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E-raamat: Chemistry in Motion: Reaction-Diffusion Systems for Micro- and Nanotechnology

(Northwestern University, Evanston IL, USA)
  • Formaat: PDF+DRM
  • Ilmumisaeg: 03-Apr-2009
  • Kirjastus: John Wiley & Sons Inc
  • Keel: eng
  • ISBN-13: 9780470741634
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  • Formaat: PDF+DRM
  • Ilmumisaeg: 03-Apr-2009
  • Kirjastus: John Wiley & Sons Inc
  • Keel: eng
  • ISBN-13: 9780470741634
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Change and motion define and constantly reshape the world around us, on scales from the molecular to the global. In particular, the subtle interplay between chemical reactions and molecular transport gives rise to an astounding richness of natural phenomena, and often manifests itself in the emergence of intricate spatial or temporal patterns. The underlying theme of this book is that by “setting chemistry in motion” in a proper way, it is not only possible to discover a variety of new phenomena, in which chemical reactions are coupled with diffusion, but also to build micro-/nanoarchitectures and systems of practical importance. Although reaction and diffusion (RD) processes are essential for the functioning of biological systems, there have been only a few examples of their application in modern micro- and nanotechnology. Part of the problem has been that RD phenomena are hard to bring under experimental control, especially when the system’s dimensions are small. Ultimately this book will guide the reader through all the aspects of these systems – from understanding the basics to practical hints and then to applications and interpretation of results.

Topics covered include:

  • An overview and outlook of both biological and man-made reaction-diffusion systems.
  • The fundamentals and mathematics of diffusion and chemical reactions.
  • Reaction-diffusion equations and the methods of solving them.
  • Spatial control of reaction-diffusion at small scales.
  • Micro- and nanofabrication by reaction-diffusion.
  • Chemical clocks and periodic precipitation structures.
  • Reaction-diffusion in soft materials and at solid interfaces.
  • Microstructuring of solids using RD.
  • Reaction-diffusion for chemical amplification and sensing.
  • RD in three dimensions and at the nanoscale, including nanosynthesis.

This book is aimed at all those who are interested in chemical processes at small scales, especially physical chemists, chemical engineers, and material scientists. The book can also be used for one-semester, graduate elective courses in chemical engineering, materials science, or chemistry classes.

Arvustused

"In summary, this text can be viewed as a first stepping stone into the reaction-diffusion field. It is a quick, informative survey of what types of syntheses are possible in reaction-diffusion systems; it provides the necessary framework to begin an in-depth project in the field; and most importantly, it is an enjoyable read." (Angewandte Chemie, 2010)    

