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E-raamat: Chemistry of Pyrotechnics: Basic Principles and Theory, Third Edition 3rd edition [Taylor & Francis e-raamat]

, (Chestertown, Maryland, USA)
  • Formaat: 316 pages, 98 Tables, black and white; 12 Illustrations, color; 41 Illustrations, black and white
  • Ilmumisaeg: 07-Jan-2019
  • Kirjastus: CRC Press
  • ISBN-13: 9780429262135
  • Taylor & Francis e-raamat
  • Hind: 133,87 €*
  • * hind, mis tagab piiramatu üheaegsete kasutajate arvuga ligipääsu piiramatuks ajaks
  • Tavahind: 191,24 €
  • Säästad 30%
  • Formaat: 316 pages, 98 Tables, black and white; 12 Illustrations, color; 41 Illustrations, black and white
  • Ilmumisaeg: 07-Jan-2019
  • Kirjastus: CRC Press
  • ISBN-13: 9780429262135

This book provides chemists with technical insight on pyrotechnics and explosives. It emphasizes basic chemical principles and practical, hands-on knowledge in the preparation of energetic materials. It examines the interactions between and adaptations of pyrotechnics to changing technology in areas such as obscuration science and low-signature flame emission. The updated third edition discusses chemical and pyrotechnic principles, components of high-energy materials, elements of ignition, propagation, and sensitivity. It offers heat compositions, including ignition mixes, delays, thermites, and propellants and investigates the production of smoke and sound as well as light and color.

Preface to the Third Edition: 2019 xi
Preface to the Second Edition: 2010 xiii
Preface to the First Edition: 1985 xv
Authors xvii
Chapter 1 Introduction 1(8)
A Primer on Energetic Materials
1(2)
Black Powder: The Original Pyrotechnic
3(2)
A Brief History and Cultural Significance
5(4)
Chapter 2 Basic Chemical Principles 9(48)
Atoms and Molecules
9(8)
The Mole Concept
17(2)
Electron Transfer Reactions
19(13)
Oxidation-Reduction Theory
19(2)
The Pyro Valence Method: A Simple Yet Powerful Technique
21(3)
Balancing an Equation
24(1)
Is a Chemical Compound Fuel or Oxygen Rich?
25(1)
Weight Ratio Calculations
26(1)
Analyzing the Pyro Valence of a Mixture
27(1)
Three-Component Systems
27(1)
Pyro Valence Exercises
28(3)
Additional Pyro Valence Problems
31(1)
Electrochemistry
32(2)
Thermodynamics
34(5)
Introduction to Thermodynamics
34(2)
Heat of Reaction
36(3)
Rates of Chemical Reactions
39(3)
Energy-Rich Bonds
42(1)
States of Matter
43(5)
Gases
44(1)
Liquids
45(1)
The Solid State
46(2)
Other Phases of Matter
48(1)
Acids and Bases
48(2)
Light Emission
50(4)
Molecular Emission
53(1)
"Black Body" Radiation/Emission
54(1)
"Green" Chemistry and Pyrotechnics: An Introduction
54(1)
Chemical Principles: A Final Note
55(2)
Chapter 3 Components of Energetic Compositions 57(50)
Introduction
58(2)
Oxidizing Agents
60(19)
Requirements
60(4)
Potassium Nitrate (KNO3)
64(1)
Potassium Chlorate (KClO3)
64(4)
Potassium Perchlorate (KClO4)
68(1)
Green Pyrotechnics: The Perchlorate Issue
69(2)
Ammonium Perchlorate (NH4ClO4)
71(1)
Ammonium Perchlorate in the News
72(1)
Din itramides: A "Green" Replacement for Perchlorates?
73(1)
Periodates: A "Green" Replacement for Perchlorates?
74(1)
5-Aminotetrazole: A "Green" Replacement for Perchlorates?
