Multiple Electron Resonance Spectroscopy

1. Front Matter

   Pages i-xii

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2. Multiple Electron Resonance Spectroscopy: An Introduction

   • Martin M. Dorio

   Pages 1-3

3. Instrumentation and Experimental Methods in Double Resonance

   • Daniel S. Leniart

   Pages 5-72

4. Theory of Multiple Resonance and ESR Saturation in Liquids and Related Media

   • Jack H. Freed

   Pages 73-142

5. Solution ENDOR

   • Neil M. Atherton

   Pages 143-168

6. Modulation Effects in Multiple Electron Resonance Spectroscopy

   • Lauraine A. Dalton, Larry R. Dalton

   Pages 169-228

7. Disordered Matrices

   • Larry Kevan, P. A. Narayana

   Pages 229-259

8. Crystalline Systems

   • Lowell D. Kispert

   Pages 261-295

9. ENDOR on Hemes and Hemoproteins

   • Charles P. Scholes

   Pages 297-329

10. ENDOR and ELDOR on Iron-Sulfur Proteins

    • Richard H. Sands

    Pages 331-374

11. Radiation Biophysics

    • Harold C. Box

    Pages 375-392

12. Polymer Studies

    • Martin M. Dorio

    Pages 393-408

13. ENDOR of Triplet State Systems in Solids

    • Marvin D. Kemple

    Pages 409-436

14. Principles and Applications of Optical Perturbation-Electron Paramagnetic Resonance (OPEPR)

    • Haim Levanon

    Pages 437-474

15. Electron-Nuclear-Nuclear TRIPLE Resonance of Radicals in Solutions

    • Klaus Möbius, Reinhard Biehl

    Pages 475-507

16. Back Matter

    Pages 509-512

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Abragam and Bleaney/H) and others.o6---19) Basically, this volume deals with those spectroscopic techniques that use EPR as a detection method. Chapters 2 through 5 cover the experimental and theoretical aspects of multiple resonance spectroscopy. Chapters 6 through 12 are systems-oriented and deal with the multiple resonance techniques applied to crystals, glasses, bioproteins, polymers, and triplets. The concepts of the first five chapters illustrate the strength of MERS to solve a broad range of problems. Chapters 13 and 14 are rather detailed introductions to two of the latest new applications: TRIPLE resonance and optical perturbations in EPR. The latter is to be distinguished from the OMDR (optical magnetic double resonance) techniques, in which the optical system is the detection method. References 1. E. J. Zavoisky, J. Phys. U.S.S.R. 9, 211 (1945). 2. J. S. Hyde, Ann. Rev. Phys. Chern. 25, 407 (1974). 3. N. M. Atherton, Electron Spin Resonance (Specialist Periodical Reports, The Chemical Society, London) 1, 32 (1972); 2, 35 (1974). 4. J. H. Freed, Ann. Rev. Phys. Chern. 23, 265 (1972). 5. J. E. Wertz and J. R. Bolton, Electron Spin Resonance, Elementary Theory and Practical Applications, p. xii, McGraw-Hill Book Co., New York (1972). 6. G. Feher, Phys. Rev. 103,834 (1956). 7. P. P. Sorokin, G. J. Lasher, and I. L. Gelles, Phys. Rev. 118, 939 (1960). 8. N. Bloembergen, S. Shapiro, P. S. Pershan, and J. O. Artman, Phys. Rev. 114,445 (1959).

• Absorption
• Diffusion
• Sorption
• amines
• crystal
• electron
• electron spin
• experiment
• kinetics
• metals
• polymer
• protein
• proteins
• spectroscopy
• spin

• Diamond Shamrock Corporation, Painesville, USA

  Martin M. Dorio

• Cornell University, Ithaca, USA

  Jack H. Freed

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