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El. knyga: Recrystallization and Related Annealing Phenomena

(Department of Materials Science and Engineering, Carnegie Mellon University, Pittsburgh, PA, USA), (Department of Materials Science and Engineering, Carnegie Mellon University, Pittsburgh, PA, USA), (CIMA Marker)
  • Formatas: PDF+DRM
  • Išleidimo metai: 24-Jul-2017
  • Leidėjas: Elsevier / The Lancet
  • Kalba: eng
  • ISBN-13: 9780080982694
Kitos knygos pagal šią temą:
Recrystallization and Related Annealing PhenomenaDidesnis paveikslėlis
  • Formatas: PDF+DRM
  • Išleidimo metai: 24-Jul-2017
  • Leidėjas: Elsevier / The Lancet
  • Kalba: eng
  • ISBN-13: 9780080982694
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Recrystallization and Related Annealing Phenomena, Third Edition, fulfills the information needs of materials scientists in both industry and academia. The subjects treated in the book are all active research areas, forming a major part of at least four regular international conference series. This new third edition ensures the reader has access to the latest findings, and is essential reading to those working in the forefront of research in universities and laboratories.

For those in industry, the book highlights applications of the research and technology, exploring, in particular, the significant progress made recently in key areas such as deformed state, including deformation to very large strains, the characterization of microstructures by electron backscatter diffraction, the modeling and simulation of annealing, and continuous recrystallization.

  • Includes over 50% of new, revised, and updated material, highlighting the significant recent literature results in grain growth in non-crystallizing systems, 3D characterization techniques, quantitative modeling techniques, and all-new appendices on texture and measurements
  • Contains synthesized, detailed coverage from leading authors that bridge the gap between theory and practice
  • Includes a critical level of synthesis and pedagogy with an authored rather than edited volume

Daugiau informacijos

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Preface to the First Edition xv
Preface to the Second Edition xix
Preface to the Third Edition xxi
Acknowledgments xxiii
Symbols xxvii
Abbreviations xxix
Chapter 1 Introduction
1(12)
1.1 Annealing of a Deformed Material
1(3)
1.1.1 Outline and Terminology
1(2)
1.1.2 Importance of Annealing
3(1)
1.2 Historical Perspective
4(5)
1.2.1 Early Development of the Subject
4(2)
1.2.2 Selected Key Literature (1952--2003)
6(3)
1.3 Forces, Pressures, and Units
9(4)
1.3.1 Pressure on a Boundary
9(1)
1.3.2 Units and the Magnitude of the Driving Pressure
10(3)
Chapter 2 The Deformed State
13(68)
2.1 Introduction
13(2)
2.2 The Stored Energy of Cold Work
15(19)
2.2.1 Origin of the Stored Energy
15(4)
2.2.2 Measurements of Overall Stored Energy
19(4)
2.2.3 Relationship Between Stored Energy and Microstructure
23(11)
2.3 Crystal Plasticity
34(3)
2.3.1 Slip and Twinning
34(2)
2.3.2 Deformation of Polycrystals
36(1)
2.4 Cubic Metals that Deform by Slip
37(9)
2.4.1 Hierarchy of Microstructure
38(2)
2.4.2 Evolution of Deformation Microstructure in Cell-forming Metals
40(6)
2.4.3 Noncell-Forming Metals
46(1)
2.5 Cubic Metals That Deform by Slip and Twinning
46(4)
2.5.1 Deformation Twinning
48(1)
2.5.2 Effect of Stacking Fault Energy
48(2)
2.6 Hexagonal Metals
50(3)
2.7 Deformation Bands
53(3)
2.7.1 Structure of Deformation Bands
54(1)
2.7.2 Formation of Deformation Bands
54(1)
2.7.3 Transition Bands
