water to triangles. Our results provide insights into the interaction between adsorbed ethanol and evolving calcite crystal, which highlights the dissolution regulation of calcite by organic molecules that could benefit a broad range of fields. |
topic |
calcite dissolution ethanol etch pit adsorption |
url |
https://www.mdpi.com/2075-163X/11/4/376 |
work_keys_str_mv |
AT shaoxiongye topographicanalysisofcalcite104cleavagesurfacedissolutioninethanolwatersolutions AT panfeng topographicanalysisofcalcite104cleavagesurfacedissolutioninethanolwatersolutions AT jiapingliu topographicanalysisofcalcite104cleavagesurfacedissolutioninethanolwatersolutions |
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