Chapter 1 Origin and occurrence
1.1 Fundamental knowledge of process intensification
1.2 Efficient pulp-mixing based on process intensification
1.3 Process characteristics of conventional stirred pulp-mixing
1.4 High efficiency characteristic of stirred pulp-mixing
Chapter 2 Process design and approaches of the research on stirred pulp-mixing characteristics
2.1 Process design for R & D of mixing performance of stirred pulp-mixing
2.2 Evaluation parameters and approaches of mixing performance
2.3 Process design for R & D of solid-liquid suspension characteristics
2.4 Evaluation parameters and approaches of material suspension capability
2.5 Computational fluid dynamics (CFD) and simulation software introduction
Chapter 3 Circulation/shear coupling mechanism--the proposal of double-impeller configuration
3.1 Configuration design of circulation and shear coupling mechanism
3.2 Mixing characteristics of "RFI+AFI"
3.3 Mixing characteristics of "AFI+RFI"
3.4 General evaluation on the mixing characteristics of double-impeller circulation/shear coupling process
Chapter Material suspension characteristics of double-impeller circulation/shear coupling process
4.1 Material suspension characteristics of "RFI+AFI,L=0"
4.2 Material suspension characteristics of "RFI+AFI,L=2H/9"
4.3 Material suspension characteristics of "RFI+AFI,L=4H/9"
4.4 Material suspension characteristics of "AFI+RFI,L=O"
4.5 Material suspension characterisnics of "AFI+RFI,L=2H/9"
4.6 Material suspension characteristics of "AFI+RFI,L=4H/9"
4.7 Regularity analysis of material suspension function of circulation/shear coupling process
4.8 General evaluation on the suspension characteristics of double-impeller circulation/shear coupling process
Chapter 5 Intensification design of efficient pulp-mixing process characterized by "multi-stage and compulsory"
5.1 Numerical simulation of flow field of double-impeller basic configuration
5.2 Influence of the addition of draft-tube on the flow field of double-impeller basic configuration
5.3 Optimization/intensification design of "multi-stage and compulsory"efficient pulp-mixing devices
5.4 Numerical simulation of "maleic-cutting" configuration flow field
5.5 Numerical simulation of "athwart-cutting" configuration flow field
5.6 General evaluation of optimization/intensification design for circulation/shear double-impeller configuration ..
Chapter 6 Application practice of "multi-stage and compulsory" high-efficiency pulp-mixing devices
6.1 Mixing characteristics of "multi-stage, compulsory" pulp-mixing devices
6.2 Material suspension characteristics of "multi-stage and compulsory" pulp-mixing devices
6.3 Application practice of "multi-stage and compulsory" pulp-mixing devices in phosphate mineral beneficiation
6.4 Summary of application practices of "multi-stage and compulsory"pulp-mixing devices
Chapter 7 Design and application cases of other efficient pulp-mixing agitating configurations
7.1 The "multi-stage and compulsory" optimization configuration design of upgraded agitating structure
7.2 Structure optimization design and practical application of the double-shaft agitated tank
7.3 Development for method and equipment of high shear,multi-stage and compulsory pulp-mixing
7.4 Case analysis of agitation configuration design based on efficient pulp-mixing
Chapter 8 Future research and development of pulp-mixing process intensification
8.1 Research & development idea of process intensification of stirred pulp-mixing
8.2 Analysis of the essence of stirred pulp-mixing process intensification
8.3 Similarity scale-up problem of efficient pulp-mixing devices
References