54(2)
2.7.4 Conditions Under Which Deformation Bands Form
56(1)
2.8 Shear Bands
56(5)
2.8.1 Metals of Medium or High Stacking Fault Energy
57(1)
2.8.2 Metals of Low Stacking Fault Energy
58(2)
2.8.3 Formation of Shear Bands
60(1)
2.8.4 Conditions for Shear Banding
60(1)
2.9 Microstructures of Deformed Two-Phase Alloys
61(20)
2.9.1 Dislocation Distribution in Alloys Containing Deformable Particles
63(2)
2.9.2 Dislocation Distribution in Alloys Containing Nondeformable Particles
65(6)
2.9.3 Dislocation Structures at Individual Particles
71(2)
2.9.4 Deformation Zones at Particles
73(8)
Chapter 3 Deformation Textures
81(28)
3.1 Introduction
81(1)
3.2 Deformation Textures in Face-Centered Cubic (FCC) Metals
82(7)
3.2.1 Pure Metal Texture
83(2)
3.2.2 Alloy Texture
85(4)
3.3 Deformation Textures in Body-Centered Cubic (BCC) Metals
89(2)
3.4 Deformation Textures in Hexagonal Metals
91(2)
3.5 Fiber Textures
93(1)
3.6 Factors That Influence Texture Development
93(5)
3.6.1 Rolling Geometry and Friction
94(1)
3.6.2 Deformation Temperature
94(3)
3.6.3 Grain Size
97(1)
3.6.4 Shear Banding
97(1)
3.6.5 Second-Phase Particles
97(1)
3.7 Theories of Deformation Texture Development
98(11)
3.7.1 Macroscopic Models
98(5)
3.7.2 Recent Models
103(1)
3.7.3 The Texture Transition
103(6)
Chapter 4 The Structure and Energy of Grain Boundaries
109(36)
4.1 Introduction
109(1)
4.2 Orientation Relationship Between Grains
110(3)
4.3 Low Angle Grain Boundaries
113(4)
4.3.1 Tilt Boundaries
114(2)
4.3.2 Other Low Angle Boundaries
116(1)
4.4 High Angle Grain Boundaries
117(8)
4.4.1 Coincidence Site Lattice (CSL)
118(1)
4.4.2 Structure of High Angle Boundaries
119(2)
4.4.3 Energy of High Angle Boundaries
121(4)
4.5 Topology of Boundaries and Grains
125(5)
4.5.1 Two-Dimensional Microstructures
126(1)
4.5.2 Three-Dimensional Microstructures
127(2)
4.5.3 Grain Boundary Facets
129(1)
4.5.4 Boundary Connectivity
130(1)
4.5.5 Triple Junctions
130(1)
4.6 Smith--Zener Drag: Interaction of Second-Phase Particles With Boundaries
130(15)
4.6.1 Drag Force Exerted by a Single Particle
131(4)
4.6.2 Drag Pressure From a Distribution of Particles
135(10)
Chapter 5 Mobility and Migration of Boundaries
145(54)
5.1 Introduction
145(4)
5.1.1 Role of Grain Boundary Migration During Annealing
145(1)
5.1.2 Micromechanisms of Grain Boundary Migration
146(1)
5.1.3 Concept of Grain Boundary Mobility
147(1)
5.1.4 Measuring Grain Boundary Mobilities
148(1)
5.2 Mobility of Low Angle Grain Boundaries
149(10)
5.2.1 Migration of Symmetrical Tilt Boundaries Under Stress
149(2)
5.2.2 General Low Angle Boundaries
151(8)
5.3 Measurements of the Mobility of High Angle Boundaries
159(21)
5.3.1 Effect of Temperature on Grain Boundary Mobility in High Purity Metals
159(3)
5.3.2 Effect of Orientation on Grain Boundary Migration in High Purity Metals
162(9)
5.3.3 Influence of Solutes on Boundary Mobility
171(6)
5.3.4 Effect of Point Defects on Boundary Mobility
177(3)
5.3.5 Scope of Experimental Measurements
180(1)
5.4 Theories of the Mobility of High Angle Grain Boundaries
180(15)
5.4.1 Theories of Grain Boundary Migration in Pure Metals
180(9)
5.4.2 Theories of Grain Boundary Migration in Solid Solutions
189(6)
5.5 Migration of Triple Junctions
195(4)
5.5.1 Introduction
195(1)
5.5.2 Importance of Triple Junction Mobility
196(3)
Chapter 6 Recovery After Deformation
199(46)
6.1 Introduction
199(3)
6.1.1 Occurrence of Recovery
199(1)
6.1.2 Properties Affected by Recovery
200(2)
6.2 Experimental Measurements of Recovery
202(5)
6.2.1 Extent of Recovery
202(2)
