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Connect foundational materials chemistry with advanced device applications and technologies
Students in materials science and chemistry need resources that integrate theoretical foundations with current technological applications. Integrated Materials Science: Physics, Chemistry, and Device Applications delivers this integration through an interdisciplinary approach spanning chemistry, physics, and engineering. Written by a team of experienced researchers, this textbook builds from core concepts to advanced topics systematically.
Integrated Materials Science covers crystal symmetry, material defects, and conduction mechanisms alongside emerging topics including nanomaterials, organic conductors, thin film technologies, and dendrimers. Each chapter connects theoretical principles to applications in energy storage, electronics, photonics, and biomedicine. Problem sets with solutions and case studies support student engagement and practical understanding throughout the comprehensive content.
The book also features:
Ideal for upper undergraduate and early graduate students in materials science, chemistry, physics, and engineering, this textbook serves as both a core text for materials chemistry courses and a supplementary resource for nanomaterials and applied physics curricula seeking interdisciplinary depth.
Connect foundational materials chemistry with advanced device applications and technologies
Students in materials science and chemistry need resources that integrate theoretical foundations with current technological applications. Integrated Materials Science: Physics, Chemistry, and Device Applications delivers this integration through an interdisciplinary approach spanning chemistry, physics, and engineering. Written by a team of experienced researchers, this textbook builds from core concepts to advanced topics systematically.
Integrated Materials Science covers crystal symmetry, material defects, and conduction mechanisms alongside emerging topics including nanomaterials, organic conductors, thin film technologies, and dendrimers. Each chapter connects theoretical principles to applications in energy storage, electronics, photonics, and biomedicine. Problem sets with solutions and case studies support student engagement and practical understanding throughout the comprehensive content.
The book also features:
Ideal for upper undergraduate and early graduate students in materials science, chemistry, physics, and engineering, this textbook serves as both a core text for materials chemistry courses and a supplementary resource for nanomaterials and applied physics curricula seeking interdisciplinary depth.
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