Herringbone network

Fig. 4 View of the herringbone network in the structure (4-HStb)2[Co(NCS)4], showing short ihteractions between (4-HStb) cations.

Figure 9.27 Possible 3-connected networks (a) ID ladder, (b) brick wall (c) herringbone, (d) long and short brick and (e) basket weave. The latter two networks have yet to be realised in practice.

Fig. 9a - c. Possible domain wall structures for strain relief on hexagonally close packed surfaces (a) unidirectional compression or expansion along the close packed atomic rows. For isotropic strain relief on a mesoscopic scale often two of the three possible rotational domains alternate leading to a herringbone pattern, (b) and (c) trigonal networks with wall crossings [97Bru]. 

A microdilution network (pDN) for the quantitation of multiple antigens. The device uses a series of T-intersections to sequentially dilute a serum sample. Herringbone-patterned areas are used as mixers in the dilution channels. Several antibodies have been deposited on a membrane using a microfluidic network, and the membrane is incorporated in the bottom of the pDN device (Reprinted from [12])... 

Fig. 2.13 a Chemical scheme for the fifteen trifluoromethyl substituted benzanilides. b Packing of the molecule in iV-[2-(trifluoromethyl)phenyl]benzamide via strong N-H - 0=C, weak C-H 0=C and short C(5p )-H"-F-C(5/> ) H-bonds. c Formation of a herringbone arrangement in the crystal packing of 3-(Trifluoromethyl)-Af-[3-(trifluoromethyl)phenyl]benzamide with the utilization of a network of C(sp )-H-" -Cisp ) H-bonds [91]... 

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