6.2.2 Measurements of Recovery Kinetics
204(3)
6.3 Dislocation Migration and Annihilation During Recovery
207(8)
6.3.1 General Considerations
207(1)
6.3.2 Kinetics of Dipole Annihilation
208(3)
6.3.3 Recovery Kinetics of More Complex Dislocation Structures
211(4)
6.4 Rearrangement of Dislocations Into Stable Arrays
215(3)
6.4.1 Polygonization
215(1)
6.4.2 Subgrain Formation
215(3)
6.5 Subgrain Coarsening
218(20)
6.5.1 Driving Force for Subgrain Growth
218(1)
6.5.2 Experimental Measurements of Subgrain Coarsening
219(4)
6.5.3 Subgrain Growth by Boundary Migration
223(7)
6.5.4 Subgrain Growth by Rotation and Coalescence
230(8)
6.5.5 Recovery Mechanisms and the Nucleation of Recrystallization
238(1)
6.6 Effect of Second-Phase Particles on Recovery
238(7)
6.6.1 Effect of Particles on the Rate of Subgrain Growth
239(1)
6.6.2 Particle-Limited Subgrain Size
240(5)
Chapter 7 Recrystallization of Single-Phase Alloys
245(60)
7.1 Introduction
245(6)
7.1.1 Quantifying Recrystallization
248(2)
7.1.2 Laws of Recrystallization
250(1)
7.2 Factors Affecting the Rate of Recrystallization
251(12)
7.2.1 Deformed Structure
252(3)
7.2.2 Grain Orientation
255(3)
7.2.3 Effect of Prior Grain Size
258(1)
7.2.4 Solutes
259(1)
7.2.5 Effect of Deformation Temperature and Strain Rate
260(1)
7.2.6 Annealing Conditions
261(2)
7.3 The Formal Kinetics of Primary Recrystallization
263(7)
7.3.1 The Johnson---Mehl---Avrami---Kolmogorov (JMAK) Model
263(4)
7.3.2 Microstructural Path Methodology
267(3)
7.4 Recrystallization Kinetics in Real Materials
270(10)
7.4.1 Nonrandom Spatial Distribution of Nuclei
270(2)
7.4.2 Variation of Growth Rate During Recrystallization
272(8)
7.5 The Recrystallized Microstructure
280(2)
7.5.1 Grain Orientations
280(1)
7.5.2 Grain Size
280(2)
7.5.3 Grain Shape
282(1)
7.6 The "Nucleation" of Recrystallization
282(15)
7.6.1 Classical Nucleation
283(9)
7.6.2 Preformed Nucleus Model
292(2)
7.6.3 Nucleation Sites
294(3)
7.7 Annealing Twins
297(8)
7.7.1 Introduction
297(2)
7.7.2 Mechanisms of Twin Formation
299(2)
7.7.3 Twin Formation During Recovery
301(1)
7.7.4 Twin Formation During Recrystallization
302(1)
7.7.5 Twin Formation During Grain Growth
303(2)
Chapter 8 Recrystallization of Ordered Materials
305(16)
8.1 Introduction
305(1)
8.2 Ordered Structures
305(6)
8.2.1 Nature and Stability
305(2)
8.2.2 Deformation of Ordered Materials
307(2)
8.2.3 Microstructures and Deformation Textures
309(2)
8.3 Recovery and Recrystallization of Ordered Materials
311(6)
8.3.1 LI2 Structures
311(4)
8.3.2 B2 Structures
315(2)
8.3.3 Domain Structures
317(1)
8.4 Grain Growth
317(2)
8.5 Dynamic Recrystallization
319(1)
8.6 Summary
320(1)
Chapter 9 Recrystallization of Two-Phase Alloys
321(40)
9.1 Introduction
321(1)
9.1.1 Particle Parameters
322(1)
9.1.2 Effect of Particles on Deformed Microstructure
322(1)
9.2 Observed Effects of Particles on Recrystallization
322(8)
9.2.1 Effect of the Particle Parameters
323(4)
9.2.2 Effect of Strain
327(1)
9.2.3 Effect of Particle Strength
327(2)
9.2.4 Effect of Microstructural Homogenization
329(1)
9.3 Particle-Stimulated Nucleation of Recrystallization
330(13)
9.3.1 Mechanisms of PSN
331(5)
9.3.2 Orientations of Grains Produced by PSN
336(3)
9.3.3 Efficiency of PSN
339(1)
9.3.4 Effect of Particle Distribution
340(1)
9.3.5 Effect of PSN on Recrystallized Microstructure
341(2)
9.4 Particle Pinning During Recrystallization (Smith-Zener Drag)
343(2)
9.4.1 Nucleation of Recrystallization
343(2)
9.4.2 Growth During Recrystallization
345(1)
9.5 Bimodal Particle Distributions
345(1)
9.6 Control of Grain Size by Particles
