Skip navigation

W. W. Norton & Company : College Books

Chemistry: The Science in Context

Full Contents

Select chapters are available to download as PDF files (requires Adobe Acrobat). Please contact your local sales representative if you are having difficulty viewing these PDF files.

  • 1 Matter and Its Origins
  • 1.1 Classes and Properties of Matter
  • 1.2 Creation of Matter
    • The Scientific Method
    • The Big Bang
  • 1.3 Light waves
    • The Electromagnetic Spectrum
    • Wavelength, Frequency and Energy
    • Shifting Wavelengths and the Doppler Effect
  • 1.4 Measurements in Scientific Studies
    • SI Units
    • Significant Figures
    • Precision and Accuracy
  • 1.5 Matter and Energy
    • Radioactive Decay
    • Radioactive Decay Rates
    • The Formation of Nuclei
  • 1.6 Temperature Scales and a Cooling Universe
    • Then Came Atoms
    • Cold Microwaves
    • Continuum Radiation
  • 2 Nuclear Chemistry and the Origins of the Elements
  • 2.1 Hydrogen Fusion
  • 2.2 Nuclear Binding Energies
  • 2.3 Neutron Capture and Modes of Radioactive Decay
  • 2.4 Supernova: Radiochemistry of the Heaviest Elements
  • 2.5 Artificial Isotopes and Elements
  • 2.6 Measuring Radioactivity
  • 2.7 Biological Effects of Radiation
    • Ionizing Radiation and Living Matter
    • Radiation Dosage
    • Assessing the Risks of Radiation
    • Radiation Therapy
    • Box: The Chemistry of Radon, Radium, and Uranium
    • Medical Imaging with Radionuclides
  • 2.8 Radiochemical Dating
  • 2.9 The Composition of the Universe
  • 3 Electrons and Electromagnetic Radiation
  • 3.1 The Fraunhofer Lines
  • 3.2 Electrons in Atoms
  • 3.3 Particles of Light
  • 3.4 The Bohr Model of the Hydrogen Atom
  • 3.5 Matter Waves
  • 3.6 Schr–dinger’s Wave Equation
  • 3.7 Quantum Numbers
  • 3.8 Shapes and Sizes of Atomic Orbitals
  • 3.9 Spinning Electrons
  • 3.10 The Periodic Table and Filling in the Orbitals
  • Box: The Chemistry of the Noble Gases
  • 3.11 More Evidence for the Existence of Atomic Orbitals
    • Ionization Energies
    • X-ray Photoelectron Spectroscopy
  • 3.12 The Uncertainty Principle
  • 4 Stoichiometry and the Composition of the Earth
  • 4.1 The Composition of Earth
  • 4.2 The Composition of Compounds
  • 4.3 Naming Compounds
    • Binary Molecular Compounds
    • Naming Ionic Compounds
    • Binary Compounds of Transition Metals
    • Polyatomic Ions
  • 4.4 Chemical Reactions and the Mole
  • Box: The Chemistry of the Alkali Metals
  • 4.5 Completing and Balancing Chemical Equations
  • 4.6 Percent Composition and Empirical Formulas
  • 4.7 Stoichiomentric Calculations and the Carbon Cycle
  • 4.8 Limiting Reactants and Percent Yields
  • 5 Solution Chemistry and the Hydrosphere
  • 5.1 Earth: The Water Planet
  • 5.2 Solution Concentration and Molarity
  • 5.3 Electrolytes and Nonelectrolytes
  • 5.4 Colligative Properties of Solutions
    • Osmosis and Osmotic Pressure
    • Boiling-Point Elevation and Freezing-Point Depression
    • The van’t Hoff Factor
    • Measuring Molar Mass
  • 5.5 Introduction to Oxidation-Reduction Processes
    • Oxidation Numbers
    • Balancing Redox Reactions
  • 5.6 Acid-Base Reactions and Net Ionic Equations
  • Box: The Chemistry of the Alkaline Earth Metals
  • 5.7 Precipitation Reactions
  • 5.8 Ion Exchange
  • 5.9 Titrations
  • 5.10 Colloids
  • 6 Chemical Bonding and Atmospheric Molecules
  • 6.1 Introduction
  • 6.2 Electron Sharing
  • 6.3 Lewis Structures
  • 6.4 Unequal Sharing
  • 6.5 Electronegativity and Other Periodic Properties of the Elements
  • 6.6 More Lewis Structures
    • The Structure of Ozone
    • Resonance
    • Holes in the Ozone Layer
  • Box: The Chemistry of the Halogens
  • 6.7 Choosing Between Lewis Structures: Formal Charges
  • 6.8 Electron Diffraction, Bond Lengths, and Predictions Confirmed
