Microcontact printing of indium metal using salt solution “ink”

Allen, C. G.; Dorr, Josh; Khandekar, A. A.; Beach, J. D.; Schick, Ian; Schick, E. J.; Collins, R. T.; Kuech, T. F.

doi:10.1016/j.tsf.2007.02.070

Cited by 2 publications

(2 citation statements)

References 21 publications

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“…The development of a reliable chemical method for patterning and recognizing molecular inks could impact areas such as localization of biomolecules, directing the growth of cells, , self-assembling nano- and microelectronic devices, , and developing microcontrolled wettability . These patterning inks are a diverse class of materials including small organic molecules (e.g., octyltrimethoxysilane, octadecanethiol), polymers (e.g., poly(methyl methacrylate), polystyrene), and even metallic salts (e.g., GaCl 3 , In(NO 3 ) 3 ) . Peptides are robust biorecognition molecules that can be chemically engineered to bind specific targets and have broad chemical diversity (acidity, hydrophobicity, etc.)…”

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“…6 These patterning inks are a diverse class of materials including small organic molecules (e.g., octyltrimethoxysilane, octadecanethiol), polymers (e.g., poly(methyl methacrylate), polystyrene), and even metallic salts (e.g., GaCl 3 , In(NO 3 ) 3 ). 7 Peptides are robust biorecognition molecules that can be chemically engineered to bind specific targets and have broad chemical diversity (acidity, hydrophobicity, etc.) within a relatively compact size.…”

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Recognition of Patterned Molecular Ink with Phage Displayed Peptides

et al. 2010

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The development of a reliable method for patterning and recognizing molecular inks could enable exciting avenues in fundamental research and novel applications. Phage display is a powerful method for identifying peptides that possess enhanced selectivity and binding affinity toward a variety of targets. Here, we demonstrate for the first time the immobilization and recognition of a small molecular ink with screened phage displayed peptides. Our approach is based on a unique mix of comprehensive phage displayed peptide screening processes, along with novel micropatterning techniques. These results, combined with the large variety of available inks and surface chemistries, could open up opportunities in cell biology, nanomaterials self-assembly, selective sensors, and even energy storage applications.

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Recognition of Patterned Molecular Ink with Phage Displayed Peptides

et al. 2010

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Physical, Chemical, and Biological Surface Patterning by Microcontact Printing

Mehlich

Ravoo

2010

Nanotechnology

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The sections in this article are Introduction What is Microcontact Printing? The “Master” The Stamp Inks and Stamps for Microcontact Printing Supramolecular µ CP Microcontact Printing and Soft Lithography Nanotransfer Printing Microcontact Printing and Biological Arrays µ CP of DNA Affinity Contact Printing Microcontact Printing and Surface Chemistry From Micro to Nano: Increasing the Resolution of Microcontact Printing Conclusions and Outlook

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Microcontact printing of indium metal using salt solution “ink”

Cited by 2 publications

References 21 publications

Recognition of Patterned Molecular Ink with Phage Displayed Peptides

Recognition of Patterned Molecular Ink with Phage Displayed Peptides

Physical, Chemical, and Biological Surface Patterning by Microcontact Printing

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