Atoms in Space: Mastering VSEPR Theory
Unlocking the Secrets of Molecular Geometry
Included:
✓ 200+ Page AI-Generated Book
✓ ePub eBook File — read on Kindle & Apple Books
✓ PDF Print File (Easy Printing)
✓ Word DOCX File (Easy Editing)
✓ Hi-Res Print-Ready Book Cover (No Logo Watermark)
✓ Full Commercial Use Rights — keep 100% of royalties
✓ Publish under your own Author Name
✓ Sell on Amazon KDP, IngramSpark, Lulu, Blurb & Gumroad to millions of readers worldwide
$149.00
$299.00
Dive into the fascinating world of molecular structures with 'Atoms in Space: Mastering VSEPR Theory'. This comprehensive guide demystifies the Valence Shell Electron Pair Repulsion (VSEPR) theory and its powerful applications in predicting molecule shapes.
Structured in twelve informative chapters, each section of the book caters to different expertise levels, from beginners requiring clear explanations to experts seeking advanced theoretical understanding. Engaging diagrams and real-world examples provide a tactile learning experience, ensuring readers gain both conceptual grounding and practical know-how.
Whether you're a student, professional, or enthusiast, this book is designed to enrich your knowledge and refine your grasp of one of chemistry's core principles.
- The Birth of Atomic Theory
- Inside the Atom: Protons, Neutrons, and Electrons
- Quantum Mechanics and Electron Configurations
2. Introduction to VSEPR Theory
- Electrons in Valence Shells: Basics and Behaviors
- Understanding Electron Pair Repulsions
- Early Predictions of Molecular Structures
3. Applying VSEPR: Simple Molecules
- Linear and Angular Molecules: BeH2 and H2O Examples
- Trigonal Planar Structures: BF3 as a Model
- Tetrahedral Arrangements: Methane and Beyond
4. Complex Shapes and Multiple Bonds
- Beyond Basic Geometries: Trigonal Bipyramidal and Octahedral Examples
- Accounting for Multiple Bonds in VSEPR
- Resonance Structures: Stability and Predictions
5. Lone Pairs and Geometry
- How Lone Pairs Affect Molecular Shape
- Real-World Examples: The Shape of Water and Ammonia
- Lone Pairs in Complex Molecules
6. Advanced VSEPR: Exceptions and Anomalies
- When VSEPR Doesn't Fit: Understanding the Exceptions
- Exploring the Limits of VSEPR Theory
- Hybrid Orbitals and Molecular Geometries
7. Analytical Tools and Techniques
- Spectroscopy and Molecular Shapes
- Crystallography: Interpreting Diffraction Patterns
- Computational Chemistry in Predictive Modeling
8. The Periodic Table and VSEPR
- Periodic Trends and Electron Domain Theories
- Transition Metals and VSEPR: A Complex Relationship
- The Role of Electronegativity in Molecular Geometry
9. Chemical Bonding and Reactivity
- The VSEPR Approach to Chemical Bonds
- Predicting Reactivity Based on Molecular Shape
- The Influence of Molecular Geometry on Polarity
10. Introducing Molecular Symmetry
- Symmetry Operations and Molecular Geometries
- Point Groups and the VSEPR Model
- The Significance of Chirality and Symmetry in Molecules
11. Teaching VSEPR Theory
- Effective Strategies for Introducing VSEPR Concepts
- Illustrative Demonstrations and Experiments
- Assessment and Understanding Student Misconceptions
12. The Future of Molecular Geometry
- Innovations in Predicting Molecular Shapes
- Beyond VSEPR: The Next Generation of Models
- Interdisciplinary Applications of Molecular Geometry
Structured in twelve informative chapters, each section of the book caters to different expertise levels, from beginners requiring clear explanations to experts seeking advanced theoretical understanding. Engaging diagrams and real-world examples provide a tactile learning experience, ensuring readers gain both conceptual grounding and practical know-how.
Whether you're a student, professional, or enthusiast, this book is designed to enrich your knowledge and refine your grasp of one of chemistry's core principles.
Table of Contents
1. The Building Blocks of Chemistry- The Birth of Atomic Theory
- Inside the Atom: Protons, Neutrons, and Electrons
- Quantum Mechanics and Electron Configurations
2. Introduction to VSEPR Theory
- Electrons in Valence Shells: Basics and Behaviors
- Understanding Electron Pair Repulsions
- Early Predictions of Molecular Structures
3. Applying VSEPR: Simple Molecules
- Linear and Angular Molecules: BeH2 and H2O Examples
- Trigonal Planar Structures: BF3 as a Model
- Tetrahedral Arrangements: Methane and Beyond
4. Complex Shapes and Multiple Bonds
- Beyond Basic Geometries: Trigonal Bipyramidal and Octahedral Examples
- Accounting for Multiple Bonds in VSEPR
- Resonance Structures: Stability and Predictions
5. Lone Pairs and Geometry
- How Lone Pairs Affect Molecular Shape
- Real-World Examples: The Shape of Water and Ammonia
- Lone Pairs in Complex Molecules
6. Advanced VSEPR: Exceptions and Anomalies
- When VSEPR Doesn't Fit: Understanding the Exceptions
- Exploring the Limits of VSEPR Theory
- Hybrid Orbitals and Molecular Geometries
7. Analytical Tools and Techniques
- Spectroscopy and Molecular Shapes
- Crystallography: Interpreting Diffraction Patterns
- Computational Chemistry in Predictive Modeling
8. The Periodic Table and VSEPR
- Periodic Trends and Electron Domain Theories
- Transition Metals and VSEPR: A Complex Relationship
- The Role of Electronegativity in Molecular Geometry
9. Chemical Bonding and Reactivity
- The VSEPR Approach to Chemical Bonds
- Predicting Reactivity Based on Molecular Shape
- The Influence of Molecular Geometry on Polarity
10. Introducing Molecular Symmetry
- Symmetry Operations and Molecular Geometries
- Point Groups and the VSEPR Model
- The Significance of Chirality and Symmetry in Molecules
11. Teaching VSEPR Theory
- Effective Strategies for Introducing VSEPR Concepts
- Illustrative Demonstrations and Experiments
- Assessment and Understanding Student Misconceptions
12. The Future of Molecular Geometry
- Innovations in Predicting Molecular Shapes
- Beyond VSEPR: The Next Generation of Models
- Interdisciplinary Applications of Molecular Geometry