ISE Chemistry

Höfundur: Julia Burdge (Útgáfa: 6)
ISE Chemistry

Kaup valmöguleikar

Pulling from her experience of teaching general chemistry for many years, the author of the sixth edition of Chemistry offers a text that offers more in-depth explanation in areas where she knows students often encounter misunderstandings. The text is strengthened by its offering in ALEKS, featuring: • ALEKS Topics to assign as pre-requisite assignments to boost student confidence and help those lacking math skills.

Nánar um bókina

Útgefandi
McGraw-Hill Higher Education (International)
ISBN
9781265647575
Print ISBN
9781265122447
Format
ePub
Útgáfa
6
Höfundar
Julia Burdge
Tungumál
English
Útgefið
2022-01-03
Prent takmörkun á líftíma
100
Prent takmörkun
2
Afritunar takmörkun
2

Kaflar

  • Cover
  • Title Page
  • Copyright
  • Dedication
  • About the Author
  • Brief Contents
  • Contents
  • Preface
  • Acknowledgments
  • 1 Chemistry: The Central Science
  • 1.1 The Study of Chemistry
  • • Chemistry You May Already Know
  • ■ How Can I Enhance My Chances of Success in Chemistry Class?
  • • The Scientific Method
  • 1.2 Classification of Matter
  • • States of Matter
  • • Elements
  • • Compounds
  • • Mixtures
  • 1.3 Scientific Measurement
  • • SI Base Units
  • • Mass
  • • Temperature
  • ■ Fahrenheit Temperature Scale
  • • Derived Units: Volume and Density
  • ■ Why Are Units So Important?
  • 1.4 The Properties of Matter
  • • Physical Properties
  • • Chemical Properties
  • • Extensive and Intensive Properties
  • 1.5 Uncertainty in Measurement
  • • Significant Figures
  • • Calculations with Measured Numbers
  • ■ What’s Significant About Significant Figures?
  • • Accuracy and Precision
  • 1.6 Using Units and Solving Problems
  • • Conversion Factors
  • • Dimensional Analysis—Tracking Units
  • 2 Atoms, Molecules, and Ions
  • 2.1 The Atomic Theory
  • 2.2 The Structure of the Atom
  • • Discovery of the Electron
  • • Radioactivity
  • • The Proton and the Nucleus
  • • Nuclear Model of the Atom
  • • The Neutron
  • 2.3 Atomic Number, Mass Number, and Isotopes
  • 2.4 The Periodic Table
  • ■ Distribution of Elements on Earth
  • 2.5 The Atomic Mass Scale and Average Atomic Mass
  • 2.6 Ions and Ionic Compounds
  • • Atomic Ions
  • • Polyatomic Ions
  • • Formulas of Ionic Compounds
  • • Naming Ionic Compounds
  • • Oxoanions
  • • Hydrates
  • 2.7 Molecules and Molecular Compounds
  • • Molecular Formulas
  • • Naming Molecular Compounds
  • • Simple Acids
  • • Oxoacids
  • • Empirical Formulas of Molecular Substances
  • 2.8 Compounds in Review
  • 3 Stoichiometry: Ratios of Combination
  • 3.1 Molecular and Formula Masses
  • 3.2 Percent Composition of Compounds
  • 3.3 Chemical Equations
  • • Interpreting and Writing Chemical Equations
  • • Balancing Chemical Equations
