Chemical Principles by Peter Atkins; Loretta Jones; Leroy Laverman - Seventh Edition, 2016 from Macmillan Student Store

Chemical Principles

Seventh  Edition©2016 Peter Atkins; Loretta Jones; Leroy Laverman

About

Written for calculus-inclusive general chemistry courses, Chemical Principles helps students develop chemical insight by showing the connections between fundamental chemical ideas and their applications. Unlike other texts, it begins with a detailed picture of the atom then builds toward chemistry’s frontier, continually demonstrating how to solve problems, think about nature and matter, and visualize chemical concepts as working chemists do. It also offers an exceptional level of support to help students develop their mathematical and problem-solving skills.

For the new edition, Chemical Principles now takes a modular approach, with coverage organized as a series of brief Topics within 11 major areas of focus, including a refresher on the fundamentals of chemistry and an online-only section on techniques.

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Table of Contents

Fundamentals
Introduction and orientation
A Matter and energy
B Elements and atoms
C Compounds
D Nomenclature
E Moles and molar masses
F The determination of composition
G Mixtures and solutions
H Chemical equations
I Precipitation Reactions
J Acids and bases
K Redox reactions
L Reaction stoichiometry
M Limiting reactants


Focus 1: Atoms

1A Investigating atoms

1B Quantum theory

1C Wavefunctions and energy levels

1D The hydrogen atom

1E Many-electron atoms

1F Periodicity

 

Focus 2: Molecules

2A Ionic bonding

2B Covalent bonding

2C Beyond the octet rule

2D The properties of bonds

2E The VSEPR Model

2F Valence-Bond theory

2G Molecular Orbital theory

 

Focus 3: Bulk matter

3A The nature of gases

3B The gas laws

3C Gases in mixtures and reactions

3D Molecular motion

3E Real gases

3F Intermolecular forces

3G Liquids

3H Solids

3I Inorganic materials

3J Materials for new technologies

Interlude Ceramics and Glasses

 

Focus 4: Thermodynamics

4A Work and heat

4B Internal energy

4C Enthalpy

4D Thermochemistry

4E Contributions to enthalpy

4F Entropy

4G The molecular enterpretation of entropy

4H Absolute entropies

4I Global changes in entropy

4J Gibbs free energy

Interlude Free Energy and Life

 

Focus 5: Equilibrium

5A Vapor pressure

5B Phase diagrams of one-component systems

5C Phase equilibria in two-component systems

5D Solubility

5E Molality

5F Colligative properties

5G Chemical equilibrium

5H Alternative forms of the equilibrium constant

5I Equilibrium calculations

5J The response of equilibria to changes in conditions

Interlude Homeostasis

 

Focus 6: Reactions

6A The nature of acids and bases

6B The pH scale

6C Weak acids and bases

6D The pH of aqueous solutions

6E Polyprotic acids and bases

6F Autoprotolysis and pH

6G Buffers

6H Acid-base titrations

6I Solubility equilibria

6J Precipitation

6K Representing redox reactions

6L Galvanic cells

6M Standard potentials

6N Applications of standard potentials

6O Electrolysis

Interlude Practical cells

 

Focus 7: Kinetics

7A Reaction rates

7B Integrated rate laws

7C Reaction mechanisms

7D Models of reactions

7E Catalysis

 

Focus 8: Main-group elements

8A Periodic trends

8B Hydrogen

8C Group 1: The alkali metals

8D Group 2: The alkaline earth metals

8E Group 13: The boron family

8F Group 14: The carbon family

8G Group 15: The nitrogen family

8H Group 16: The oxygen family

8I Group 17: The halogens

8J Group 18: The noble gases

 

Focus 9: The d-block

9A Periodic trends of the d-block elements

9B Selected d-block elements: A survey

9C Coordination compounds

9D The electronic structure of d-metal complexes

 

Focus 10: Nuclear Chemistry

10A Nuclear decay

10B Radioactivity

10C Nuclear energy

 

Focus 11: Organic Chemistry

11A Structures of aliphatic hydrocarbons

11B Reactions of aliphatic hydrocarbons

11C Aromatic compounds

11D Common functional groups

11E Polymers and biological macromolecules

Interlude Impact on Technology: Fuels

 

Major Techniques (Online Only)

1 Infrared and microwave spectroscopy

2 Ultraviolet and visible spectroscopy

3 X-ray diffraction

4 Chromatography

5 Mass spectrometry

6 Nuclear magnetic resonance

7 Computation

Peter Atkins

Peter Atkins is a fellow of Lincoln College in the University of Oxford and the author of about 70 books for students and a general audience. His texts are market leaders around the globe. A frequent lecturer in the United States and throughout the world, he has held visiting professor­ships in France, Israel, Japan, China, and New Zealand. He was the founding chairman of the Committee on Chemistry Education of the International Union of Pure and Applied Chemistry and was a member of IUPAC’s Physical and Biophysical Chemistry Division.

Loretta Jones

Loretta L. Jones is Emeritus Professor of Chemistry at the University of Northern Colorado. She taught general chemistry there for 16 years and at the University of Illinois at Urbana-Champaign for 13 years. She earned a BS in honors chemistry from Loyola University, an MS in organic chemistry from the University of Chicago, and a Ph.D. in physical chemistry as well as a D.A. in chemical education from the University of Illinois at Chicago. Her physical chemistry research used electron paramagnetic resonance to investigate motion in liquids. Her chemical education research focuses on helping students to understand the molecular basis of chemistry through visualization. In 2001, she chaired the Gordon Research Conference on Visualization in Science and Education. In 2006 she chaired the Chemical Education Division of the American Chemical Society (ACS). She is a Fellow of the American Association for the Advancement of Science and the coauthor of award-winning multimedia courseware. In 2012 she received the ACS Award for Achievement in Research in the Teaching and Learning of Chemistry

Leroy Laverman

Leroy E. Laverman is a senior lecturer in the Department of Chemistry and Biochemistry at the University of California, Santa Barbara. He earned a B.S. in Chemistry from Washington State University and received his Ph.D. from U.C. Santa Barbara where he worked on ligand exchange reaction mechanisms in metalloporphyrins. He has been teaching chemistry at UCSB since 2000 and continues to instruct students in general chemistry and honors level courses.