346(2)
9.7 Particulate Metal---Matrix Composites
348(2)
9.8 Interaction of Precipitation and Recrystallization
350(6)
9.8.1 Introduction
350(1)
9.8.2 Regime I: Precipitation Before Recrystallization
351(4)
9.8.3 Regime II: Simultaneous Recrystallization and Precipitation
355(1)
9.8.4 Regime III: Recrystallization Before Precipitation
356(1)
9.9 Recrystallization of Duplex Alloys
356(5)
9.9.1 Equilibrium Microstructures
357(1)
9.9.2 Nonequilibrium Microstructures
358(3)
Chapter 10 The Growth and Stability of Cellular Microstructures
361(14)
10.1 Introduction
361(1)
10.2 Model
362(4)
10.3 Stability of Single-Phase Microstructure
366(4)
10.3.1 Low-Angle Boundaries---Recovery
367(2)
10.3.2 High- and Low-Angle Boundaries---Recrystallization
369(1)
10.3.3 High-Angle Boundaries---Grain Growth
369(1)
10.3.4 Stability of Microstructures after Very Large Strains
370(1)
10.4 Stability of Two-Phase Microstructures
370(2)
10.5 Summary
372(3)
Chapter 11 Grain Growth Following Recrystallization
375(56)
11.1 Introduction
375(9)
11.1.1 Nature and Significance of Grain Growth
376(1)
11.1.2 Factors Affecting Grain Growth
377(1)
11.1.3 Burke and Turnbull Analysis of Grain Growth Kinetics
378(1)
11.1.4 Comparison With Experimentally Measured Kinetics
379(2)
11.1.5 Topological Aspects of Grain Growth
381(3)
11.2 Development of Theories and Models of Grain Growth
384(13)
11.2.1 Introduction
384(1)
11.2.2 Early Statistical Theories
385(2)
11.2.3 Incorporation of Topology
387(4)
11.2.4 Deterministic Theories
391(3)
11.2.5 More Recent Theoretical Developments
394(1)
11.2.6 Which Theory Best Accounts for Grain Growth in an Ideal Material?
394(2)
11.2.7 Grain Size Distributions in 3D
396(1)
11.3 Grain Orientation and Texture Effects in Grain Growth
397(7)
11.3.1 Kinetics
397(2)
11.3.2 Effect of Grain Growth on Grain Boundary Character Distribution
399(5)
11.4 Effect of Second-Phase Particles on Grain Growth
404(13)
11.4.1 Kinetics Under the Influence of Particles
404(1)
11.4.2 Particle-Limited Grain Size
405(6)
11.4.3 Particle Instability During Grain Growth
411(4)
11.4.4 Grain Rotation
415(1)
11.4.5 Dragging of Particles by Boundaries
415(2)
11.5 Abnormal Grain Growth (AGG)
417(14)
11.5.1 Phenomenology of AGG
417(2)
11.5.2 Effect of Particles
419(5)
11.5.3 Effect of Texture
424(2)
11.5.4 Surface Effects
426(3)
11.5.5 Effect of Prior Deformation
429(1)
11.5.6 Effect of Grain Boundary Complexion Transitions
429(2)
Chapter 12 Recrystallization Textures
431(38)
12.1 Introduction
431(1)
12.2 The Nature of Recrystallization Textures
432(13)
12.2.1 Recrystallization Textures in fcc Metals
432(8)
12.2.2 Recrystallization Textures in Body-Centered Cubic (bcc) Metals
440(1)
12.2.3 Recrystallization Textures in Hexagonal Metals
441(1)
12.2.4 Recrystallization Textures in Two-Phase Alloys
442(3)
12.3 The Theory of Recrystallization Textures
445(11)
12.3.1 Historical Background
445(2)
12.3.2 Oriented Growth
447(3)
12.3.3 Oriented Nucleation
450(3)
12.3.4 Relative Roles of Oriented Nucleation and Oriented Growth
453(1)
12.3.5 Role of Twinning
454(2)
12.4 Evolution of Textures During Annealing
456(13)
12.4.1 Cube Texture in fee Metals
456(4)
12.4.2 Recrystallization Textures of Low-Carbon Steels
460(2)
12.4.3 Recrystallization Textures of Two-Phase Alloys
462(3)
12.4.4 Texture Development During Grain Growth
465(4)
Chapter 13 Hot Deformation and Dynamic Restoration
469(40)
13.1 Introduction
469(1)
13.2 Dynamic Recovery
470(12)
13.2.1 Constitutive Relationships
470(2)
13.2.2 Mechanisms of Microstructural Evolution
472(1)
13.2.3 Microstructures Formed During Dynamic Recovery