  • ■ The Stoichiometry of Metabolism
  • 3.4 The Mole and Molar Masses
  • • The Mole
  • • Determining Molar Mass
  • • Interconverting Mass, Moles, and Numbers of Particles
  • • Empirical Formula from Percent Composition
  • 3.5 Combustion Analysis
  • • Determination of Empirical Formula
  • • Determination of Molecular Formula
  • 3.6 Calculations with Balanced Chemical Equations
  • • Moles of Reactants and Products
  • • Mass of Reactants and Products
  • 3.7 Limiting Reactants
  • • Determining the Limiting Reactant
  • Limiting Reactant Problems
  • • Reaction Yield
  • • Types of Chemical Reactions
  • 4 Reactions in Aqueous Solutions
  • 4.1 General Properties of Aqueous Solutions
  • • Electrolytes and Nonelectrolytes
  • • Strong Electrolytes and Weak Electrolytes
  • • Identifying Electrolytes
  • 4.2 Precipitation Reactions
  • • Solubility Guidelines for Ionic Compounds in Water
  • • Molecular Equations
  • • Ionic Equations
  • • Net Ionic Equations
  • 4.3 Acid-Base Reactions
  • • Strong Acids and Bases
  • • Brønsted Acids and Bases
  • • Acid-Base Neutralization
  • 4.4 Oxidation-Reduction Reactions
  • • Oxidation Numbers
  • • Oxidation of Metals in Aqueous Solutions
  • • Balancing Simple Redox Equations
  • • Other Types of Redox Reactions
  • 4.5 Concentration of Solutions
  • • Molarity
  • Preparing a Solution from a Solid
  • • Dilution
  • • Serial Dilution
  • • Solution Stoichiometry
  • ■ How Are Solution Concentrations Measured?
  • 4.6 Aqueous Reactions and Chemical Analysis
  • • Gravimetric Analysis
  • • Acid-Base Titrations
  • • Redox Titration
  • 5 Thermochemistry
  • 5.1 Energy and Energy Changes
  • • Forms of Energy
  • • Energy Changes in Chemical Reactions
  • • Units of Energy
  • 5.2 Introduction to Thermodynamics
  • • States and State Functions
  • • The First Law of Thermodynamics
  • • Work and Heat
  • 5.3 Enthalpy
  • • Reactions Carried Out at Constant Volume or at Constant Pressure
  • • Enthalpy and Enthalpy Changes
  • • Thermochemical Equations
  • 5.4 Calorimetry
  • • Specific Heat and Heat Capacity
  • • Constant-Pressure Calorimetry
  • Determination of ΔH°rxn by Constant-Pressure Calorimetry
  • ■ Heat Capacity and Hypothermia
  • • Constant-Volume Calorimetry
  • Determination of Specific Heat by Constant-Pressure Calorimetry
  • ■ What if the Heat Capacity of the Calorimeter Isn’t Negligible?
  • 5.5 Hess’s Law
  • 5.6 Standard Enthalpies of Formation
  • 6 Quantum Theory and the Electronic Structure of Atoms
  • 6.1 The Nature of Light
  • • Properties of Waves
  • • The Electromagnetic Spectrum
  • • The Double-Slit Experiment
  • 6.2 Quantum Theory
  • • Quantization of Energy
  • ■ Laser Pointers
  • • Photons and the Photoelectric Effect
  • ■ Where Have I Encountered the Photoelectric Effect?