  • 6.9 Molecular-Orbital Theory
    • The Molecular Orbitals of H2
    • Nitrogen and Oxygen
    • Ultraviolet and Visible Spectra and Auroras
  • 7 Molecular Shape and the Greenhouse Effect
  • 7.1 Bond Vibration and Climate Change
  • 7.2 Infrared Spectropscopy
  • 7.3 Exceptions to the Octet Rule
  • Box: The Chemistry of Oxygen and the Group 6A Elements
  • 7.4 The Molecular-Orbital Diagram of Nitric Oxide
  • 7.5 Electron-Spin Resonance: Locating Unpaired Electrons
  • 7.6 Molecular Shape: The VSEPR Model
    • Tetrahedra of Electrons
    • Triangles of Electrons
    • Linear Molecular Geometry
    • Shapes of Expanded-Octet Molecules
    • Summary
  • 7.7 Valence-Bond Theory
    • Hybrid Orbitals
    • Hybrid Orbitals for Beryllium and Boron
  • 7.8 Polar Bonds and Polar Molecules
  • 7.9 Molecular Vibration and Infrared Absorption
  • 8 Properties of Gases and the Air That We Breathe
  • 8.1 Introduction
  • 8.2 The Atmosphere: A Molecular View
    • Boyle’s Law
    • The Combined Gas Law
  • 8.3 The Ideal-Gas Law
  • 8.4 Gas Density
  • 8.5 Dalton’s Law and Mixtures of Gases
  • 8.6 Henry’s Law and the Solubility of Gases
  • Box: The Chemistry of the Group 5A Elements
  • 8.7 The Kinetic Molecular Theory of Gases and Graham’s Law
  • 8.8 Real Gases
  • 9 Intermolecular Forces and Liquids: Water, Nature’s Universal Solvent
  • 9.1 Sea Spray and the States of Matter
  • 9.2 Ion-Ion Interactions and Lattice Energy
  • 9.3 Interactions of Polar Molecules
  • 9.4 Dispersion Forces
  • 9.5 Polarity and Solubility
  • 9.6 Vapor Pressure
    • Vapor Pressure of Solutions: a Molecular View
    • Vapor Pressure and Solute Concentration
    • Vapor Pressure and Temperature
  • 9.7 Phase Diagrams: Intermolecular Forces at Work
  • 9.8 The Remarkable Behavior of Water
  • 10 The Solid State: A Molecular View of Gems and Minerals
  • 10.1 Crystal Lattices
    • Crystalline versus Amorphous
    • X-Ray Diffraction
  • 10.2 The Unit Cell
  • 10.3 Packing Efficiency
    • Cubic Closest Packing
    • Simple Cubic Packing
    • Hexagonal Closest Packing
  • 10.4 Network Solids: The Many Forms of Silica
    • Orthosilicates
    • Metasilicates
  • 10.5 Allotropes of Carbon and Sulfur
  • 10.6 Metallic Bonds and Structures
  • Box: The Chemistry of the Group 4A Elements
  • 10.7 Gemstones: An Introduction to Crystal Field Theory
    • Crystal Field Splitting Energy
    • Magnetic Properties
  • 11 Thermochemistry and The Quest for Energy
  • 11.1 An Historical Perspective
  • 11.2 Energy: Some Definitions
  • 11.3 Natural Gas
  • 11.4 Combustion and Energy Transfer
  • 11.5 Enthalpy (H) and Enthalpy Changes (ΔH)
  • 11.6 Heating Curves and Heat Capacity
    • Hot Soup on a Winter Hike
    • Cold Drinks on a Hot Day
  • 11.7 Estimating ΔH from Bond Energies
  • 11.8 Calorimetry: Measuring Heats of Combustion
  • 11.9 Enthalpies of Formation and Reaction
  • 11.10 Fuel Values
  • 11.11 Hess’s Law
  • 12 Energy and Organic Chemistry
  • 12.1 Petroleum Refining: Fractional Distillation and Raoult’s Law
  • 12.2 Alkanes in Gasoline and Structural Isomerism
    • Cycloalkanes
    • Structural Isomerism and Octane Ratings
    • Rules for Naming Alkanes
  • 12.3 Aromatic Hydrocarbons
  • 12.4 Alcohols, Ethers, and Reformulated Gasoline
  • 12.5 Carbohydrates
    • Molecular Strcutures of Glucose and Other Sugars
    • Condensation Reactions
    • Starch and Cellulose
  • 12.6 More Fuels from Biomass
    • Carboxylic Acids
    • Amines
  • 12.7 Coal
  • 12.8 Hydrogen As Fuel
  • 12.9 Combustion Analysis and Elemental Composition
  • 12.10 Alkanes and Alkynes
  • 13 Entropy and Free Energy and Fueling the Human Engine
  • 13.1 Enthalpies of Solution
  • 13.2 Entropy and Why Endothermic Processes Take Place
  • 13.3 Entropy Calculations
