The coalescence and etching of metal nanostructures via solution approach

This thesis summarizes my research studies on the coalescence and etching of nanomaterials. This thesis consists of two parts: (1) coalescence, aggregation and encapsulation of nanoparticles and its application on screening of synergistic effects and (2) coalescence and etching of silver nanowires....

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主要作者: Tan, Rachel Lee Siew
其他作者: Chen Hongyu
格式: Theses and Dissertations
語言:English
出版: 2016
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在線閱讀:http://hdl.handle.net/10356/68834
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機構: Nanyang Technological University
語言: English
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spelling sg-ntu-dr.10356-688342023-03-01T00:01:23Z The coalescence and etching of metal nanostructures via solution approach Tan, Rachel Lee Siew Chen Hongyu School of Physical and Mathematical Sciences A*STAR Singapore Institute of Manufacturing Technology DRNTU::Science::Chemistry This thesis summarizes my research studies on the coalescence and etching of nanomaterials. This thesis consists of two parts: (1) coalescence, aggregation and encapsulation of nanoparticles and its application on screening of synergistic effects and (2) coalescence and etching of silver nanowires. For the first part, we make use of the coalescence of different nanoparticles to create bimetallic junctions between nanoparticles for screening of synergistic effects in catalytic reaction (Chapter 2). As this screening method involves the aggregation of nanoparticles to create bimetallic regions, we studied how to have controlled aggregation without additional reagents in Chapter 3. For the second part, we studied how we can make use of chemically induced ripening of silver nanowire junctions to reduce the sheet resistance of silver nanowire network (Chapter 4). In addition, we also studied how breaking of symmetry during etching of silver nanowires can yield unique nanowire structures (Chapter 5). ​Doctor of Philosophy (SPMS) 2016-06-09T02:36:54Z 2016-06-09T02:36:54Z 2016 Thesis http://hdl.handle.net/10356/68834 en 169 p. application/pdf
institution Nanyang Technological University
building NTU Library
continent Asia
country Singapore
Singapore
content_provider NTU Library
collection DR-NTU
language English
topic DRNTU::Science::Chemistry
spellingShingle DRNTU::Science::Chemistry
Tan, Rachel Lee Siew
The coalescence and etching of metal nanostructures via solution approach
description This thesis summarizes my research studies on the coalescence and etching of nanomaterials. This thesis consists of two parts: (1) coalescence, aggregation and encapsulation of nanoparticles and its application on screening of synergistic effects and (2) coalescence and etching of silver nanowires. For the first part, we make use of the coalescence of different nanoparticles to create bimetallic junctions between nanoparticles for screening of synergistic effects in catalytic reaction (Chapter 2). As this screening method involves the aggregation of nanoparticles to create bimetallic regions, we studied how to have controlled aggregation without additional reagents in Chapter 3. For the second part, we studied how we can make use of chemically induced ripening of silver nanowire junctions to reduce the sheet resistance of silver nanowire network (Chapter 4). In addition, we also studied how breaking of symmetry during etching of silver nanowires can yield unique nanowire structures (Chapter 5).
author2 Chen Hongyu
author_facet Chen Hongyu
Tan, Rachel Lee Siew
format Theses and Dissertations
author Tan, Rachel Lee Siew
author_sort Tan, Rachel Lee Siew
title The coalescence and etching of metal nanostructures via solution approach
title_short The coalescence and etching of metal nanostructures via solution approach
title_full The coalescence and etching of metal nanostructures via solution approach
title_fullStr The coalescence and etching of metal nanostructures via solution approach
title_full_unstemmed The coalescence and etching of metal nanostructures via solution approach
title_sort coalescence and etching of metal nanostructures via solution approach
publishDate 2016
url http://hdl.handle.net/10356/68834
_version_ 1759858218790551552