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Informatics for Materials Science and Engineering
Data-driven Discovery for Accelerated Experimentation and Application
- 1st Edition - July 10, 2013
- Editor: Krishna Rajan
- Language: English
- Paperback ISBN:9 7 8 - 0 - 1 2 - 8 1 0 1 2 1 - 6
- Hardback ISBN:9 7 8 - 0 - 1 2 - 3 9 4 3 9 9 - 6
- eBook ISBN:9 7 8 - 0 - 1 2 - 3 9 4 6 1 4 - 0
Materials informatics: a ‘hot topic’ area in materials science, aims to combine traditionally bio-led informatics with computational methodologies, supporting more efficient re… Read more
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Request a sales quoteMaterials informatics: a ‘hot topic’ area in materials science, aims to combine traditionally bio-led informatics with computational methodologies, supporting more efficient research by identifying strategies for time- and cost-effective analysis.
The discovery and maturation of new materials has been outpaced by the thicket of data created by new combinatorial and high throughput analytical techniques. The elaboration of this "quantitative avalanche"—and the resulting complex, multi-factor analyses required to understand it—means that interest, investment, and research are revisiting informatics approaches as a solution.
This work, from Krishna Rajan, the leading expert of the informatics approach to materials, seeks to break down the barriers between data management, quality standards, data mining, exchange, and storage and analysis, as a means of accelerating scientific research in materials science.
This solutions-based reference synthesizes foundational physical, statistical, and mathematical content with emerging experimental and real-world applications, for interdisciplinary researchers and those new to the field.
- Identifies and analyzes interdisciplinary strategies (including combinatorial and high throughput approaches) that accelerate materials development cycle times and reduces associated costs
- Mathematical and computational analysis aids formulation of new structure-property correlations among large, heterogeneous, and distributed data sets
- Practical examples, computational tools, and software analysis benefits rapid identification of critical data and analysis of theoretical needs for future problems
Computational materials scientists, combinatorial and high-throughput experimentalists and affiliated applications specialists.
Preface: A Reading Guide
Acknowledgment
Chapter 1. Materials Informatics: An Introduction
1 The What and Why of Informatics
2 Learning from Systems Biology: An “Omics” Approach to Materials Design
3 Where Do We Get the Information?
4 Data Mining: Data-Driven Materials Research
References
Chapter 2. Data Mining in Materials Science and Engineering
1 Introduction
2 Analysis Needs of Science Applications
3 The Scientific Data-Mining Process
4 Image Analysis
5 Dimension Reduction
6 Building Predictive and Descriptive Models
7 Further Reading
Acknowledgments
References
Chapter 3. Novel Approaches to Statistical Learning in Materials Science
1 Introduction
2 The Supervised Binary Classification Learning Problem
3 Incorporating Side Information
4 Conformal Prediction
5 Optimal Learning
6 Optimal Uncertainty Quantification
7 Clustering Including Statistical Physics Approaches
8 Materials Science Example: The Search for New Piezoelectrics
9 Conclusion
10 Further Reading
Acknowledgments
References
Chapter 4. Cluster Analysis: Finding Groups in Data
1 Introduction
2 Unsupervised Learning
3 Different Clustering Algorithms and their Implementations in R
4 Validations of Clustering Results
5 Rank Aggregation of Clustering Results
6 Further Reading
Acknowledgments
References
Chapter 5. Evolutionary Data-Driven Modeling
1 Preamble
2 The Concept of Pareto Tradeoff
3 Evolutionary Neural Net and Pareto Tradeoff
4 Selecting the Appropriate Model in EvoNN
5 Conventional Genetic Programming
6 Bi-Objective Genetic Programming
7 Analyzing the Variable Response in EvoNN and BioGP
8 An Application in the Materials Area
9 Further Reading
References
Chapter 6. Data Dimensionality Reduction in Materials Science
1 Introduction
2 Dimensionality Reduction: Basic Ideas and Taxonomy
3 Dimensionality Reduction Methods: Algorithms, Advantages, and Disadvantages
4 Dimensionality Estimators
5 Software
6 Analyzing Two Material Science Data Sets: Apatites and Organic Solar Cells
7 Further Reading
References
Chapter 7. Visualization in Materials Research: Rendering Strategies of Large Data Sets
1 Introduction
2 Graphical Tools for Data Visualization: Case Study for Combinatorial Experiments
3 Interactive Visualization: Querying Large Imaging Data Sets
4 Suggestions for Further Reading
Acknowledgments
References
Chapter 8. Ontologies and Databases – Knowledge Engineering for Materials Informatics
1 Introduction
2 Ontologies
3 Databases
4 Conclusions and Further Reading
References
Websites
Chapter 9. Experimental Design for Combinatorial Experiments
1 Introduction
2 Standard Design of Experiments (DOE) Methods
3 Mixture (Formulation) Designs
4 Compound Designs
5 Restricted Randomization, Split-Plot, and Related Designs
6 Evolutionary Designs
7 Designs for Determination of Kinetic Parameters
8 Other Methods
9 Gradient Spread Designs
10 Looking Forward
References
Chapter 10. Materials Selection for Engineering Design
1 Introduction
2 Systematic Selection
3 Material Indices
4 Using Charts to Explore Material Properties
