2009
DOI: 10.1002/anie.200902649
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Multiplexed Protein Arrays Enabled by Polymer Pen Lithography: Addressing the Inking Challenge

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Cited by 112 publications
(95 citation statements)
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References 32 publications
(20 reference statements)
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“…[177181] Equipped with a regular array of scanning probes (“pens”), dip-pen lithography and it derivatives first “dip” the “pens” into protein inks before placing the pens onto prescribed locations on a 2D surface to transfer proteins from the pens onto the substrate via meniscus. As highly automated commercially available tools, dip-pen lithography and its derivatives (dip-pen lithography [177] , polymer pen lithography [179,180] , and scanning probe block copolymer lithography [181] ) in conjunction with different designs of pens and inks [178] have delivered a great power to achieve large-scale high-throughput patterning of ECM proteins with a sub-micron resolution.…”
Section: Toolbox Of Micro/nanoengineered Functional Biomaterialsmentioning
confidence: 99%
“…[177181] Equipped with a regular array of scanning probes (“pens”), dip-pen lithography and it derivatives first “dip” the “pens” into protein inks before placing the pens onto prescribed locations on a 2D surface to transfer proteins from the pens onto the substrate via meniscus. As highly automated commercially available tools, dip-pen lithography and its derivatives (dip-pen lithography [177] , polymer pen lithography [179,180] , and scanning probe block copolymer lithography [181] ) in conjunction with different designs of pens and inks [178] have delivered a great power to achieve large-scale high-throughput patterning of ECM proteins with a sub-micron resolution.…”
Section: Toolbox Of Micro/nanoengineered Functional Biomaterialsmentioning
confidence: 99%
“…[1][2][3] Considerable improvements in the methodologies for micro-and nanoscale surface patterning have occurred recently, as highlighted in a number of topical reviews on the different fabrication techniques. [4][5][6][7] Some of the notable examples include dip pen nanolithography (DPN), [ 8 ] polymer pen lithography (PPL), [ 9 ] beam pen lithography (BPL), [ 10 ] electron beam lithography, [ 11 ] photolithography, [ 12 ] inkjet printing, [ 13 ] and soft-lithography-based techniques. [ 14 ] These techniques can position single and multiple chemical and biological moieties in micrometer to nanometer features with extreme accuracy.…”
Section: Doi: 101002/adma201100231mentioning
confidence: 99%
“…The actual pattern fabrication techniques, applicable to both direct and indirect methods, may be based on the use of elastomeric stamps [12,13], microfluidics [14], ink-jet printing [15], photolithography [16], or on different direct writing methods using pins or tips [17][18][19]. Indirect patterning may be a milder and therefore more suitable approach when patterning sensitive biological species, since dehydration could lead to protein denaturation and loss of biological activity (see Fig.…”
Section: Overview Of Patterning Methodsmentioning
confidence: 99%