2010•ACS symposium seriesRequires access

Surface Patterning Using Self Assembled Monolayers (SAMs)

Rahul Bhure, Anil Mahapatro

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Abstract

Self Assembled Monolayers (SAMs) are nanostructures and are a fundamental component of nanoscience and nanotechnology. SAMs are a preferred tool for carrying out surface modification of a variety of materials and are a subject of widespread scientific attention across many disciplines. The ability to tailor the physical, mechanical as well as the chemical properties of the final substrate has placed SAMs in a unique position in materials science and surface chemistry in particular. Patterning of a SAM is an important step as secondary modification which further enhances the feasibility of SAMs for specific solutions to many problems in nanoscience. Here we present a brief introduction to the subject of SAM patterning by providing an introduction to the concept of a Self Assembled Monolayer (SAM) followed by a brief review of mixed SAMs. After this, the various strategies and techniques available for patterning SAMs are presented and some of their potential biomedical applications discussed.

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What this paper is about

Self Assembled Monolayers (SAMs) are nanostructures and are a fundamental component of nanoscience and nanotechnology. SAMs are a preferred tool for carrying out surface modification of a variety of materials and are a subject of widespread scientific attention across many disciplines. The ability to tailor the physical, mechanical as well as the chemical properties of the final substrate has placed SAMs in a unique position in materials science and surface chemistry in particular. Patterning of a SAM is an important step as secondary modification which further enhances the feasibility of SAMs for specific solutions to many problems in nanoscience. Here we present a brief introduction to the subject of SAM patterning by providing an introduction to the concept of a Self Assembled Monolayer (SAM) followed by a brief review of mixed SAMs. After this, the various strategies and techniques available for patterning SAMs are presented and some of their potential biomedical applications discussed.

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Available abstract

Self Assembled Monolayers (SAMs) are nanostructures and are a fundamental component of nanoscience and nanotechnology. SAMs are a preferred tool for carrying out surface modification of a variety of materials and are a subject of widespread scientific attention across many disciplines. The ability to tailor the physical, mechanical as well as the chemical properties of the final substrate has placed SAMs in a unique position in materials science and surface chemistry in particular. Patterning of a SAM is an important step as secondary modification which further enhances the feasibility of SAMs for specific solutions to many problems in nanoscience. Here we present a brief introduction to the subject of SAM patterning by providing an introduction to the concept of a Self Assembled Monolayer (SAM) followed by a brief review of mixed SAMs. After this, the various strategies and techniques available for patterning SAMs are presented and some of their potential biomedical applications discussed.

Key concepts: Nanotechnology, Monolayer, Self-assembled monolayer, Self-assembly, Materials science, Nanostructure, Surface modification, Substrate (aquarium)

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