473(6)
13.2.4 Texture Formation During Hot Deformation
479(3)
13.2.5 Modeling the Evolution of Microstructure
482(1)
13.3 Discontinuous Dynamic Recrystallization
482(11)
13.3.1 Characteristics of Dynamic Recrystallization
482(1)
13.3.2 Nucleation of Dynamic Recrystallization
483(3)
13.3.3 Microstructural Evolution
486(2)
13.3.4 Steady-State Grain Size
488(2)
13.3.5 Flow Stress During Dynamic Recrystallization
490(1)
13.3.6 Dynamic Recrystallization in Single Crystals
491(1)
13.3.7 Dynamic Recrystallization in Two-Phase Alloys
492(1)
13.4 Continuous Dynamic Recrystallization
493(5)
13.4.1 Types of Continuous Dynamic Recrystallization
493(1)
13.4.2 Dynamic Recrystallization by Progressive Lattice Rotation
494(4)
13.5 Dynamic Recrystallization in Minerals
498(4)
13.5.1 Boundary Migration in Minerals
499(1)
13.5.2 Migration and Rotation Recrystallization
500(2)
13.6 Annealing After Hot Deformation
502(7)
13.6.1 Static Recovery
502(1)
13.6.2 Static Recrystallization
502(2)
13.6.3 Metadynamic Recrystallization
504(1)
13.6.4 PSN After Hot Deformation
505(2)
13.6.5 Grain Growth After Hot Working
507(2)
Chapter 14 Continuous Recrystallization During and After Large Strain Deformation
509(18)
14.1 Introduction
509(1)
14.2 Microstructural Stability After Large Strains
510(1)
14.3 Deformation at Ambient Temperatures
511(8)
14.3.1 Development of Stable Microstructures by Large Strain Deformation
512(1)
14.3.2 Effect of the Initial Grain Size
512(3)
14.3.3 Effect of Second-Phase Particles
515(1)
14.3.4 Transition From Discontinuous to Continuous Recrystallization
515(2)
14.3.5 Mechanism of Continuous Recrystallization in Aluminum
517(2)
14.4 Deformation at Elevated Temperatures
519(5)
14.4.1 Geometric Dynamic Recrystallization
519(2)
14.4.2 Conditions for Geometric Dynamic Recrystallization
521(1)
14.4.3 Grain Size Resulting From Geometric Dynamic Recrystallization
522(2)
14.5 Stability of Micron-Grained Microstructures Against Grain Growth
524(3)
14.5.1 Single-Phase Alloys
524(1)
14.5.2 Two-Phase Alloys
525(2)
Chapter 15 Control of Recrystallization
527(42)
15.1 Introduction
527(1)
15.2 Processing of Some Industrial Aluminum Alloys
527(11)
15.2.1 Commercial Purity Aluminum (AA1xxx)
527(3)
15.2.2 Production of Aluminum Beverage Cans (AA3xxx)
530(4)
15.2.3 Al---Mg---Si Automotive Sheet (AA6xxx)
534(4)
15.3 Texture Control in Cold-Rolled and Annealed Sheet Steel
538(10)
15.3.1 Introduction
538(1)
15.3.2 Background
539(3)
15.3.3 Batch-Annealed, Al-Killed, Low-Carbon Forming Steels
542(4)
15.3.4 Ultra-Low-Carbon Steels
546(2)
15.3.5 Extra-Low-Carbon, High-Strength Steels
548(1)
15.4 Grain-Oriented, Silicon Steel Sheets
548(8)
15.4.1 Introduction
548(1)
15.4.2 Production of Silicon Steel Sheets
548(4)
15.4.3 Development of the Goss Texture
552(1)
15.4.4 Recent Developments
553(3)
15.5 Commercial Superplastic Aluminum Alloys
556(5)
15.5.1 Superplasticity and Microstructure
556(1)
15.5.2 Refinement of Microstructure by Static Recrystallization
557(1)
15.5.3 Refinement of Microstructure by Dynamic Recrystallization
558(2)
15.5.4 Refinement of Microstructure by ARB
560(1)
15.6 Submicron-Grained Alloys
561(8)
15.6.1 Background
561(1)
15.6.2 Processing Methods
562(4)
15.6.3 Properties and Applications of SMG Alloys
566(1)
15.6.4 Summary
567(2)
Chapter 16 Computer Modeling and Simulation of Annealing
569(36)
16.1 Introduction
569(3)
16.1.1 Role of Computer Simulation
569(1)
16.1.2 Status of Computer Simulation
570(2)
16.2 Micro-Models
572(28)
16.2.1 Monte Carlo (Potts Model) Simulations
572(8)