  • 6.3 Bohr’s Theory of the Hydrogen Atom
  • • Atomic Line Spectra
  • • The Line Spectrum of Hydrogen
  • Emission Spectrum of Hydrogen
  • ■ Lasers
  • 6.4 Wave Properties of Matter
  • • The de Broglie Hypothesis
  • • Diffraction of Electrons
  • 6.5 Quantum Mechanics
  • • The Uncertainty Principle
  • • The Schrödinger Equation
  • • The Quantum Mechanical Description of the Hydrogen Atom
  • 6.6 Quantum Numbers
  • • Principal Quantum Number (n)
  • • Angular Momentum Quantum Number (ℓ)
  • • Magnetic Quantum Number (mℓ)
  • • Electron Spin Quantum Number (ms)
  • 6.7 Atomic Orbitals
  • • s Orbitals
  • • p Orbitals
  • • d Orbitals and Other Higher-Energy Orbitals
  • • Energies of Orbitals
  • 6.8 Electron Configuration
  • • Energies of Atomic Orbitals in Many-Electron Systems
  • • The Pauli Exclusion Principle
  • • The Aufbau Principle
  • • Hund’s Rule
  • • General Rules for Writing Electron Configurations
  • 6.9 Electron Configurations and the Periodic Table
  • 7 Electron Configuration and the Periodic Table
  • 7.1 Development of the Periodic Table
  • ■ The Chemical Elements of Life
  • 7.2 The Modern Periodic Table
  • • Classification of Elements
  • • Representing Free Elements in Chemical Equations
  • 7.3 Effective Nuclear Charge
  • 7.4 Periodic Trends in Properties of Elements
  • • Atomic Radius
  • • Ionization Energy
  • • Electron Affinity
  • • Metallic Character
  • • Explaining Periodic Trends
  • 7.5 Electron Configuration of Ions
  • • Ions of Main Group Elements
  • • Ions of d-Block Elements
  • 7.6 Ionic Radius
  • • Comparing Ionic Radius with Atomic Radius
  • • Isoelectronic Series
  • 7.7 Periodic Trends in Chemical Properties of the Main Group Elements
  • • General Trends in Chemical Properties
  • • Properties of the Active Metals
  • • Properties of Other Main Group Elements
  • • Comparison of Group 1 and Group 11 Elements
  • ■ Salt Substitutes
  • • Variation in Properties of Oxides Within a Period
  • 8 Chemical Bonding I: Basic Concepts
  • 8.1 Lewis Dot Symbols
  • 8.2 Ionic Bonding
  • • Lattice Energy
  • • The Born-Haber Cycle
  • Born-Haber Cycle
  • 8.3 Covalent Bonding
  • • Lewis Structures
  • • Multiple Bonds
  • • Comparison of Ionic and Covalent Compounds
  • 8.4 Electronegativity and Polarity
  • • Electronegativity
  • • Dipole Moment, Partial Charges, and Percent Ionic Character
  • 8.5 Drawing Lewis Structures
  • 8.6 Lewis Structures and Formal Charge
  • 8.7 Resonance
  • 8.8 Exceptions to the Octet Rule
  • • Incomplete Octets
  • • Odd Numbers of Electrons
  • ■ The Power of Radicals
  • • Expanded Octets
  • ■ Which Is More Important: Formal Charge or the Octet Rule?
  • 8.9 Bond Enthalpy
  • 9 Chemical Bonding II: Molecular Geometry and Bonding Theories
  • 9.1 Molecular Geometry
  • • The VSEPR Model
  • • Electron-Domain Geometry and Molecular Geometry
  • • Deviation from Ideal Bond Angles
  • • Geometry of Molecules with More than One Central Atom
  • ■ How Are Larger, More Complex Molecules Represented?
  • 9.2 Molecular Geometry and Polarity
  • ■ Can More Complex Molecules Contain Polar Bonds and Still Be Nonpolar?
