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1 he helicity of the helix and the form of the herringbone.
2  thicker than 10 nm, coexistence of both the herringbone and brickstone arrangements was found.
3 mechanisms via the competing channels in the herringbone and parallel dimers.
4 ons, including the slanted groove, staggered herringbone, and herringbone mixers.
5 l revealed enveloped virus with the typical "herringbone" appearance of helical nucleocapsids in para
6 ties for self-inclusion leading to polymeric herringbone arrangement in one direction and that pack i
7 ing on the film thickness: for thin films, a herringbone arrangement was observed, whereas for films
8 gement, revising the previously hypothesized herringbone arrangement.
9 s revealed that Phe(11) shields Phe(6) in a "herringbone" arrangement.
10 ce reconstructions of Au (e.g., the Au(111)-'Herringbone,' Au(110)-(1 x 2)-'Missing-Row,' and Au(100)
11          The investigation of the underlying herringbone basic element and its folding to a noncanoni
12        The microfluidic device is based on a herringbone channel design, and exhibits an estimated ce
13 h-throughput microfluidic mixing device, the herringbone-chip, or "HB-Chip," which provides an enhanc
14                           In contrast to the herringbone crystal packing observed for nonfused oligot
15 orted and fluid elements are stretched using herringbone features and the parabolic flow profile bein
16 molecular packing models-bricklayer (BL) and herringbone (HB)-have been proposed to explain the struc
17 Instead of a canonical helix, a noncanonical herringbone helix is formed.
18  interdimer offset face-to-face pi-pi and/or herringbone interactions, 1(2+), 1(3+), and 2(2+) show e
19  interdimer offset face-to-face pi-pi and/or herringbone interactions, all complexes show extended 1-
20 ng one-dimensional (1D) sinusoidal wrinkles, herringbone, labyrinth, and checkerboard.
21 ermal treatment, resulting in a crystalline, herringbone-like columnar structure.
22 sly distributed in a matrix with pronounced "herringbone-like" nanostructure associated with very low
23                           Our self-buffering herringbone material yields an ultrahigh uniform tensile
24                       When incorporated in a herringbone microfluidic device, the 3D DNA network not
25 xamine the experimental use of the staggered herringbone mixer (SHM) for the signal enhancement of a
26 is study we examine the use of the staggered herringbone mixer (SHM) to increase the efficiency of an
27 lled reactor I) and the other with staggered herringbone mixers (called reactor II), were studied for
28 e slanted groove, staggered herringbone, and herringbone mixers.
29 s facilitated by flow-mediated mixing over a herringbone mixing region in the device.
30                                    A fibrous herringbone-modified helicoidal architecture is identifi
31 these molecules, the phenyl groups block the herringbone motif and further guide the arrangement of t
32 ents, the solid-state assembly switches to a herringbone motif characteristic of the linear acenes.
33 crystal forms (alpha and beta), which show a herringbone motif.
34 signed with self-assembled three-dimensional herringbone nanopatterns can detect low levels of tumour
35 ucture, with a decrease of 35 degrees in the herringbone nearest neighbour angle.
36 ; there are two molecules per unit cell with herringbone packing (49-59 degree angle) and tilted abou
37                                 The familiar herringbone packing is characterized by large roll disto
38 tituted compound was oriented in an intimate herringbone packing motif, which allowed for p-type mobi
39 ular CT interaction resulting from a slipped herringbone packing was confirmed by X-ray crystallograp
40 centrosymmetric bilayer with an orthorhombic herringbone packing.
41 anization, including both stacked sheets and herringbone packing.
42                  Examples of the layered and herringbone-packing motifs are observed for both the par
43 ases, the inserted cations expand the parent herringbone packings by reorienting the molecular anions
44                                          The herringbone pattern formation via intercluster interacti
45                          Here, we focus on a herringbone pattern occurring in fetal intestinal tissue
46  pH of 6.0, the E proteins are arranged in a herringbone pattern with the pr peptides docked onto the
47             Our device leverages a staggered herringbone pattern, nanoparticle surface coating, and p
48 ng the fibril axis in a fashion resembling a herringbone pattern.
49 embrane (M) proteins arranged in the classic herringbone pattern.
50 Microfluidic devices with pure wavy and wavy-herringbone patterns suitable for capture of circulating
51                                      Ordered herringbone patterns with deterministic long and short w
52 iferromagnet at low densities to the striped herringbone phase of planar quadrupoles at higher densit
53      We propose a modified structure for the herringbone phase with a larger monoclinic beta angle, w
54                                     The beta-herringbone polymorph is stable, preserves its structure
55 ymer that grows almost exclusively along the herringbone reconstruction pattern, has a two component
56 tom extraction from dislocation sites of the herringbone reconstruction, mobile Au-CO complex formati
57      Chlorine adsorption initially lifts the herringbone reconstruction.
58 he formation of a Au-Cd alloy on the Au(111) herringbone reconstruction.
59 "simple" metal shows a long-range, periodic "herringbone" reconstruction, observed in 2- and 3- (but
60                                          The herringbone structure characteristic of the adsorption o
61 netic field, a polymorph is formed in a beta-herringbone structure instead of the ubiquitous gamma-he
62 idified alloy has a hierarchically organized herringbone structure that enables bionic-inspired hiera
63   Powder diffraction showed that this single-herringbone structure was similar to two low-energy stru
64 ne structure instead of the ubiquitous gamma-herringbone structure, with a decrease of 35 degrees in
65 2 nm in size) were seen at the elbows of the herringbone structure.
66 or the analysis of IgG capture in simple and herringbone-structured microchannels, it can be readily
67 tamaterial, consisting of monolithic silicon herringbone structures, exhibits a broadband operation i
68 robability of O2 on the reconstructed, Au111-herringbone surface is dramatically increased by the pre
69 s deposited on the clean reconstructed Au111-herringbone surface using electron bombardment of conden
70 orine atoms in the peri-positions packs in a herringbone type arrangement, while the isomer (2,3,9,10
71 nds form pi-stacking structures instead of a herringbone-type of packing motif.
72  superstructure of this cyclophane reveals a herringbone-type packing motif, leading to two types of
73 etween dense, highly branched vs less-dense, herringbone-type root systems, are important secondary d
74 w that the molecular packing motif (that is, herringbone versus slip-stacked) plays a decisive part i