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Morphological microscopy

Blackson, J., Garcia-Meitin, E., and Darus, M., High Resolution Scanning Electron Microscopy Examination of Polymer Morphology, Microscopy and Microanalysis, 13 (Suppl. 02), 1062 (2007)... [Pg.538]

Considering existing microscopical techniques, one can find that non-destmctive information from the internal stmcture of an object in natural conditions can be obtained by transmission X-ray microscopy. Combination of X-ray transmission technique with tomographical reconstmction allows getting three-dimensional information about the internal microstmcture [1-3]. In this case any internal area can be reconstmcted as a set of flat cross sections which can be used to analyze the two- and three-dimensional morphological parameters [4]. For X-ray methods the contrast in the images is a mixed combination of density and compositional information. In some cases the compositional information can be separated from the density information [5]. Recently there has been a... [Pg.579]

R. C. Ahuja, P. L. Caruso, D. Honig, J. Maack, D. Mobius, and G. A. Overbeck, Morphology of Organized Monolayers by Brewster Angle Microscopy, in Microchemistry, H. Masuhara, ed., Elsevier, 1994. [Pg.163]

SEM Scanning electron microscopy [7, 10, 14] A beam of electrons scattered from a surface is focused Surface morphology... [Pg.313]

Wilson D L, Kump K S, Eppell S J and Marchant R E 1995 Morphological restoration of atomic force microscopy images Langmuir 265... [Pg.1724]

Roark S E and Rowlen K L 1993 Atomic force microscopy of thin Ag films. Relationship between morphology and optical properties Chem. Phys. Lett. 212 50... [Pg.1726]

Annis B K, Noid D W, Sumpter B G, Reffner J R and Wunderlich B 1992 Application of atomic force microscopy (AFM) to a block copolymer and an extended chain polyethylene Makromol. Chem., Rapid. Commun. 13 169 Annis B K, Schwark D W, Reffner J R, Thomas E L and Wunderlich B 1992 Determination of surface morphology of diblock copolymers of styrene and butadiene by atomic force microscopy Makromol. Chem. 193 2589... [Pg.1727]

Koutsos V, van der Vegte E W, Grim PCM and Hadziioannou G Isolated polymer chains via mixed self-assembled monolayers morphology and friction studied by scanning force microscopy Macromolecules 116-23... [Pg.2641]

Additional information on elastomer and SAN microstmcture is provided by C-nmr analysis (100). Rubber particle composition may be inferred from glass-transition data provided by thermal or mechanochemical analysis. Rubber particle morphology as obtained by transmission or scanning electron microscopy (101) is indicative of the ABS manufacturing process (77). (See Figs. 1 and 2.)... [Pg.204]

There are tests for physical properties such as deasity and hardness (qv) of plastics. Microscopy (qv) is important ia fracture analysis as well as ia analysis of the morphology of polymer systems for an understanding of polymer blend performance. [Pg.156]

Microscopic identification models ate similar to the CMB methods except that additional information is used to distinguish the source of the aerosol. Such chemical or morphological data include particle size and individual particle composition and are often obtained by electron or optical microscopy. [Pg.379]

Characterization. Ceramic bodies are characterized by density, mass, and physical dimensions. Other common techniques employed in characterizing include x-ray diffraction (XRD) and electron or petrographic microscopy to determine crystal species, stmcture, and size (100). Microscopy (qv) can be used to determine chemical constitution, crystal morphology, and pore size and morphology as well. Mercury porosknetry and gas adsorption are used to characterize pore size, pore size distribution, and surface area (100). A variety of techniques can be employed to characterize bulk chemical composition and the physical characteristics of a powder (100,101). [Pg.314]

Thin films of metals, alloys and compounds of a few micrometres diickness, which play an important part in microelectronics, can be prepared by die condensation of atomic species on an inert substrate from a gaseous phase. The source of die atoms is, in die simplest circumstances, a sample of die collision-free evaporated beam originating from an elemental substance, or a number of elementary substances, which is formed in vacuum. The condensing surface is selected and held at a pre-determined temperature, so as to affect die crystallographic form of die condensate. If diis surface is at room teiiiperamre, a polycrystalline film is usually formed. As die temperature of die surface is increased die deposit crystal size increases, and can be made practically monocrystalline at elevated temperatures. The degree of crystallinity which has been achieved can be determined by electron diffraction, while odier properties such as surface morphology and dislocation sttiicmre can be established by electron microscopy. [Pg.3]

The various studies of shock-modified powders provide clear indications of the principal characteristics of shock modification. The picture is one in which the powders have been extensively plastically deformed and defect levels are extraordinarily large. The extreme nature of the plastic deformation in these brittle materials is clearly evident in the optical microscopy of spherical alumina [85B01]. In these defect states their solid state reactivities would be expected to achieve values as large as possible in their particular morphologies greatly enhanced solid state reactivity is to be expected. [Pg.171]


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See also in sourсe #XX -- [ Pg.250 ]




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Atomic force microscopy morphology

Carbon microscopy/morphology

Imaging Polymer Morphology using Atomic Force Microscopy

Microscopy, optical morphology

Morphology Imaging with Scanning Transmission Electron Microscopy

Morphology by electron microscopy

Morphology by scanning electron microscopy

Morphology investigation using microscopy

Morphology microscopy

Morphology phase contrast optical microscopy

Morphology, characterized light microscopy

Morphology, studies transmission electron microscopy

Natural rubber microscopy morphology

Scanning electron microscopy morphological characterization

Scanning electron microscopy particle morphology

Scanning tunneling microscopy surface morphology

Surface morphology, atomic force microscopy

Transmission electron microscopy copolymer surface morphology

Transmission electron microscopy nanocomposite morphology

Transmission electron microscopy nanostructured morphology

Transmission electron microscopy particle morphology

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