  • 9.3 Valence Bond Theory
  • • Representing Electrons in Atomic Orbitals
  • • Energetics and Directionality of Bonding
  • 9.4 Hybridization of Atomic Orbitals
  • • Hybridization of s and p Orbitals
  • • Hybridization of s, p, and d Orbitals
  • 9.5 Hybridization in Molecules Containing Multiple Bonds
  • Formation of Pi Bonds in Ethylene and Acetylene
  • 9.6 Molecular Orbital Theory
  • • Bonding and Antibonding Molecular Orbitals
  • • σ Molecular Orbitals
  • • Bond Order
  • • π Molecular Orbitals
  • • Molecular Orbital Diagrams
  • • Molecular Orbitals in Heteronuclear Diatomic Species
  • 9.7 Bonding Theories and Descriptions of Molecules with Delocalized Bonding
  • 10 Gases
  • 10.1 Properties of Gases
  • • Characteristics of Gases
  • • Gas Pressure: Definition and Units
  • • Calculation of Pressure
  • • Measurement of Pressure
  • 10.2 The Gas Laws
  • • Boyle’s Law: The Pressure-Volume Relationship
  • • Charles’s and Gay-Lussac’s Law: The Temperature-Volume Relationship
  • • Avogadro’s Law: The Amount-Volume Relationship
  • • The Combined Gas Law: The Pressure-Temperature-Amount-Volume Relationship
  • 10.3 The Ideal Gas Equation
  • • Deriving the Ideal Gas Equation from the Empirical Gas Laws
  • • Applications of the Ideal Gas Equation
  • 10.4 Reactions with Gaseous Reactants and Products
  • • Calculating the Required Volume of a Gaseous Reactant
  • • Determining the Amount of Reactant Consumed Using Change in Pressure
  • • Predicting the Volume of a Gaseous Product
  • 10.5 Gas Mixtures
  • • Dalton’s Law of Partial Pressures
  • • Mole Fractions
  • • Using Partial Pressures to Solve Problems
  • Molar Volume of a Gas
  • ■ Hyperbaric Oxygen Therapy
  • 10.6 The Kinetic Molecular Theory of Gases
  • • Application to the Gas Laws
  • • Molecular Speed
  • • Diffusion and Effusion
  • 10.7 Deviation from Ideal Behavior
  • • Factors That Cause Deviation from Ideal Behavior
  • • The van der Waals Equation
  • ■ What’s Really the Difference Between Real Gases and Ideal Gases?
  • 11 Intermolecular Forces and the Physical Properties of Liquids and Solids
  • 11.1 Intermolecular Forces
  • • Dipole-Dipole Interactions
  • • Hydrogen Bonding
  • ■ Sickle Cell Disease
  • • Dispersion Forces
  • • Ion-Dipole Interactions
  • 11.2 Properties of Liquids
  • • Surface Tension
  • • Viscosity
  • • Vapor Pressure
  • 11.3 Crystal Structure
  • • Unit Cells
  • • Packing Spheres
  • • Closest Packing
  • 11.4 Types of Crystals
  • • Ionic Crystals
  • ■ How Do We Know the Structures of Crystals?
  • • Covalent Crystals
  • • Molecular Crystals
  • • Metallic Crystals
  • 11.5 Amorphous Solids
  • 11.6 Phase Changes
  • • Liquid-Vapor Phase Transition
  • • Solid-Liquid Phase Transition
  • • Solid-Vapor Phase Transition
  • ■ The Dangers of Phase Changes
  • 11.7 Phase Diagrams
  • 12 Modern Materials
  • 12.1 Polymers
  • • Addition Polymers
  • • Condensation Polymers
  • ■ Electrically Conducting Polymers
  • 12.2 Ceramics and Composite Materials
  • • Ceramics
  • • Composite Materials
  • 12.3 Liquid Crystals
  • 12.4 Biomedical Materials
  • • Dental Implants
  • • Soft Tissue Materials
  • • Artificial Joints
  • 12.5 Nanotechnology
  • • Graphite, Buckyballs, and Nanotubes
  • 12.6 Semiconductors
  • 12.7 Superconductors
  • 13 Physical Properties of Solutions
  • 13.1 Types of Solutions
  • 13.2 The Solution Process
  • • Intermolecular Forces and Solubility
  • • The Driving Force for Dissolution
  • ■ Why Are Vitamins Referred to as Water Soluble and Fat Soluble?