16.2.2 Cellular Automata
580(1)
16.2.3 Molecular Dynamics
581(2)
16.2.4 Vertex Simulations
583(8)
16.2.5 Moving Finite Element
591(3)
16.2.6 Phase Field Method
594(4)
16.2.7 Level Set Method
598(1)
16.2.8 Computer Avrami Models
599(1)
16.2.9 Neural Network Modeling
600(1)
16.3 Coupled Models
600(5)
16.3.1 Annealing of "Real" Microstructures
601(1)
16.3.2 Annealing of Computer-Generated Deformation Microstructures
601(1)
16.3.3 Modeling an Industrial Thermomechanical Process
602(3)
Texture 605(24)
The Measurement of Recrystallization 629(18)
References 647(34)
Index 681
Prof. Rollett has been a Professor of Materials Science & Engineering at Carnegie Mellon University (CMU) since 1995 and was the Department Head 1995-2000. Prior to CMU he worked for the University of California at the Los Alamos National Laboratory (1979-1995). He spent ten years in management with five years as a Group Leader (and then Deputy Division Director) at Los Alamos, followed by five years as Department Head at CMU (1995-2000). The main focus of his research is on the measurement and computational prediction of microstructural evolution especially in three dimensions. His interests include strength of materials, constitutive relations, microstructure, texture, anisotropy, grain growth, recrystallization, formability and stereology.He was the Chair of the International Conference on Texture (ICOTOM-15), which was held on campus at CMU June, 2008 and is a member of its International Scientific Committee. From 2001-2013 he was the Chair of the International Committee of the conference on Grain Growth and Recrystallization that is held every three years; the next meeting will be in Pittsburgh in 2016. He was a co-Chair of the 13th International Conference on Aluminum and its Applications, which was held on campus at CMU in June 2012. He is a co-author of the texture analysis package popLA, and the polycrystal plasticity code, LApp; he is also a contributor to the Dream.3D software package and the well-known textbook Texture & Anisotropy edited by Kocks, Tomé and Wenk. Gregory S. Rohrer is the W.W. Mullins Professor of Materials Science and Engineering, the Head of the Materials Science and Engineering Department, and former Director of the NSF sponsored Materials Research Science and Engineering Center at Carnegie Mellon University. He received his bachelor's degree in Physics from Franklin and Marshall College in 1984 and his Ph.D. in Materials Science and Engineering from the University of Pennsylvania in 1989. He is the author of over 240 publications and has received the following awards: National Science Foundation Young Investigator Award (1994), Roland B. Snow Award of the American Ceramic Society (1998), Ross Coffin Purdy Award of the American Ceramic Society (2002), Fellow of the American Ceramic Society (2003), the Richard M. Fulrath Award of the American Ceramic Society (2004), the Robert B. Sosman Award of the American Ceramic Society (2009), a Sapphire Prize from the Journal of Materials Science (2011), and the W. David Kingery Award of the American Ceramic Society (2014). Rohrer gave the Lawley lecture at Drexel University in 2005, the Winchell Lecture at Purdue University in 2007, and the GE Distinguished Lecture for MS&E at Rensselaer Polytechnic Institute in 2009. Rohrer is an Associate Editor of the Journal of the American Ceramic Society, was the chair of the Basic Science Division of the American Ceramic Society in 2005, and chaired the University Materials Council in 2011.
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