This module discusses diffusion, specifically Fick's First Law and its application to steady-state diffusion. Students will learn about the principles governing diffusion processes and their significance in materials science and engineering.
This module introduces the fundamental concepts of solid state chemistry. It sets the stage for understanding the relationship between structure, properties, and performance of materials used in engineering applications.
This module focuses on classification schemes for the elements, providing a framework to understand the periodic behavior and properties of elements. By studying these classifications, students will gain insight into how elemental properties influence chemical reactivity and material selection.
This module covers the Rutherford and Bohr models of the atom, explaining the historical development of atomic theory. Students will learn about the structure of the atom, electron configurations, and the implications these models have for understanding chemical bonding and reactions.
This module discusses atomic spectra of hydrogen and the interactions between matter and energy involving atomic hydrogen. Students will learn about the quantization of energy levels, photon emission, and absorption processes, which are foundational concepts in understanding spectroscopy.
This module introduces the Shell Model and discusses the organization of electrons in multi-electron atoms. It provides insights into how electron configurations affect chemical properties and reactivity, essential for understanding bonding in various materials.
This module covers the principles of wave-particle duality, focusing on De Broglie, Heisenberg, and Schrödinger's contributions. Topics include the behavior of particles at the quantum level and the implications for atomic structure and chemical bonding.
This module explores octet stability through electron transfer, emphasizing ionic bonding. It illustrates how atoms achieve stable electron configurations and the energy changes involved in ionic bond formation, crucial for understanding material properties.
This module discusses covalent bonding, including Lewis structures and hybridization. Students will learn how covalent bonds form, the significance of electron sharing, and how hybridization affects molecular geometry and reactivity.
This module introduces electronegativity, partial charge, polar bonds, and polar molecules. It explains how differences in electronegativity lead to bond polarity and influences on molecular behavior, essential for understanding solubility and reactivity.
This module focuses on hybridization, exploring double and triple bonds along with concepts of paramagnetism and diamagnetism. Students will learn how these factors influence molecular structure and behavior, providing a deeper understanding of chemical reactivity.
This module discusses the shapes of molecules, introducing electron domain theory and secondary bonding. Students will learn how molecular geometry affects physical and chemical properties, essential for predicting molecular behavior in various contexts.
This module explores metallic bonding and the band theory of solids, explaining how these concepts influence electrical and thermal properties of materials. Students will learn about band gaps and their implications for semiconductor behavior.
This module introduces intrinsic and extrinsic semiconductors, discussing doping and compound semiconductors. Students will learn how these processes affect electrical conductivity and the properties of materials used in electronic devices.
This module provides an introduction to the solid state, covering the 7 crystal systems and the 14 Bravais lattices. Students will understand the significance of these structures in determining material properties and behaviors.
This module explores the properties of cubic crystals, focusing on their symmetry, lattice structures, and the implications for physical properties such as conductivity, hardness, and melting points.
This module discusses the characterization of atomic structure through the generation of X-rays and Moseley's Law. Students will learn about the techniques used to analyze atomic structure and the significance of X-ray spectroscopy in material science.
This module focuses on X-ray spectra and Bragg's Law, explaining how X-ray diffraction is utilized to determine crystal structures. Students will learn about the principles of diffraction and its applications in analyzing material properties.
This module discusses X-ray diffraction of crystals, exploring the techniques used to obtain diffraction patterns and how they are analyzed to reveal information about crystal structures and properties.
This module examines defects in crystals, including point defects, line defects, interfacial defects, and voids. Students will learn how these defects impact material properties and performance, which is crucial for application in various fields.
This module introduces amorphous solids, focusing on glass formation and inorganic glasses. Students will learn about the structural differences between crystalline and amorphous materials and the implications for their physical properties.
This module discusses engineered glasses, including network formers, network modifiers, and intermediates. Students will learn how these components influence the properties and applications of engineered glasses in technology and industry.
This module focuses on chemical kinetics, introducing the rate equation, order of reaction, and rate laws. Students will learn how these concepts are essential for understanding reaction mechanisms and dynamics in chemical processes.
This module discusses diffusion, specifically Fick's First Law and its application to steady-state diffusion. Students will learn about the principles governing diffusion processes and their significance in materials science and engineering.
This module covers Fick's Second Law and transient-state diffusion, explaining the time-dependent behavior of diffusion processes. Students will learn how to apply these principles to analyze various phenomena in materials science.
This module introduces solutions, covering key concepts such as solute, solvent, solution, solubility rules, and solubility product. Students will learn about the factors affecting solubility and the importance of solutions in chemical reactions.
This module discusses acids and bases, introducing Arrhenius, Bronsted-Lowry, and Lewis definitions. Students will understand acid strength, pH, and the role of acids and bases in various chemical processes.
This module introduces organic chemistry, covering basic concepts essential for understanding organic compounds and their reactivity. Students will learn about functional groups, isomerism, and the significance of organic chemistry in materials science.
This module focuses on organic glasses (polymers), covering their synthesis through addition and condensation polymerization. Students will learn about the structural characteristics and applications of polymers in various fields.
This module discusses structure-property relationships in polymers and crystalline polymers. Students will learn how structural features influence physical properties and performance, crucial for selecting materials for specific applications.
This module introduces biochemistry, focusing on amino acids, peptides, and proteins. Students will explore the structure and function of biomolecules, essential for understanding biological systems and their chemical processes.
This module discusses phase diagrams, providing insights into the states of matter and phase transitions. Students will learn how to interpret phase diagrams and their significance in materials science and engineering applications.
This module focuses on two-component phase diagrams and limited solid solubility. Students will learn how to analyze phase diagrams, understanding the implications for material properties and behavior in mixed phases.