Preface xi
List of Boxed Examples
xiii
Panta Rei: Everything Flows
1(16)
Historical Perspective
1(2)
What Lies Ahead?
3(1)
How Nature Uses RD
4(5)
Animate Systems
5(3)
Inanimate Systems
8(1)
RD in Science and Technology
9(8)
References
12(5)
Basic Ingredients: Diffusion
17(28)
Diffusion Equation
17(3)
Solving Diffusion Equations
20(11)
Separation of Variables
20(6)
Laplace Transforms
26(5)
The Use of Symmetry and Superposition
31(3)
Cylindrical and Spherical Coordinates
34(4)
Advanced Topics
38(7)
References
43(2)
Chemical Reactions
45(16)
Reactions and Rates
45(5)
Chemical Equilibrium
50(1)
Ionic Reactions and Solubility Products
51(1)
Autocatalysis, Cooperativity and Feedback
52(3)
Oscillating Reactions
55(2)
Reactions in Gels
57(4)
References
59(2)
Putting It All Together: Reaction---Diffusion Equations and the Methods of Solving Them
61(32)
General Form of Reaction---Diffusion Equations
61(1)
RD Equations that can be Solved Analytically
62(4)
Spatial Discretization
66(14)
Finite Difference Methods
66(4)
Finite Element Methods
70(10)
Temporal Discretization and Integration
80(7)
Case 1: τRxn ≥ τDiff
81(1)
Forward Time Centered Space (FTCS) Differencing
81(1)
Backward Time Centered Space (BTCS) Differencing
81(1)
Crank---Nicholson Method
82(1)
Alternating Direction Implicit Method in Two and Three Dimensions
83(1)
Case 2: τRxn « τDiff
83(1)
Operator Splitting Method
83(1)
Method of Lines
84(2)
Dealing with Precipitation Reactions
86(1)
Heuristic Rules for Selecting a Numerical Method
87(1)
Mesoscopic Models
87(6)
References
90(3)
Spatial Control of Reaction---Diffusion at Small Scales: Wet Stamping (WETS)
93(10)
Choice of Gels
94(4)
Fabrication
98(5)
Appendix 5A: Practical Guide to Making Agarose Stamps
101(1)
PDMS Molding
101(1)
Agarose Molding
101(1)
References
102(1)
Fabrication by Reaction---Diffusion: Curvilinear Microstructures for Optics and Fluidics
103(24)
Microfabrication: The Simple and the Difficult
103(2)
Fabricating Arrays of Microlenses by RD and WETS
105(4)
Intermezzo: Some Thoughts on Rational Design
109(2)
Guiding Microlens Fabrication by Lattice Gas Modeling
111(6)
Disjoint Features and Microfabrication of Multilevel Structures
117(4)
Microfabrication of Microfluidic Devices
121(3)
Short Summary
124(3)
References
124(3)
Multitasking: Micro- and Nanofabrication with Periodic Precipitation
127(38)
Periodic Precipitation
127(1)
Phenomenology of Periodic Precipitation
128(2)
Governing Equations
130(7)
Microscopic PP Patterns in Two Dimensions
137(8)
Feature Dimensions and Spacing
139(1)
Gel Thickness
140(2)
Degree of Gel Crosslinking
142(1)
Concentration of the Outer and Inner Electrolytes
142(3)
Two-Dimensional Patterns for Diffractive Optics
145(7)
Buckling into the Third Dimension: Periodic `Nanowrinkles'
152(3)
Toward the Applications of Buckled Surfaces
155(3)
Parallel Reactions and the Nanoscale
158(7)
References
160(5)
Reaction---Diffusion at Interfaces: Structuring Solid Materials
165(30)
Deposition of Metal Foils at Gel Interfaces
165(13)
RD in the Plating Solution: Film Topography
167(5)
RD in the Gel Substrates: Film Roughness
172(6)
Cutting into Hard Solids with Soft Gels
178(14)
Etching Equations
178(2)
Gold Etching
180(1)
Glass and Silicon Etching
181(1)
Structuring Metal Films
181(5)
Microetching Transparent Conductive Oxides, Semiconductors and Crystals
186(3)
Imprinting Functional Architectures into Glass
189(3)
The Take-Home Message
192(3)
References
192(3)
Micro-chameleons: Reaction---Diffusion for Amplification and Sensing
195(32)
Amplification of Material Properties by RD Micronetworks
197(6)
Amplifying Macromolecular Changes using Low-Symmetry Networks
203(2)
Detecting Molecular Monolayers
205(3)
Sensing Chemical `Food'
208(7)
Oscillatory Kinetics
211(1)
Diffusive Coupling
212(1)
Wave Emission and Mode Switching
213(2)
Extensions: New Chemistries, Applications and Measurements
215(12)
References
222(5)
Reaction---Diffusion in Three Dimensions and at the Nanoscale
227(30)
Fabrication Inside Porous Particles
228(12)
Making Spheres Inside of Cubes
228(2)
Modeling of 3D RD
230(5)
Fabrication Inside of Complex-Shape Particles
235(1)
`Remote' Exchange of the Cores
236(2)
Self-Assembly of Open-Lattice Crystals
238(2)
Diffusion in Solids: The Kirkendall Effect and Fabrication of Core-Shell Nanoparticles
240(8)
Galvanic Replacement and De-Alloying Reactions at the Nanoscale: Synthesis of Nanocages
248(9)
References
253(4)
Epilogue: Challenges and Opportunities for the Future
257(8)
References
263(2)
Appendix A: Nature's Art 265(6)
Appendix B: Matlab Code for the Minotaur (Example 4.1) 271(4)
Appendix C: C++ Code for the Zebra (Example 4.3) 275(8)
Index 283
Bartosz A. Grzybowski is Associate Professor of Chemical and Biological Engineering at Northwestern University in Evanston, Illinois (USA). He was educated at the University of Gdansk (Poland) and Yale University (USA) and gained his PhD at Harvard University (USA), where he also worked as a postdoctoral fellow. From 2001 to 2003, Professor Grzybowski was Director of Research (Concurrent Pharmaceuticals) and Associate of the Department of Chemistry and Chemical Biology at Harvard University. He is the recipient of several awards including the 2003 Camille and Henry Dreyfus New Faculty Award and in 2006 an ACS Division of Colloid and Surface Chemistry Unilever Award and he is the (co)author of over 70 papers.