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Single-Nano Buckydiamond Particles

Synthesis Strategies, Characterization Methodologies and Emerging Applications
  • Eiji Ōsawa
Chapter

Abstract

This Chapter presents a brief overview of a long history and recent rapid developments of the so-called detonation nanodiamond. Although this new version of artificial diamond was discovered as early as 1963, it became a victim of secret research under a military regime, during which there was no exposure to scientific community, and virtually no meaningful progress was made until about 1990. Confusion continued until 2005, when the primary particle was isolated for the first time in dispersed form. The dark age of detonation nanodiamond was briefly summarized in Sect. 1.1. Bitter experience on the hazard of secretive custom in technology prompted us to disclose details of isolation procedure, to which the Sect. 1.2 is devoted. Nevertheless, unexpected difficulties in nanoparticles prevented us to make fast progress in its development. Only in 2007–2008, an illuminative guide was presented by theoreticians regarding geometrical and electronic structures in the primary particles of detonation nanodiamond, which solved most of its mysterious beha­viors that we encountered in the past. This lucky incidence is mentioned in Sect. 1.3 together with our provisional extention of the theory. Three potential Applications are reviewed in the light of the new theoretical model in the penultimate section. Section 1.5 refers to future directions of production and applications.

Keywords

Primary Particle Colloidal Solution Diamond Film Diamond Particle Bead Mill 
These keywords were added by machine and not by the authors. This process is experimental and the keywords may be updated as the learning algorithm improves.

Notes

Acknowledgments

Professor Dr. A. Krüger performed the first experiments on nanodiamond in my laboratory in Toyohashi University of Technolgy. In NanoCarbon Research Institute, Mr. F. Kataoka played a vital role in introducing beads milling method, and Mr. M. Takahashi optimized the milling conditions to enable industrial production of SNBD. Virtually all applications were found by friends outside my own group: drug carrier action by Dr. H. Huang and Prof. D. Ho, CVD seeding by Dr. O. Williams, novel lubrication system by four Japanese research groups (vide supra), hard masking by a group led by Dr. Ch. Nebel. Special thanks are due to Dr. K. Uemura for untiring moral and technical supports. Generous funding was provided by MEXT, NEDO, JST, Futaba Corporation, and Nippon Kayaku Co.

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Copyright information

© Springer Science+Business Media, LLC 2010

Authors and Affiliations

  • Eiji Ōsawa
    • 1
  1. 1.NanoCarbon Research Institute, AREC, Shinshu UniversityUedaJapan

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