  • 13.3 Concentration Units
  • • Molality
  • • Percent by Mass
  • • Comparison of Concentration Units
  • 13.4 Factors That Affect Solubility
  • • Temperature
  • • Pressure
  • 13.5 Colligative Properties
  • • Vapor-Pressure Lowering
  • • Boiling-Point Elevation
  • • Freezing-Point Depression
  • • Osmotic Pressure
  • • Electrolyte Solutions
  • ■ Intravenous Fluids
  • ■ Hemodialysis
  • 13.6 Calculations Using Colligative Properties
  • 13.7 Colloids
  • 14 Chemical Kinetics
  • 14.1 Reaction Rates
  • • Average Reaction Rate
  • • Instantaneous Rate
  • • Stoichiometry and Reaction Rate
  • 14.2 Dependence of Reaction Rate on Reactant Concentration
  • • The Rate Law
  • • Experimental Determination of the Rate Law
  • 14.3 Dependence of Reactant Concentration on Time
  • • First-Order Reactions
  • • Second-Order Reactions
  • 14.4 Dependence of Reaction Rate on Temperature
  • • Collision Theory
  • • The Arrhenius Equation
  • 14.5 Reaction Mechanisms
  • • Elementary Reactions
  • • Rate-Determining Step
  • • Experimental Support for Reaction Mechanisms
  • • Identifying Plausible Reaction Mechanisms
  • • Mechanisms with a Fast Initial Step
  • 14.6 Catalysis
  • • Heterogeneous Catalysis
  • • Homogeneous Catalysis
  • • Enzymes: Biological Catalysts
  • ■ Catalysis and Hangovers
  • 15 Chemical Equilibrium
  • 15.1 The Concept of Equilibrium
  • ■ How Do We Know That the Forward and Reverse Processes Are Ongoing in a System at Equilibrium?
  • 15.2 The Equilibrium Constant
  • • Calculating Equilibrium Constants
  • • Magnitude of the Equilibrium Constant
  • 15.3 Equilibrium Expressions
  • • Heterogeneous Equilibria
  • • Manipulating Equilibrium Expressions
  • • Equilibrium Expressions Containing Only Gases
  • 15.4 Using Equilibrium Expressions to Solve Problems
  • • Predicting the Direction of a Reaction
  • • Calculating Equilibrium Concentrations
  • Equilibrium (ice) Tables
  • 15.5 Factors That Affect Chemical Equilibrium
  • • Addition or Removal of a Substance
  • • Changes in Volume and Pressure
  • • Changes in Temperature
  • • Catalysis
  • Le Châtelier’s Principle
  • Effect of Volume Change
  • ■ What Happens to the Units in Equilibrium Constants?
  • ■ Hemoglobin Production at High Altitude
  • 16 Acids and Bases
  • 16.1 Brønsted Acids and Bases
  • 16.2 The Acid-Base Properties of Water
  • 16.3 The pH Scale
  • ■ Antacids and the pH Balance in Your Stomach
  • 16.4 Strong Acids and Bases
  • • Strong Acids
  • • Strong Bases
  • 16.5 Weak Acids and Acid Ionization Constants
  • • The Ionization Constant, Ka
  • • Calculating pH from Ka
  • Using Equilibrium Tables to Solve Problems
  • • Percent Ionization
  • • Using pH to Determine Ka
  • 16.6 Weak Bases and Base Ionization Constants
  • • The Ionization Constant, Kb
  • • Calculating pH from Kb
  • • Using pH to Determine Kb
  • 16.7 Conjugate Acid-Base Pairs
  • • The Strength of a Conjugate Acid or Base
  • • The Relationship Between Ka and Kb of a Conjugate Acid-Base Pair
  • 16.8 Diprotic and Polyprotic Acids
  • 16.9 Molecular Structure and Acid Strength
  • • Hydrohalic Acids
  • • Oxoacids
  • • Carboxylic Acids
  • 16.10 Acid-Base Properties of Salt Solutions
