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Network evolution

Lukes J, Guilbride DL, Votypka J et al. Kinetoplast DNA network Evolution of an improbable structure. Eukaryot Cell 2002 l(4) 495-502. [Pg.17]

Glass, R. J. Nicholl, M. J. Rajaram, H. Wood, T. R. Unsaturated Flow through Fracture Networks Evolution of Liquid Phase Structure, Dynamics, and the Critical In ortance of Fracture Intersections. Water Resour. Res. 2003.39(12), 1352. [Pg.225]

Fig. 7 Micrographs showing fibers and the fiber network evolution of GP-1 in a 1,2-propanediol solution with increasing supersaturation, (a) Unbranched GP-1 fibers o= 0.188, T = 342K. (b) SA-CMB, and GP-1 fiber network a = 2.17, T = 333K. (c) WA-CMB, and GP-1 fiber network a = 4.76, T = 323 K... Fig. 7 Micrographs showing fibers and the fiber network evolution of GP-1 in a 1,2-propanediol solution with increasing supersaturation, (a) Unbranched GP-1 fibers o= 0.188, T = 342K. (b) SA-CMB, and GP-1 fiber network a = 2.17, T = 333K. (c) WA-CMB, and GP-1 fiber network a = 4.76, T = 323 K...
Xu CH, Chen YK, Zeng XR (2012) A Study on the crosslink network evolution of magnesium dimethacrylate/natural rubber composite. J Appl Polym Sci 125(3) 2449-2459... [Pg.192]

Chen YK, Xu CH (2011) Crosslink network evolution of nature rubber/zinc dimethacrylate composite during peroxide vulcanization. Polym Compos 32(10) 1505-151... [Pg.192]

Roozbeh D, Mikhail I (2009) A network evolution model for the anisotropic Mullins effect in carbon black filled rubbers. Int J Solids Struct 46(16) 2967-2977... [Pg.192]

Lundgren, A. (1995). Technological innovation and network evolution. London Routledge. [Pg.72]

Arabidopsis Interactome Mapping Consortium, Science, 333, 601-607 (2011). Evidence for Network Evolution in an Arabidopsis Interactome Map. [Pg.171]

Poly(ethylene oxide). The synthesis and subsequent hydrolysis and condensation of alkoxysilane-terniinated macromonomers have been studied (39,40). Using Si-nmr and size-exclusion chromatography (sec) the evolution of the siUcate stmctures on the alkoxysilane-terniinated poly(ethylene oxide) (PEO) macromonomers of controlled functionahty was observed. Also, the effect of vitrification upon the network cross-link density of the developing inorganic—organic hybrid using percolation and mean-field theory was considered. [Pg.329]

L. E. Grimes, The Synthesis and Evolution of Networks of Heat Exchange That Feature the Minimum Number of Units, Master s thesis, Camegie-MeUon University, Pittsburgh, Pa., 1980. [Pg.529]

Tricyclohexaprenol, a possible forerunner of sterols in the evolution of biomembranes, was synthesized by construction of the cyclic network in one step using cation-olefin tricyclization and subsequent stereocontroUed attachment of the Cio appendage to ring C. [Pg.195]

Figure 6 Evolution of MW and viscosity for a polymerizing network. Source Ref. 32. Figure 6 Evolution of MW and viscosity for a polymerizing network. Source Ref. 32.
Chapter 8 describes a number of generalized CA models, including reversible CA, coupled-map lattices, quantum CA, reaction-diffusion models, immunologically motivated CA models, random Boolean networks, sandpile models (in the context of self-organized criticality), structurally dynamic CA (in which the temporal evolution of the value of individual sites of a lattice are dynamically linked to an evolving lattice structure), and simple CA models of combat. [Pg.19]

Ammonium salts of the zeolites differ from most of the compounds containing this cation discussed above, in that the anion is a stable network of A104 and Si04 tetrahedra with acid groups situated within the regular channels and pore structure. The removal of ammonia (and water) from such structures has been of interest owing to the catalytic activity of the decomposition product. It is believed [1006] that the first step in deammination is proton transfer (as in the decomposition of many other ammonium salts) from NH4 to the (Al, Si)04 network with —OH production. This reaction is 90% complete by 673 K [1007] and water is lost by condensation of the —OH groups (773—1173 K). The rate of ammonia evolution and the nature of the residual product depend to some extent on reactant disposition [1006,1008]. [Pg.208]


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See also in sourсe #XX -- [ Pg.213 ]




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