  • 13.4 Free Energy
    • Connecting ΔH and ΔS
    • The Meaning of Free Energy
  • 13.5 Fueling the Human Engine
    • Carbohydrates Revisited
    • Amino Acids and Proteins
    • Stereoisomerism
    • The Chemistry of Group 5B
    • Lipids
  • 13.6 The Energy Values of Carbohydrates, Fats, and Proteins
  • 13.7 Driving the Human Engine
  • The Chemistry of Group 7B
  • 13.8 DNA and Making Proteins
  • 14 Chemical Kinetics and Air Pollution
  • 14.1 Photochemical Smog
  • 14.2 Reaction Rates
    • Average Reaction Rates and the Formation of NO
    • Instantaneous Reaction Rates and the Formation of NO2
  • 14.3 Effect of Concentration on Reaction Rate
    • Reaction Order and Initial Rates
    • The Single-Experiment Approach
    • Second-Order Reactions
  • 14.4 Reaction Mechanisms
  • Box: The Chemistry of the Group 8B Metals
  • 14.5 Reaction Rates, Temperature, and the Arrhenius Equation
  • 14.6 Catalysis
  • 15 Chemical Equilibrium and Why Smog Persists
  • 15.1 Achieving Equilibrium
  • 15.2 Equilibrium Constants and Reaction Quotients
    • Reactions in Reverse
    • K and Q for Combined Equations
    • Multiplying a Chemical Equation by a Constant
  • 15.3 Equilibrium in the Gas Phase and Kp
  • 15.4 K, Q, and ΔG
  • 15.5 Le Ch’telier’s Principle
  • Box: The Chemistry of Ammonia
  • 15.6 The Role of Catalysts
  • 15.7 Calculations Based on K
  • 15.8 Changing K with Changing Temperature
  • 15.9 Heterogeneous Equilibria
  • 16 Equilibrium in the Aqueous Phase and Acid Rain
  • 16.1 Acid Rain and Acid Strength
    • Weak and Strong Acids
    • Diprotic Acids
  • 16.2 Acids and Bases: A Molecular View
    • Acids in Water
    • Bases in Water
    • Lewis Acids and Bases
    • Conjugate Pairs
  • 16.3 Acid Strength and Molecular Structure
  • Box: The Chemistry of Two Strong Acids: Sulfuric and Nitric Acids
  • 16.4 The Concept of pH
    • The pH Scale
    • The pH of "Natural" and Acid Rain
    • pOH
  • 16.5 The pH of Solutions of Acidic and Basic Salts
  • 16.6 Buffer Solution and the pH of Natural Waters
  • 16.7 Acid-Base Indicators
  • 16.8 Acid-Base Titrations
  • 16.9 Solubilities of Minerals and Other Compounds
  • 16.10 Complex Ions
    • Complexation and Solubility
    • Metal Complexes in Biomolecules
  • 17 Electrochemistry and Electrical Energy
  • 17.1 Voltaic Cells
  • 17.2 Voltage and Free Energy
  • 17.3 The Chemistries of Some Common Batteries
    • Dry Cells
    • Alkaline Batteries
    • Nickel-Cadmium Batteries
  • 17.4 Standard Potentials and Batteries for Laptops
    • Cell Potentials
    • A Reference Point: The Standard Hydrogen Electrode
    • Nickel-Metal Hydride Batteries
    • Lithium-Ion Batteries
  • 17.5 The Effect of Concentration on Potential
  • Box: The Chemistry of the Group 2B Elements
  • 17.6 Quantities of Reactants and Battery Power
  • 17.7 Electrolytic Cells and Recharging Batteries
  • 17.8 "Low Emission" Vehicles and More Voltaic Devices
    • Hybrid Vehicles
    • Fuel Cells
    • Photochemical Cells
    • Biochemical Fuel Cells
  • 18 Materials Chemistry: Past, Present, and Future
  • 18.1 Metals
    • The Age of Copper
    • Box: The Chemistry of the Group 1B Elements
    • The Bronze Age
    • The Iron Revolution
    • Aluminum Alloys: Lightweight and High-Performance
    • Box: The Chemistry of the Group 3A Elements: Boron, Aluminum, Gallium, Indium, and Thallium
    • Box: The Chemistry of the Group 4B Metals: Ti, Zr, and Hf
  • 18.2 Ceramics
    • Made of Clay
    • Making Ceramics
    • Superconducting Ceramics
    • Box: The Chemistry of the Group 3B and the Lanthanides
  • 18.3 Semiconductors
  • 18.4 Fibers for Clothing and Other Uses
    • Natural Fibers
    • Synthetic Polymers from Condensation Reactions
    • Synthetic Polymers from Addition Reactions
  • 18.5 The Scientific Method Revisited