75(1)
Strontium Nitrate [ Sr(NO3)2]
75(1)
Barium Nitrate [ Ba(NO3)2]
76(1)
Iron Oxide [ Fe2O3 and Fe3O4]
76(1)
Other Oxidizers
77(1)
Oxidizers without Oxygen
78(1)
Summary on Oxidizers and Their Use
78(1)
Oxidizer Selection: A Comparison
79(1)
Fuels
79(18)
Requirements
79(2)
Introduction to Metal Fuels
81(2)
Aluminum (Al)
83(1)
Magnesium (Mg)
84(1)
Recovery of Demilitarized Magnesium: "Green" Pyrotechnics Recycling
85(1)
"Magnalium" (Magnesium-Aluminum Alloy)
85(1)
Iron (Fe)
86(1)
Other Metals
86(1)
Introduction to Non-Metallic/Elemental Fuels
87(1)
Sulfur
87(2)
Boron
89(1)
Silicon
90(1)
Phosphorus
91(1)
Sulfide Compounds
92(1)
Introduction to Organic Fuels
92(2)
Natural Organic Fuels: Shellac and Red Gum
94(1)
Charcoal
94(1)
Carbohydrates
95(1)
Other Organic Fuels
96(1)
Binders
97(5)
An Overview of Binders
97(4)
Most Binders Are Also Fuels
101(1)
Retardants
102(2)
Brief Note on Colored Dyes
103(1)
Catalysts
104(1)
Gas Volume Considerations: A Review
104(1)
Examples
105(1)
Conclusion and Best Practices in Component Selection
105(2)
Chapter 4 Pyrotechnic Principles 107(20)
Introduction
107(1)
Technical Parameters for Pyrotechnic Behavior
108(5)
Variability of Pyrotechnic Compositions
113(6)
Requirements for a "Good" High-Energy Mixture
119(2)
Preparation of High-Energy Mixtures: An Introduction
121(1)
Variation from Day to Day
122(2)
Possible Areas Where Variation in the Performance and Sensitivity of Pyrotechnic Mixtures Can Occur During the Manufacturing Process
123(1)
Aging Effects on Pyrotechnic Compositions
124(1)
Pyrotechnic Principles: A Final Note
125(2)
Chapter 5 Pyrotechnic Laboratories and Analysis 127(20)
Introduction
128(1)
The Pyrotechnic Laboratory
128(4)
Storage
129(2)
Safety: Personal Protective Equipment and Common Practices
131(1)
Composition Production
132(5)
Sizing Particles and Powders
133(2)
Measuring Chemicals
135(1)
Mixing the Compositions
136(1)
Using the Laboratory Hood "Firing Range"
137(2)
Setting Up the Lab Hood/Firing Range
137(1)
Igniting the Composition
138(1)
Cleanup and a Final Note on Safety
139(1)
Analysis and Pyrotechnics
139(7)
Introduction to Analysis of Pyrotechnic Compositions
139(1)
Thermal Analysis
140(4)
Heat Output Measurement
144(1)
Spectroscopy
144(1)
Microscopy
145(1)
Moisture Analyzer
145(1)
Other Equipment and Techniques
145(1)
Process Hazard Analysis
146(1)
Laboratories and Analysis: A Final Note
146(1)
Chapter 6 Ignition and Propagation 147(30)
Introduction to Ignition Principles
148(13)
Ignition Techniques
148(1)
Ignition: Initial and Continuing Events
149(1)
Combustion, Deflagration, and Detonation
149(1)
Ignition Factors: Part 1
150(2)
Lattice Structure, Motion, Reactivity, and "The Tammann Temperature"
152(1)
Ignition Factors: Part 2
153(4)
Ignition Temperatures
157(1)
Methods for Determining Ignition Temperatures
158(3)
Summary of Ignition
161(1)
Propagation of Burning
161(10)
Introduction and Measuring Propagation
161(1)
Effects from Component Selection
162(1)
Effects from Mass Ratio and Stoichiometry
163(1)
Effect from Other Factors: Heat Transfer, Loading Density, and Moisture
164(1)
Effect of External Pressure and Confinement
165(3)
Effect of External Temperature
168(1)
Burning Surface Area
169(1)
Deflagration-to-Detonation Transitions (DDT)
170(1)
Summary of Burn Rate
171(1)
Combustion Flame Temperature
171(4)
Propagation Index
175(1)
Ignition and Propagation: A Final Note
176(1)
Chapter 7 Sensitivity 177(20)
Sensitivity Testing: An Introduction
177(4)
Ignition Sensitivity: A Statistical Event
178(1)
Sensitivity Testing: Safety Concerns
179(1)
Variability in Sensitivity Testing Results
180(1)
Spark Sensitivity
181(3)
Friction Sensitivity
184(2)
Impact Sensitivity
186(3)
Thermal Sensitivity
189(4)
Thermal Sensitivity Overview
189(3)
Divergent Sensitivity Changes
192(1)
Shock Sensitivity: A Brief Note
193(1)
Redesigning a Composition for Sensitivity Considerations
194(1)
Pyrotechnic Sensitivity: Summary
195(2)
Chapter 8 Heat Compositions: Ignition Mixes, Delays, and Thermites 197(16)
Heat Production
198(1)
Igniters and Delays: Terminology
198(3)
Ignition Compositions and First Fires
201(3)
Delay Compositions
