Coal and Coal-Related Compounds, 150
Structures, Reactivity and Catalytic ReactionsBy
- Toshiaki Kabe, Department of Chemical Engineering, Tokyo University of Agriculture and Technology, Tokyo, Japan
- Atsushi Ishihara, Department of Chemical Engineering, Tokyo University of Agriculture and Technology, Tokyo, Japan
- Eika Weihua Qian, Department of Chemical Engineering, Tokyo University of Agriculture and Technology, Tokyo, Japan
- I. Putu Sutrisna, Agency for the Assessment and Application of Technology, Indonesia
- Yaeko Kabe, Faculty of Agriculture, Tamagawa University, Tokyo, Japan
Coal is more abundant than petroleum and natural gas. Further, coal is not localized but can be used by many more countries than petroleum. Therefore, if we can establish coal utilization technology, coal will bring about a great contribution to human life and society. On the other hand, shortage of petroleum and natural gas are anticipated in the second half of the 21st century. To compensate, the use of coal is expected to gradually increase during the 21st century. In the future, the development of the coal utilization technology will become more and more important to insure the supply of liquid fuels for transportation and carbon sources for the manufacture of chemicals and plastic materials.In order to develop such technologies, the elucidation of the structure of coal is a fundamental area of study. Further, more efficient coal utilization technology must be established to meet environmental legislation. One of the key technologies for this purpose is catalysis. This volume provides detail of the basic and practical aspects of the science and technology of coal utilization with and without catalysts. The actual structure of coal, the chemistry included in the reactivity of coal, the methods to elucidate the structure of coal and re-action mechanisms of coal conversion, the most important catalyst for converting coal to liquid and gas, the role of the catalysts in coal conversion, the problems in the process engineering, and how to meet environmental regulations are discussed in detail. The recent progress in studies on the structure and reactivity of coal made over the last century is summarized and reviewed with emphasis on both fundamental and applied aspects of the science and technology for coal processing in the presence and absence of catalysts.
Chemical engineers and catalysis scientists in academia or industry; dealing with the science and technology of coal utilization and the reactivity of coal.
Studies in Surface Science and Catalysis
Published: November 2004
Methods of Classification and Characterization of Coal.
1.1 Classification of Coal.
1.2 Proximate Analysis and Elemental.
1.3 Solvent Extraction.
1.4 Various Analytical Methods.
1.5 Tritium Tracer Methods for Coal Characterization.
Chemical and Macromolecular Structure of Coal.
2.2 Chemical Structure of Coal.
2.3 Macromolecular Structure of Coal.
3.1 Pyrolysis of Coal.
3.2 Pyrolysis of Coal Tar.
3.3 Pyrolysis of Coal Tar Pitch.
Liquefaction of Coal.Gasification of Coal.
4.2 Coal Structure and Reactivity.
4.3 Catalysis in Coal Liquefaction.
4.4 Hydrogen Transfer Reaction in Coal.
4.5 Process of Coal Liquefaction.
5.2 Production of Gases Involving Gasification.
5.3 Physical and Chemical Principles.
5.4 Gasification Processes.
5.5 Measurement of Gasification Rate.
5.6 Reactivity of Coal Char.
5.7 Factors Affecting the Reactivity of Coal Char during Gasification.
5.8 Factors Affecting Reaction Rates. Microbial Depolymerization of Coal.
6.1 Microorganisms as Catalysts with a Living Body.
6.2 Degradation of Low Molecular Compounds Related to Coal.
6.3 Depolymerization of Coal.
6.4 Environmental Remediation.