Microstructures and multifunctional microsystems based on highly crosslinked polymers

The work elucidates the novel physical and thermal properties of thin and ultra-thin films of crosslinked polymer and organized microstructures with a special emphasis on surface and interfacial effects and the structure-property relationships. Two major crosslinked polymer coatings have been thor...

Full description

Bibliographic Details
Main Author: Singamaneni, Srikanth
Published: Georgia Institute of Technology 2009
Subjects:
Online Access:http://hdl.handle.net/1853/29746
id ndltd-GATECH-oai-smartech.gatech.edu-1853-29746
record_format oai_dc
spelling ndltd-GATECH-oai-smartech.gatech.edu-1853-297462013-01-07T20:33:01ZMicrostructures and multifunctional microsystems based on highly crosslinked polymersSingamaneni, SrikanthNegative thermal expansionMechanical instabilitiesMicrocantilever sensorsCrosslinked polymersCrosslinked polymersMicrostructureThin filmsSurfaces (Technology)Plasma polymerizationChemical detectorsThe work elucidates the novel physical and thermal properties of thin and ultra-thin films of crosslinked polymer and organized microstructures with a special emphasis on surface and interfacial effects and the structure-property relationships. Two major crosslinked polymer coatings have been thoroughly investigated: polymer microstructures fabricated by multi-laser interference lithography (IL), and plasma polymer coatings. We unveiled intriguing thermal properties of plasma polymer films originating from their physical state and exploiting the same for the design of ultrasensitve chemical sensors. A novel paradigm of surface coatings, single and bi-component periodic, porous crosslinked polymeric structures, has been introduced and thoroughly studied. Surface, interfacial, and mechanical properties of these novel class crosslinked polymer coatings clearly demonstrate the enormous potential of the IL microstructures as organized multicomponent polymer systems. When subjected to external or internal stresses the periodic porous structures can exhibit a sudden and dramatic pattern transformation resulting in remarkable change in the photonic, phononic and mechanical properties of these structures. Furthermore, the confinement of these instabilities to localized regions results in complex hierarchical structures. The two polymer coatings (plasma polymers and IL microstructures) with complementary attributes (such as periodic structure, vertical stratification, residual internal stresses, and high surface and interface tunability) enabled us to understand and design novel multifunctional polymer coatings.Georgia Institute of Technology2009-08-26T18:15:57Z2009-08-26T18:15:57Z2009-07-02Dissertationhttp://hdl.handle.net/1853/29746
collection NDLTD
sources NDLTD
topic Negative thermal expansion
Mechanical instabilities
Microcantilever sensors
Crosslinked polymers
Crosslinked polymers
Microstructure
Thin films
Surfaces (Technology)
Plasma polymerization
Chemical detectors
spellingShingle Negative thermal expansion
Mechanical instabilities
Microcantilever sensors
Crosslinked polymers
Crosslinked polymers
Microstructure
Thin films
Surfaces (Technology)
Plasma polymerization
Chemical detectors
Singamaneni, Srikanth
Microstructures and multifunctional microsystems based on highly crosslinked polymers
description The work elucidates the novel physical and thermal properties of thin and ultra-thin films of crosslinked polymer and organized microstructures with a special emphasis on surface and interfacial effects and the structure-property relationships. Two major crosslinked polymer coatings have been thoroughly investigated: polymer microstructures fabricated by multi-laser interference lithography (IL), and plasma polymer coatings. We unveiled intriguing thermal properties of plasma polymer films originating from their physical state and exploiting the same for the design of ultrasensitve chemical sensors. A novel paradigm of surface coatings, single and bi-component periodic, porous crosslinked polymeric structures, has been introduced and thoroughly studied. Surface, interfacial, and mechanical properties of these novel class crosslinked polymer coatings clearly demonstrate the enormous potential of the IL microstructures as organized multicomponent polymer systems. When subjected to external or internal stresses the periodic porous structures can exhibit a sudden and dramatic pattern transformation resulting in remarkable change in the photonic, phononic and mechanical properties of these structures. Furthermore, the confinement of these instabilities to localized regions results in complex hierarchical structures. The two polymer coatings (plasma polymers and IL microstructures) with complementary attributes (such as periodic structure, vertical stratification, residual internal stresses, and high surface and interface tunability) enabled us to understand and design novel multifunctional polymer coatings.
author Singamaneni, Srikanth
author_facet Singamaneni, Srikanth
author_sort Singamaneni, Srikanth
title Microstructures and multifunctional microsystems based on highly crosslinked polymers
title_short Microstructures and multifunctional microsystems based on highly crosslinked polymers
title_full Microstructures and multifunctional microsystems based on highly crosslinked polymers
title_fullStr Microstructures and multifunctional microsystems based on highly crosslinked polymers
title_full_unstemmed Microstructures and multifunctional microsystems based on highly crosslinked polymers
title_sort microstructures and multifunctional microsystems based on highly crosslinked polymers
publisher Georgia Institute of Technology
publishDate 2009
url http://hdl.handle.net/1853/29746
work_keys_str_mv AT singamanenisrikanth microstructuresandmultifunctionalmicrosystemsbasedonhighlycrosslinkedpolymers
_version_ 1716475165384114176