204(6)
Thermodynamics and Delay Compositions
206(1)
Stoichiometry and Delay Compositions
207(2)
"Green Pyrotechnics" for Delay Systems
209(1)
Thermite and Thermate Mixtures
210(2)
Heat Compositions: Summary
212(1)
Chapter 9 Propellants: A Brief Overview 213(12)
Propellants: An Introduction
214(1)
The Original Propellant: Black Powder
215(1)
Smokeless Powders
216(4)
Propellants for Launch Vehicles
220(1)
Projectile vs. Rocket Propellants
221(1)
Modern Approaches in Propellants
222(3)
Chapter 10 Light and Color Production 225(32)
Introduction
225(1)
White-Light Compositions
226(5)
Overview of White-Light Production
226(1)
Illuminating Compositions and Flares
227(3)
"Photoflash" Mixtures
230(1)
"Green Pyrotechnics" for Photoflash Compositions
231(1)
Spark Production
231(2)
Strobes and "Twinklers"
233(1)
Other Light Effects: Flitter and Glitter
234(1)
Colored-Light Production
235(19)
Overview of Colored-Light Production
235(3)
Oxidizer Selection
238(1)
Fuels and Burning Rates
239(1)
The Veline Color Series
240(1)
Color Intensification with Chlorine
240(2)
Red Flame Compositions: Classic Strontium-Based Systems
242(1)
Red Flame Compositions: Lithium-Based Alternatives
243(2)
Green Flame Compositions: Classic Barium-Based Systems
245(3)
Green Flame Compositions: "Green Pyrotechnics" with Boron-Based Compositions
248(1)
Blue Flame Compositions: Classic Copper Chloride-Based Systems
248(3)
Blue Flame Compositions: "Green Pyrotechnics" with Copper Iodide and Copper Bromide
251(1)
Purple Flame Compositions
251(1)
Yellow Flame Compositions: Sodium
252(1)
Sodium Impurities: A Caution in Color Production
253(1)
Orange Flame Compositions: Calcium and Sodium/Strontium Combinations
254(1)
Infrared Emission and Pyrotechnics
254(2)
Light and Color Production: Summary
256(1)
Chapter 11 Smoke Production 257(14)
Introduction
257(2)
Generation and Dispersion of Solid Particles
258(1)
Vaporization of Volatiles
259(1)
Colored-Smoke Mixes
259(5)
Overview of Colored-Smoke Production
259(3)
Green Pyrotechnics: An Environmentally Benign Yellow Smoke
262(2)
White Smoke Production
264(5)
Overview of White Smoke Production
264(3)
"Green Pyrotechnics": HC Smoke Replacement Research
267(2)
Summary: The Challenge and Opportunity of Smokes
269(2)
Chapter 12 Sound Production 271(8)
Noise Production: Reports
271(3)
Whistles
274(1)
Crackle Effects
275(2)
A Final Note on Studying the Chemistry of Pyrotechnics
277(2)
Chapter 13 Acknowledgments and Further Exploration 279(4)
Acknowledgments and Thanks
279(1)
Further Resources for Exploring Pyrotechnics
280(3)
References 283(8)
Index 291
Dr. John A. Conkling received in bachelors of science degree from Washington College in Chestertown, MD in 1965 and his Ph.D. in chemistry from Johns Hopkins University in 1969. Dr. Conkling returned to Washington College as a chemistry professor and colleague of Dr. Joseph McLain, who at the time was studying energetic materials and pyrotechnics, which Dr. Conkling began to study for his career. As former executive director and technical director of the American Pyrotechnics Association, Dr. Conkling is widely regarded as one of the worlds foremost experts in pyrotechnics. Dr. Conkling conducted The Summer Pyrotechnic Seminar at Washington College for 29 years and is the original author of Chemistry of Pyrotechnics: Basic Principles and Theory in 1985. Dr. Conkling retired from Washington College in 2012 and was awarded the Alumni Service Award in 2013. Dr. Conkling currently splits his time between Chestertown and Texas to be with his family.



Chris Mocella received his bachelors of science degree in chemistry from Washington College in Chestertown, MD in 2001, having studied as a research associate under Dr. John Conkling. Chris continued to work with Dr. Conkling at his Summer Pyrotechnics Seminar series and assisted with the second edition of the Chemistry of Pyrotechnics text. Following graduate studies in chemistry at the University of Virginia, Chris took a position as a chemist with the U.S. federal government where he continues his career today. Chris lives with his wife and son near Annapolis, MD.