Developments in Porous, Biological and Geopolymer Ceramics, Volume 28, Issue 9
, by Brito, Manuel E.; Case, Eldon; Kriven, Waltraud M.; Salem, Jonathan; Zhu, Dongming- ISBN: 9780470196403 | 0470196408
- Cover: Hardcover
- Copyright: 11/9/2007
Jonathan Salem is a Materials Research Engineer at NASA Glenn Research Center inCleveland,OH. He received a BS in Materials Science and Metallurgical Engineering from the University of Cincinnati in 1983 and worked at NASA-Lewis as a Materials Research Engineer for two years performing heat treatment and fracture studies of titanium and steel alloys. In 1987 he received an MS in Materials Science from the University of Washington,Seattle and served at NASA–Glenn as Project Leader of the Toughened Ceramics Life Prediction Program on development of mechanical testing methods and standards for ceramic materials. In 1999 he received a PhD in Mechanical engineering from the University ofWashington. Presently, he is involved with the room and elevated temperature mechanical testing and reliability modeling of ceramic, intermetallic and composite materials for the Life Prediction, where briefly served as a temporary Deputy Branch Chief. Prior to working at NASA, he worked in Quality Assurance at Powell Valve, Cincinnati, OH, and at Forest City Foundries, Cleveland, OH. He authored or co-authored over 60 archival publications, over 70 proceedings publications, and four national and international standards on mechanics of ceramics. He is a fellow of American Society for Testing and Materials and received a NASA Manned Spaced Flight Awareness Award for work on ceramic bearings for the Space Shuttle Main Engine Turbo-pump. In 2004, he received the Richard M. Fulrath Award from the American Ceramic Society for development of technical standards for design of structural ceramics.
Dongming Zhu is a senior Materials Research Engineer at Army Research Laboratory, Vehicle Technology Directorate, and Durability and Protective Coatings Branch of Structures and Materials Division, at NASA Glenn Research Center. His expertise covers the areas of thermal conductivity, lattice defects and transport, high temperature oxidation, high-heat-flux testing, and mechanical behavior of ceramic coating systems, with an emphasis on experimental investigation and analytical modeling of processing, thermal fatigue and fracture behavior of advanced protective coatings and composites. His major contributions include the development of low conductivity thermal barrier coatings for turbine airfoil applications, 1650°C thermal/environmental barrier coatings for SiC/SiC ceramic matrix composite (CMC) turbine vane and combustor liner applications. He has authored more than 100 archival publications and three patents. He is a member of the American Ceramic Society and ASM, International, has been a lead organizer for several International Symposia. He is currently the Chair-elect of the Engineering Ceramic Division of the American Ceramic Society, and an associate editor of the International Journal of Applied Ceramic Technology. He has received several awards from NASA and professional societies. He received his Ph.D. degree in Chemical Engineering and Materials Science from theUniversity ofMinnesota in 1996.
Waltraud M. Kriven is Professor of Materials Science and Engineering at the University of Illinois at Urbana-Champaign. Professor Kriven received her Ph.D. in 1976 in Solid State Chemistry from the University of Adelaide in South Australia and her B.Sc. (Honors) and Baccalaureate degrees in Physical Chemistry, Inorganic Chemistry, and Biochemistry from the same institute. She is an internationally recognized expert in the areas of phase transformations in inorganic compounds and their applications in structural ceramic composites. She has authored or co-authored over 240 research publications, and fourteen books to date.
Preface | p. ix |
Introduction | p. xi |
Porous Ceramics | |
Hierarchical Porosity Ceramic Components from Preceramic Polymers | p. 3 |
Electrophoretic Deposition of Particle-Stabilized Emulsions | p. 13 |
Application of Porous Acicular Mullite for Filtration of Diesel Nano Particulates | p. 27 |
Microstructural Development of Porous [superscript beta]-Si[superscript 3]N[subscript 4] Ceramics Prepared by Pressureless-Sintering Compositions in the Si-Re-0-N Quaternary Systems (Re=La, Nd, Sm, Y, Yb) | p. 41 |
Compositional Design of Porous [beta]-Sig[superscript 3]N[subscript 4] Prepared by Pressureless-Sintering Compositions in the Si-Y-Mg-(Ca)-O-N System | p. 49 |
Aligned Pore Channels in 8mol%Yttria Stabilized Zirconia by Freeze Casting | p. 57 |
Preparation of a Pore Self-Forming Macro-/Mesoporous Gehlenite Ceramic by the Organic Steric Entrapment (PVA) Technique | p. 67 |
Nonlinear Stress-Strain Behavior Evaluation of Porous Ceramics with Distributed-Micro-Crack Model | p. 77 |
Thermal Shock Behavior of NITE-Porous SiC Ceramics | p. 89 |
Optimization of the Geometry of Porous SiC Ceramic Filtering Modules Using Numerical Methods | p. 95 |
Weibull Statistics and Scaling Laws for Reticulated Ceramic Foam Filters | p. 105 |
Effect of Test Span on Flexural Strength Testing of Cordierite Honeycomb Ceramic | p. 113 |
Bioceramics | |
Biomaterials Made with the Aid of Enzymes | p. 127 |
Use of Vaterite and Calcite in Forming Calcium Phosphate Cement Scaffolds | p. 135 |
Deposition of Bone-Like Apatite on Polyglutamic Acid Gels in Biomimetic Solution | p. 151 |
Surface Structure and Apatite-Forming Ability of Polyethylene Substrates Irradiated by the Simultaneous Use of Oxygen Cluster and Monomer Ion Beams | p. 159 |
Conversion of Borate Glass to Biocompatible Phosphates in Aqueous Phosphate Solution | p. 171 |
Fabrication of Nano-Macro Porous Soda-Lime Phosphosilicate Bioactive Glass by the Melt-Quench Method | p. 183 |
Pores Needed for Biological Function Could Paradoxically Boost Fracture Energy in Bioceramic Bone Tissue Scaffolds | p. 197 |
Novel Routes to Stable Bio-Templated Oxide Replicas | p. 209 |
Geopolymers | |
Role of Alkali in Formation of Structure and Properties of a Ceramic Matrix | p. 221 |
Will Geopolymers Stand the Test of Time? | p. 235 |
New Trends in the Chemistry of Inorganic Polymers for Advanced Applications | p. 249 |
Influence of Geopolymer Binder Composition on Conversion Reactions at Thermal Treatment | p. 257 |
Laser Scanning Confocal Microscopic Analysis of Metakaolin-Based Geopolymers | p. 273 |
Synthesis and Characterization of Inorganic Polymer Cement from Metakaolin and Slag | p. 283 |
Recent Development of Geopolymer Technique in Relevance to Carbon Dioxide and Waste Management Issues | p. 293 |
Aqueous Leachability of Geopolymers Containing Hazardous Species | p. 309 |
Practical Applications of Geopolymers | p. 321 |
Geopolymer-Jute Composite: A Novel Environmentally Friendly Composite with Fire Resistant Properties | p. 337 |
Design, Properties, and Applications of Low-Calcium Fly Ash-Based Geopolymer Concrete | p. 347 |
Rate of Sulphuric Acid Penetration in a Geopolymer Concrete | p. 363 |
Corrosion Protection Assessment of Concrete Reinforcing Bars with a Geopolymer Coating | p. 373 |
Author Index | p. 383 |
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