Nanoscale patterning of protein using electron beam lithography of organosilane self-assembled monolayers

GJ Zhang, T Tanii, T Zako, T Hosaka, T Miyuke… - …, 2005 - waseda.elsevierpure.com
GJ Zhang, T Tanii, T Zako, T Hosaka, T Miyuke, Y Kanari, T Funatsu, I Ohdomari
Small, 2005waseda.elsevierpure.com
抄録 Nanopatterning of self-assembled monolayers (SAM) by electron beam lithography
(EB) was developed to produce organic templates for various nanofabrication processes. EB
lithography of SAMs provide a method of patterning substrates with proteins with ultrahigh
resolution down to sub-10 nm on the scale of single molecule. Green fluorescent proteins
(GFP), which is a spontaneous fluorescence protein isolated from the Pacific Jellyfish was
chosen as a model protein. A cysteine residue at the c-terminal end of the protein by site …
抄録
Nanopatterning of self-assembled monolayers (SAM) by electron beam lithography (EB) was developed to produce organic templates for various nanofabrication processes. EB lithography of SAMs provide a method of patterning substrates with proteins with ultrahigh resolution down to sub-10 nm on the scale of single molecule. Green fluorescent proteins (GFP), which is a spontaneous fluorescence protein isolated from the Pacific Jellyfish was chosen as a model protein. A cysteine residue at the c-terminal end of the protein by site-directed mutagenesis for the site specific modification of protein with biotin was introduced. Field-emission scanning electron microscopy was employed to observe nanostructures composed of two different types of organosilane layers. EB lithography of fluorinated SAM as an ideal template enables the high-resolution patterning of proteins with a high signal-to-noise ratio and integration of bioactive proteins into biosensors.
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