Practical Scanning Electron Microscopy

Electron and Ion Microprobe Analysis

  • Joseph I. Goldstein
  • Harvey Yakowitz

Table of contents

  1. Front Matter
    Pages i-xviii
  2. J. I. Goldstein, H. Yakowitz, D. E. Newbury
    Pages 1-19
  3. J. I. Goldstein
    Pages 21-48
  4. J. I. Goldstein
    Pages 49-94
  5. D. E. Newbury, H. Yakowitz
    Pages 149-210
  6. E. Lifshin, M. F. Ciccarelli, R. B. Bolon
    Pages 263-297
  7. R. B. Bolon, E. Lifshin, M. F. Ciccarelli
    Pages 299-326
  8. H. Yakowitz, J. I. Goldstein
    Pages 401-434
  9. J. I. Goldstein, J. W. Colby
    Pages 435-489
  10. J. W. Colby
    Pages 529-572
  11. Back Matter
    Pages 573-582

About this book


In the spring of 1963, a well-known research institute made a market survey to assess how many scanning electron microscopes might be sold in the United States. They predicted that three to five might be sold in the first year a commercial SEM was available, and that ten instruments would saturate the marketplace. In 1964, the Cambridge Instruments Stereoscan was introduced into the United States and, in the following decade, over 1200 scanning electron microscopes were sold in the U. S. alone, representing an investment conservatively estimated at $50,000- $100,000 each. Why were the market surveyers wrongil Perhaps because they asked the wrong persons, such as electron microscopists who were using the highly developed transmission electron microscopes of the day, with resolutions from 5-10 A. These scientists could see little application for a microscope that was useful for looking at surfaces with a resolution of only (then) about 200 A. Since that time, many scientists have learned to appreciate that information content in an image may be of more importance than resolution per se. The SEM, with its large depth of field and easily that often require little or no sample prepara­ interpreted images of samples tion for viewing, is capable of providing significant information about rough samples at magnifications ranging from 50 X to 100,000 X. This range overlaps considerably with the light microscope at the low end, and with the electron microscope at the high end.


X-ray bridge electron microscope electron microscopy glass instruments iron materials science microscope microscopy scanning scanning electron microscope surface surfaces transmission

Editors and affiliations

  • Joseph I. Goldstein
    • 1
  • Harvey Yakowitz
    • 2
  1. 1.Metallurgy and Materials Science DepartmentLehigh UniversityBethlehemUSA
  2. 2.U.S Deparment of CommerceNational Bureau of StandardsUSA

Bibliographic information