  • • Basic Salt Solutions
  • • Acidic Salt Solutions
  • • Neutral Salt Solutions
  • • Salts in Which Both the Cation and the Anion Hydrolyze
  • 16.11 Acid-Base Properties of Oxides and Hydroxides
  • • Oxides of Metals and Nonmetals
  • • Basic and Amphoteric Hydroxides
  • 16.12 Lewis Acids and Bases
  • 17 Acid-Base Equilibria and Solubility Equilibria
  • 17.1 The Common Ion Effect
  • 17.2 Buffer Solutions
  • • Calculating the pH of a Buffer
  • • Preparing a Buffer Solution with a Specific pH
  • Buffer Solutions
  • ■ Maintaining the pH of Blood
  • 17.3 Acid-Base Titrations
  • • Strong Acid–Strong Base Titrations
  • • Weak Acid–Strong Base Titrations
  • • Strong Acid–Weak Base Titrations
  • • Acid-Base Indicators
  • 17.4 Solubility Equilibria
  • • Solubility Product Expression and Ksp
  • • Calculations Involving Ksp and Solubility
  • • Predicting Precipitation Reactions
  • 17.5 Factors Affecting Solubility
  • • The Common Ion Effect
  • • pH
  • Common Ion Effect
  • • Complex Ion Formation
  • 17.6 Separation of Ions Using Differences in Solubility
  • • Fractional Precipitation
  • • Qualitative Analysis of Metal Ions in Solution
  • 18 Entropy, Free Energy, and Equilibrium
  • 18.1 Spontaneous Processes
  • 18.2 Entropy
  • • A Qualitative Description of Entropy
  • • A Quantitative Definition of Entropy
  • 18.3 Entropy Changes in a System
  • • Calculating ΔSsys
  • • Standard Entropy, S°
  • • Qualitatively Predicting the Sign of ΔS°sys
  • Factors That Influence the Entropy of a System
  • 18.4 Entropy Changes in the Universe
  • • Calculating ΔSsurr
  • • The Second Law of Thermodynamics
  • • The Third Law of Thermodynamics
  • 18.5 Predicting Spontaneity
  • • Gibbs Free-Energy Change, ΔG
  • • Standard Free-Energy Changes, ΔG°
  • • Using ΔG and ΔG° to Solve Problems
  • 18.6 Free Energy and Chemical Equilibrium
  • • Relationship Between ΔG and ΔG°
  • • Relationship Between ΔG° and K
  • 18.7 Thermodynamics in Living Systems
  • 19 Electrochemistry
  • 19.1 Balancing Redox Reactions
  • 19.2 Galvanic Cells
  • Construction of a Galvanic Cell
  • 19.3 Standard Reduction Potentials
  • 19.4 Spontaneity of Redox Reactions Under Standard-State Conditions
  • 19.5 Spontaneity of Redox Reactions Under Conditions Other than Standard State
  • • The Nernst Equation
  • • Concentration Cells
  • ■ Biological Concentration Cells
  • 19.6 Batteries
  • • Dry Cells and Alkaline Batteries
  • • Lead Storage Batteries
  • • Lithium-Ion Batteries
  • • Fuel Cells
  • 19.7 Electrolysis
  • • Electrolysis of Molten Sodium Chloride
  • • Electrolysis of Water
  • • Electrolysis of an Aqueous Sodium Chloride Solution
  • • Quantitative Applications of Electrolysis
  • 19.8 Corrosion
  • 20 Nuclear Chemistry
  • 20.1 Nuclei and Nuclear Reactions
  • 20.2 Nuclear Stability
  • • Patterns of Nuclear Stability
  • • Nuclear Binding Energy
  • 20.3 Natural Radioactivity
  • • Kinetics of Radioactive Decay
  • • Dating Based on Radioactive Decay
  • 20.4 Nuclear Transmutation
  • 20.5 Nuclear Fission
  • Nuclear Fission and Fusion
  • 20.6 Nuclear Fusion
  • 20.7 Uses of Isotopes
  • • Chemical Analysis
  • • Isotopes in Medicine
