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Analysis for materials science

Smith, G.C. (1991) Quantitative Surface Analysis for Materials Science, London, The Institute of Metals. [Pg.38]

Concise history of thermal analysis in Europe and Japan is introduced by Saito, A., Fundamentals of Thermal Analysis for Material Science. Tokyo, Kyoritsu, 1990, Ch. 1 (in Japanese). [Pg.13]

Light microscopy is of great importance for basic research, analysis in materials science and for the practical control of fabrication steps. Wlien used conventionally it serves to reveal structures of objects which are otherwise mvisible to the eye or magnifying glass, such as micrometre-sized structures of microelectronic devices on silicon wafers. The lateral resolution of the teclmique is detennined by the wavelength of tire light... [Pg.1654]

Microscopes are also used as analytical tools for strain analysis in materials science, detenuination of refractive indices and for monitoring biological processes in vivo on a microscopic scale etc. In this case resolution is not necessarily the only important issue rather it is the sensitivity allowing the physical quantity under investigation to be accurately detennined. [Pg.1655]

During 1990—1991, while the FCCSET Committee on Industry and Technology was carrying out the extensive analysis, coordination, and planning necessary to implement a Presidential Initiative, the NSF was carrying out its own component of this analysis. An inventory of support for materials science and engineering at NSF (1991 actual expenditures) includes the following ... [Pg.32]

Local thickness variations in a thin specimen complicate the quantitative analysis of a single element in the absence of precise knowledge of specimen thickness and without the ability to compare the measured x-ray intensities with those of thin standards. To avoid this difficulty, the x-ray intensity for the element of interest can be divided either by the intensity of a region of background between peaks as in the Hall method[8], or by the intensity from another element as in the Cliff-Lorimer method[9]. The former is largely used for biological analysis while the latter has become the standard thin specimen microanalysis method for materials science applications. The Cliff-Lorimer method is expressed in the following equation ... [Pg.310]

Figure 9.3 Application fields for trace and ultratrace analysis in materials science and Microelectronics. (j.S. Becker and FI.J. Dietze, Int. j. Mass Spectrom., Ion Proc. 197, 1-35 (2000). Reproduced by permission of Elsevier.)... Figure 9.3 Application fields for trace and ultratrace analysis in materials science and Microelectronics. (j.S. Becker and FI.J. Dietze, Int. j. Mass Spectrom., Ion Proc. 197, 1-35 (2000). Reproduced by permission of Elsevier.)...
Calorimetry is the science of measuring heat changes from chemical reactions and physical events. DSC is described in Section 16.3 and has been a staple method of analysis for materials scientists. Classical DSC instruments and classical calorimetric titrimetry instruments (Sections 16.5 and 16.6) often lack the sensitivity required for the study of biological samples, where processes like the folding or unfolding of a protein may exchange only microjoules of heat. A new class of ultrasensitive microcalorimetry instrumentation has been developed primarily for studies in the life sciences, where sample amounts may be extranely limited. [Pg.1177]

I thank R. Ikeya and K. Terasaki, Center for Instrumental Analysis of Shizuoka University, for support in obtaining the X-ray diffraction data and elemental analysis data of some compounds described in this review. I sincerely wish to thank all students, who have contributed to this work. I acknowledge the financial support from Nippon Sheet Glass Foundation for Materials Science and Engineering, Japan and Ministry of Education, Culture, Sports, Science and Technology, Japan. [Pg.2549]

As a final evidence of the importance of vibrational spectroscopy for materials science and polymer analysis, the fast-developing field of IR/NIR and Raman spectroscopic imaging will be addressed. [Pg.290]

D. B. Williams. Practical Analytical Electron Microscopy in Materials Science. Verlag Chemie International, Weinheim, 1984. A good monograph discussing the use and applications of AEM, especially at intermediate voltages. The discussion on EDS is an excellent primer for using X-ray analysis on a TEM. [Pg.134]


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See also in sourсe #XX -- [ Pg.362 ]




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