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1 ized microscale arrays fabricated by dip-pen nanolithography.
2 hermal, in addition to conventional, dip-pen nanolithography.
3 ts using nanoshaving, an AFM-based method of nanolithography.
4 s such as real-time biomolecular imaging and nanolithography.
5 microfluidics, capillary chromatography, and nanolithography.
6 ies and thereby patterns produced in dip-pen nanolithography.
7 e exploited to enhance patterning using soft nanolithography.
8 ducting polymers deposited within by dip-pen nanolithography.
9 tures within libraries generated via dip-pen nanolithography.
10 atomic force microscopy technique of dip-pen nanolithography.
11 r, often relies on complicated and expensive nanolithography.
12 ment, establishes a new paradigm for polymer nanolithography, allowing rapid (of the order of millise
13 tics of polymer crystal growth using dip-pen nanolithography and an atomic force microscope tip coate
14 Fabricated using three-dimensional colloidal nanolithography and atomic layer deposition, the process
15 d technology, from molecular spectroscopy to nanolithography and biomedical procedures.
16 e of silk film as a biofunctional medium for nanolithography and data storage.
17          But writing methods such as dip-pen nanolithography and ink-jet printing are either confined
18 wever, existing technologies such as dip-pen nanolithography and inkjet printing are currently unsuit
19 rocontact printing, inkjet printing, dip-pen nanolithography and microfluidic probes.
20 d to combine scanning probe microscopy (SPM) nanolithography and modified SPM break junction techniqu
21 th common patterning methods such as dip-pen nanolithography and multichannel microfluidic delivery d
22 chemical syringe include fluid dispensing in nanolithography and pumping in microfluidic systems.
23 rs using atomic force microscopy (AFM)-based nanolithography and subsequent selective immobilization
24 escribe a protocol that combines solid-state nanolithography and supported lipid membrane techniques
25 ncluding excitation of plasmonic waveguides, nanolithography, and optical sensing.
26 fully patterned on gold surfaces via dip-pen nanolithography, and the predicted molecular orientation
27 patial-frequency template, will be useful in nanolithography applications such as the formation of hi
28 ta storage, noncontact sensing, imaging, and nanolithography applications.
29 ity and self-assembly that will guide future nanolithography applications.
30 n nanowire was fabricated using the top-down nanolithography approach, through nanostructuring of sil
31 ion bombardment, electron beam drilling, and nanolithography, are worthy of a critical review.
32 micron-scale focal spots for high-throughput nanolithography, as they uniquely feature large numerica
33 m of the inks most typically used in dip-pen nanolithography by patterning both 16-mercaptohexadecano
34 d shallow compartments produced by STM-based nanolithography carried out on a graphite surface with a
35 transmission efficiency with applications to nanolithography, data storage, and bio-chemical sensing.
36                     A direct-write "dip-pen" nanolithography (DPN) has been developed to deliver coll
37                                      Dip pen nanolithography (DPN) involves the direct transfer of an
38                                      Dip-pen nanolithography (DPN) is a scanning probe microscopy-bas
39                                      Dip-pen nanolithography (DPN) is becoming a popular nano-pattern
40                                      Dip-pen nanolithography (DPN) is becoming a popular technique to
41 anoplotter capable of doing parallel dip-pen nanolithography (DPN) is reported.
42  this paper, we demonstrate that the dip pen nanolithography (DPN) method can be used to precisely fu
43      This technique relies on either dip-pen nanolithography (DPN) or polymer pen lithography (PPL) t
44            We demonstrate the use of dip-pen nanolithography (DPN) to crystallize proteins on surface
45              The use of direct-write dip-pen nanolithography (DPN) to generate covalently anchored, n
46 es and use microcontact printing and Dip-Pen Nanolithography (DPN) to pattern alkanethiols with both
47                                      Dip-Pen Nanolithography (DPN) uses an AFM tip to deposit organic
48             A scanning probe method, dip-pen nanolithography (DPN), can be used to pattern monolayers
49  as microcontact printing (muCP) and dip-pen nanolithography (DPN).
50  surfaces has been demonstrated with dip pen nanolithography (DPN).
51 were patterned onto gold surfaces by dip-pen nanolithography (DPN).
52 terostructures using electrochemical dip-pen nanolithography (E-DPN).
53                                     This DNA nanolithography enables wafer-scale patterning of two-di
54                     We introduce Electro Pen Nanolithography (EPN), a nanoscale chemical patterning t
55 that TERS is promising to be plasmon-induced nanolithography for organic 2D materials.
56 organosilane MNLs are used as lubricants, in nanolithography, for corrosion protection and in the cry
57                                          The nanolithography-free nanopatterned device should facilit
58                    The precise and versatile nanolithography in a ferroic material and the stability
59          Using atomic force microscopy-based nanolithography, in conjunction with chosen surface chem
60                                     Maskless nanolithography, including electron-beam and scanning-pr
61                                      Dip-pen nanolithography is employed to directly pattern monolaye
62 atterned metasurfaces, which require complex nanolithography, limiting their practical applications,
63 eous-acid clusters are relevant to inorganic nanolithography, metal-organic frameworks (MOFs), cataly
64 The material can be patterned using standard nanolithography methods.
65 ons and can be processed by the conventional nanolithography methods.
66 ains in the solid state with applications in nanolithography, nanotemplating, and nanocatalysis.
67 state three-terminal platforms created using nanolithography, or aqueous media.
68  we demonstrate that a novel form of dip-pen nanolithography provides an effective means to pattern t
69                One approach to visible-light nanolithography (resolution augmentation through photo-i
70 -tip, soft-spring lithography is a versatile nanolithography strategy that should be widely adopted b
71                This extension of the dip-pen nanolithography technique provides an easy methodology t
72 ting, an atomic force microscopy (AFM)-based nanolithography technique, to fabricate thiolated DNA na
73 canning probe and large-area cantilever free nanolithography techniques, resulting in a library of de
74 ensive and time consuming using conventional nanolithography techniques.
75                                      Current nanolithography technologies are unable to recreate 4D n
76             Here we develop a metallized DNA nanolithography that allows transfer of spatial informat
77           However, many of the approaches to nanolithography that are used to pattern inorganic mater
78 w-cost, high-throughput approach to maskless nanolithography that uses an array of plasmonic lenses t
79  These studies demonstrate that biomolecular nanolithography (the arrangement of nanoscale building b
80                            In the context of nanolithography, this behavior allows the high spatial s
81   In light of the scalability limitations of nanolithography, this work presents an important step an
82 ly used in laser-assisted nanopatterning and nanolithography to pattern nanoscale features on a large
83 Such particles are made by (i) using dip-pen nanolithography to prepare nanoreactors consisting of me
84   This work demonstrates the potential of 3D nanolithography towards wafer-scale production, showing
85 d novel lithography technique--electrostatic nanolithography using atomic force microscopy--that gene
86                                      Dip-pen nanolithography was used to construct arrays of proteins
87                                Electron beam nanolithography was used to fabricate 20 x 20 arrays of
88       Using tip-enhanced near-field infrared nanolithography, we demonstrate versatile manipulation a
89  NFP combines the high-resolution of dip-pen nanolithography with the efficient continuous liquid fee
90 y merges the feature size control of dip-pen nanolithography with the large-area capability of contac