Nucleation And Growth In Applied Materials

Nucleation and Growth in Applied Materials covers fundamental aspects of thermodynamics and kinetics, nucleation and growth phenomena occurring during materials processing and synthesis in engineering of materials. Theoretical and practical approaches used to identify and quantify nucleation are analyzed. These approaches can be used to explain the relationship of the physical properties of the material with nucleation and growth processes. Sections cover modern methods such as SEM, TEM, EBSD microtexture, X-ray macrotexture and modeling and simulation (Monte Carlo, Molecular dynamic simulation, machine learning, etc.). Based on these observations, their applications in engineering materials and processes are discussed. Moreover, methodology (experimental and modeling) of nucleation and growth of metals and other materials from aqueous and nonaqueous solvents using electrochemical means are reviewed. Although nucleation and growth are well-studied processes in materials, the quantification of the number of nuclei during these processes are complicated. A key aim of the book is to systematize information and share knowledge about the nucleation and growth phenomena occurring in different engineering processes related to materials science and engineering. Provides the key principles and definitions to understanding nucleation and growth processes in materials and the relationship between these processes and bulk material properties Describes criteria for nucleation in different materials and methods for quantification, materials characterization and modeling Discusses materials design strategies to apply understanding of materials chemical composition and structure to the improvement of material properties and creation of new materials

Volume is indexed by Thomson Reuters CPCI-S (WoS). The present volumes contain selected papers providing worldwide state-of-the art knowledge in the fields of thin film and nano materials, composites, coatings, high-temperature alloys, rare-earth materials, energy materials, biological materials, materials strength, design and simulation, and materials processing. This wealth of up-to-date comprehensive information will be of value to anyone working in these domains.

In Nucleation in Condensed Matter, key theoretical models for nucleation are developed and experimental data are used to discuss their range of validity. A central aim of this book is to enable the reader, when faced with a phenomenon in which nucleation appears to play a role, to determine whether nucleation is indeed important and to develop a quantitative and predictive description of the nucleation behavior. The third section of the book examines nucleation processes in practical situations, ranging from solid state precipitation to nucleation in biological systems to nucleation in food and drink. Nucleation in Condensed Matter is a key reference for an advanced materials course in phase transformations. It is also an essential reference for researchers in the field. Unified treatment of key theories, experimental evaluations and case studies Complete derivation of key models Detailed discussion of experimental measurements Examples of nucleation in diverse systems

Titanium dioxide (TiO2) has received a lot of attention due to its inexpensive cost, benign nature, and great photocatalytic potential. TiO2 has numerous applications, including in photocatalysts, Li-ion batteries, solar cells, and medical research. However, its performance is unsatisfactory due to a variety of issues, including a wide band gap (3.01 to 3.2 eV) and quick electron–hole pair recombination (1012 to 1011 s). Many efforts have been made to improve the qualities of TiO2, such as structural and dopant changes, which expand its applications. This book focuses on the properties of TiO2-modified nanoparticles, including their synthesis, alterations, and applications.

Collection of selected, peer reviewed papers from the 9th International Forum on Advanced Material Science and Technology (IFAMST9), November 30 - December 3, 2014, Xiamen, China. The 45 papers are grouped as follows: Chapter 1: Steels and Alloys; Chapter 2: Applied Chemical Materials and Technologies; Chapter 3: Functional Materials; Chapter 4: Technologies in Area of Silicon Production and Fuel Cells; Chapter 5: Mechanical Properties of Materials; Chapter 6: Surfaces, Coatings and Heat Treatment; Chapter 7: Recycling of Waste; Chapter 8: Technical Provision of Researches and Technological Processes

The present volume contains 293 selected and peer-reviewed papers, carefully chosen from among the more than 500 papers presented, by worldwide specialists from industry and academia, at the 12th International Manufacturing Conference in China; organized by the Northwestern Polytechnic University. Volume is indexed by Thomson Reuters CPCI-S (WoS).

Multifunctional Inorganic Nanomaterials for Energy Applications provides deep insight into the role of multifunctional nanomaterials in the field of energy and power generation applications. It mainly focuses on the synthesis, fabrication, design, development, and optimization of novel functional inorganic nanomaterials for energy storage and saving devices. It also covers studies of inorganic electrode materials for supercapacitors, membranes for batteries and fuel cells, and materials for display systems and energy generation. Features: Explores computational and experimental methods of preparing inorganic nanomaterials and their multifunctional applications Includes synthesis and performance analysis of various functional nanomaterials for energy storage and saving applications Reviews current research directions and latest developments in the field of energy materials Discusses importance of computational techniques in designing novel nanomaterials Highlights importance of multifunctional applications of nanomaterials in the energy sector This book is aimed at graduate students and researchers in materials science, electrical engineering, and nanomaterials.