  • 20.8 Biological Effects of Radiation
  • ■ Radioactivity in Tobacco
  • 21 Environmental Chemistry
  • 21.1 Earth’s Atmosphere
  • 21.2 Phenomena in the Outer Layers of the Atmosphere
  • • Aurora Borealis and Aurora Australis
  • • The Mystery Glow of Space Shuttles
  • 21.3 Depletion of Ozone in the Stratosphere
  • • Polar Ozone Holes
  • 21.4 Volcanoes
  • 21.5 The Greenhouse Effect
  • 21.6 Acid Rain
  • 21.7 Photochemical Smog
  • 21.8 Indoor Pollution
  • • The Risk from Radon
  • • Carbon Dioxide and Carbon Monoxide
  • • Formaldehyde
  • 22 Coordination Chemistry
  • 22.1 Coordination Compounds
  • • Properties of Transition Metals
  • • Ligands
  • • Nomenclature of Coordination Compounds
  • 22.2 Structure of Coordination Compounds
  • 22.3 Bonding in Coordination Compounds: Crystal Field Theory
  • • Crystal Field Splitting in Octahedral Complexes
  • • Color
  • • Magnetic Properties
  • • Tetrahedral and Square-Planar Complexes
  • 22.4 Reactions of Coordination Compounds
  • 22.5 Applications of Coordination Compounds
  • ■ The Coordination Chemistry of Oxygen Transport
  • 23 Organic Chemistry
  • 23.1 Why Carbon Is Different
  • 23.2 Organic Compounds
  • • Classes of Organic Compounds
  • • Naming Organic Compounds
  • ■ How Do We Name Molecules with More Than One Substituent?
  • ■ How Do We Name Compounds with Specific Functional Groups?
  • 23.3 Representing Organic Molecules
  • • Condensed Structural Formulas
  • • Kekulé Structures
  • • Bond-Line Structures
  • • Resonance
  • 23.4 Isomerism
  • • Constitutional Isomerism
  • • Stereoisomerism
  • ■ Plane-Polarized Light and 3-D Movies
  • ■ Biological Activity of Enantiomers
  • 23.5 Organic Reactions
  • • Addition Reactions
  • • Substitution Reactions
  • ■ SN1 Reactions
  • • Other Types of Organic Reactions
  • ■ The Chemistry of Vision
  • 23.6 Organic Polymers
  • • Addition Polymers
  • • Condensation Polymers
  • • Biological Polymers
  • 24 Metallurgy and the Chemistry of Metals     (ONLINE ONLY)
  • 24.1 Occurrence of Metals
  • ■ The Importance of Molybdenum
  • 24.2 Metallurgical Processes
  • • Preparation of the Ore
  • • Production of Metals
  • • The Metallurgy of Iron
  • • Steelmaking
  • • Purification of Metals
  • 24.3 Band Theory of Conductivity
  • • Conductors
  • • Semiconductors
  • 24.4 Periodic Trends in Metallic Properties
  • 24.5 The Alkali Metals
  • 24.6 The Alkaline Earth Metals
  • • Magnesium
  • • Calcium
  • 24.7 Aluminum
  • 25 Nonmetallic Elements and Their Compounds     (ONLINE ONLY)
  • 25.1 General Properties of Nonmetals
  • 25.2 Hydrogen
  • • Binary Hydrides
  • • Isotopes of Hydrogen
  • • Hydrogenation
  • • The Hydrogen Economy
  • 25.3 Carbon
  • 25.4 Nitrogen and Phosphorus
  • • Nitrogen
  • • Phosphorus
  • 25.5 Oxygen and Sulfur
  • • Oxygen
  • • Sulfur
  • 25.6 The Halogens
  • • Preparation and General Properties of the Halogens
  • • Compounds of the Halogens
  • • Uses of the Halogens
  • Appendixes
  • 1 Mathematical Operations
  • 2 Thermodynamic Data at 1 atm and 25°C
  • 3 Solubility Product Constants at 25°C
  • 4 Dissociation Constants for Weak Acids and Bases at 25°C
  • Glossary
  • Answers to Odd-Numbered Problems
  • Index