Advances in Combustion Synthesis and Technology

Combustion Synthesis of Nanostructured Non-Ferrous Alloys and Ceramic Powders

Author(s): Ozan Coban* and M. Ercan Acma

Pp: 34-65 (32)

DOI: 10.2174/9789815050448122010006

* (Excluding Mailing and Handling)

Abstract

In the light of technological developments, the need for advanced ceramics and non-ferrous alloys is increasing day by day. Besides, the applications of nanotechnology to these areas for the production of materials with superior properties are in important research interest. Although there are many methods developed for the synthesis of nanoparticles of these materials, in recent years, the combustion synthesis method offers unique advantages in matters such as product properties, process control and cost. There are varying types of combustion synthesis and each type has been continuously developed recently and it could be seen that it is a method open to innovative developments. This chapter briefly discussed the basic principles, types, thermodynamic and kinetic basis of combustion synthesis. While doing this, both the approaches in the development of the methods were evaluated and examples from the studies carried out in recent years were given. Some studies on the basic parameters affecting the combustion synthesis method processes have been reviewed. It aims to give brief information about the materials that can be synthesized by this method. It aims to provide summary information transfer to those who will work on any combustion synthesis method and aim to help create a route for experimental study with the sample studies given. When the whole chapter is examined, it will be seen that the method of combustion synthesis offers great advantages for nanoparticle synthesis and makes it possible to produce a wide variety of materials with its many types.


Keywords: Combustion synthesis, Classification of combustion, Gel combustion, Self-propagating high temperature synthesis, Solution combustion, Thermodynamics and kinetics of combustion, Volume combustion.

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