5 Practical Materials Selection: Tradeoff Methods
6 Material Substitution
7 Vectors for Material Development
8 Conclusions and Suggested Further Reading
References
Chapter 11. Thermodynamic Databases and Phase Diagrams
1 Introduction
2 Thermodynamic Databases
3 Examples of Phase Diagrams
References
Chapter 12. Towards Rational Design of Sensing Materials from Combinatorial Experiments
1 Introduction
2 General Principles of Combinatorial Materials Screening
3 Opportunities for Sensing Materials
4 Designs of Combinatorial Libraries of Sensing Materials
5 Optimization of Sensing Materials Using Discrete Arrays
6 Optimization of Sensing Materials Using Gradient Arrays
7 Summary and Outlook
8 Further Reading
Acknowledgments
References
Chapter 13. High-Performance Computing for Accelerated Zeolitic Materials Modeling
1 Introduction
2 GPGPU-Based Genetic Algorithms
3 Standard Optimization Benchmarks
4 Fast Generation of Four-Connected 3D Nets for Modeling Zeolite Structures
5 Real Zeolite Problem
6 Further Reading
References
Chapter 14. Evolutionary Algorithms Applied to Electronic-Structure Informatics: Accelerated Materials Design Using Data Discovery vs. Data Searching
1 Introduction
2 Intuitive Approach to Correlations
3 Genetic Programming for Symbolic Regression
4 Constitutive Relations Via Genetic Programming
5 Further Reading
Acknowledgments
References
Chapter 15. Informatics for Crystallography: Designing Structure Maps
1 Introduction
2 Structure Map Design for Complex Inorganic Solids Via Principal Component Analysis
3 Structure Map Design for Intermetallics Via Recursive Partioning
4 Further Reading
References
Chapter 16. From Drug Discovery QSAR to Predictive Materials QSPR: The Evolution of Descriptors, Methods, and Models
1 Historical Perspective
2 The Science of Mqspr: Choice and Design of Material Property Descriptors
3 Mathematical Methods for QSPR/QSAR/MQSPR
4 Integration of Physical and MQSPR Models for Nanocomposite Materials Modeling
5 The Future of Materials Informatics Applications
References
Chapter 17. Organic Photovoltaics
1 Chemical Space, Energy Sources, and the Clean Energy Project
2 The Molecular Library
3 Merit Figures for Organic Photovoltaics
4 Descriptors for Organic Photovoltaics
5 Predictions from Cheminformatics
6 Conclusions
Acknowledgments
References
Chapter 18. Microstructure Informatics
1 Introduction
2 Microstructure Quantification Using Higher-Order Spatial Correlations
3 Objective Reduced-Order Representation of Microstructure
4 Data Science-Enabled Formulation of Structure–Property–Processing (SPP) Linkages
5 Computationally Efficient Scale-Bridging for Multiscale Materials Modeling
6 Further Reading
Acknowledgments
References
Chapter 19. Artworks and Cultural Heritage Materials: Using Multivariate Analysis to Answer Conservation Questions
1 Rock Art Petroglyphs Examined with Reflectance NIR Spectroscopy and PCA
2 Adhesives Study of Cypriot Pottery Collection with FTIR Spectroscopy and PCA
3 Egyptian Sarcophagus Examined with ToF-SIMS, XANES, and PCA
4 Attribution Studies of an Italian Renaissance Painting: ESEM Imaging
5 Ochre Pigments Imaged Using Synchrotron XRF
6 General Summary and Conclusions
References
Chapter 20. Data Intensive Imaging and Microscopy: A Multidimensional Data Challenge
1 Introduction
2 Chemical Imaging in Materials Science: Linking Signal and Spatial Domains
3 Contrast Mining in Spectroscopy: Tracking Processing–Property Relationships
4 Further Reading
References
Index
- No. of pages: 542
- Language: English
- Edition: 1
- Published: July 10, 2013
- Imprint: Butterworth-Heinemann
- Paperback ISBN: 9780128101216
- Hardback ISBN: 9780123943996
- eBook ISBN: 9780123946140
KR
Krishna Rajan
Krishna Rajan is the SUNY Distinguished Professor and Erich Bloch Chair of the Department of Materials Design and Innovation (MDI) at the University at Buffalo; with a joint appointment as Chief Scientist in the Energy Processes and Materials Division at Pacific Northwest National Laboratory (PNNL). He has pioneered the field of Materials Informatics and data driven discovery in materials science and engineering and its impact on characterization, processing, and modeling of materials. He has received numerous recognitions including the Alexander von Humboldt Award from Germany, the CSIRO- Australia Distinguished Visiting Scientist Award, the CNRS Visiting Professorship from France and the Presidential Lecture Award from the National Institute of Materials Science, Japan.
Dr Rajan received his undergraduate degree in Metallurgy and Materials Science from the University of Toronto followed by a doctorate in Materials Science from MIT with a minor in Science and Technology policy. He subsequently held post-doctoral appointments at MIT and Cambridge University. He was a staff scientist at the National Research Council of Canada, followed by faculty positions at Rensselaer Polytechnic Institute and Iowa State University before coming to the University at Buffalo as the founding chair of the MDI department. It is the first department that has its research and curriculum built around an informatics perspective of materials science and engineering.
Affiliations and expertise
SUNY Distinguished Professor & Erich Bloch Chair, Department of Materials Design and Innovation, University at Buffalo, Buffalo, NY, United States of AmericaRead Informatics for Materials Science and Engineering on ScienceDirect