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Conventional Warhead Systems Physics and Engineering Design [Kõva köide]

  • Formaat: Hardback, 636 pages, kõrgus: 230 mm
  • Ilmumisaeg: 31-May-1998
  • Kirjastus: American Institute of Aeronautics & Astronautics
  • ISBN-10: 1563472554
  • ISBN-13: 9781563472558
Teised raamatud teemal:
Conventional Warhead Systems Physics and Engineering DesignSuurem pilt
  • Formaat: Hardback, 636 pages, kõrgus: 230 mm
  • Ilmumisaeg: 31-May-1998
  • Kirjastus: American Institute of Aeronautics & Astronautics
  • ISBN-10: 1563472554
  • ISBN-13: 9781563472558
Teised raamatud teemal:
Püsilink: https://www.kriso.ee/db/9781563472558.html
Märksõnad:
In this exploration of the mathematical equations and logic behind antiballistic missiles (ATBMs), the author examines theatre missile defence as well as warhead design and concepts for ATBMs. The book demonstrates the system aspects needed as a systems warhead engineer designing complex tactical and defence warheads under tight budgetary constraints. The text features an investigation of energy, momentum and methods for estimating damage on very complex ballistic missile payloads, such as submunitions of chemical and biological nature. Direct hit, missile debris and fragmentation are discussed. High strain rate, explosives, thermodynamics, heat transfer, chemistry, penetration mechanics, statistics, dynamics and finite element equations are also covered.
Preface xiii
Introduction to Physics of Warheads Against Ballistic Missiles
1(18)
Warhead Design Details
1(3)
Warhead Kill Mechanisms
4(2)
Mechanism Selection
6(6)
Simulation Considerations
12(2)
Warhead System Design Considerations
14(5)
Fragmentation Warhead Principles
19(60)
Introduction to Fragmentation Warhead Principles
19(2)
Naturally Fragmenting Warheads
21(11)
Case Expansion Modeling
25(5)
Case Expansion at Fracture
30(2)
Fragmentation and Dynamic Crack Growth
32(14)
Computing Average Fragment Mass
46(3)
Warhead Geometric Modeling
49(4)
Controlled Warhead Fragmentation
53(26)
Stress Concentration Considerations
55(3)
Notch Matrix Considerations
58(1)
Grid Matrix Warhead Modeling
59(9)
Problems
68(11)
Premade Fragment Warheads
79(52)
Introduction to Design Logic
79(9)
Fragment Design Considerations
88(8)
Premade Fragments on an Uncontrolled Fragmentation Case
96(6)
Advanced Fragmentation Modeling
102(29)
Uniform Shape Fragmentation Modeling
107(5)
Nonuniform Grid Fragmentation Modeling
112(7)
Liner Fragmentation Considerations
119(2)
Liner Fragmentation Modeling
121(2)
Problems
123(8)
KE-Rod Warheads
131(62)
Introduction to KE-Rod Warheads
131(2)
Center Core Warhead Design
133(11)
Center Core Warhead Deployment Mechanics
136(1)
Velocity Prediction Derivations
137(3)
Rod Tumbling Considerations
140(4)
Rod Deployment Interactions
144(5)
Jelly Roll Warheads
149(8)
Velocity Predictions
149(2)
Traditional Modeling
151(2)
Mechanical Vibration Modeling
153(1)
Theoretical Jelly Roll Modeling Comparisons
154(3)
Aiming KE-Rod Warhead Design
157(13)
Estimation of Aimed Rod Deployment Velocity
159(2)
Modified Equation for Aimed Mode Deployment
161(5)
Aimable Deployment Mechanics
166(4)
Rod Penetrator Design Considerations
170(5)
Stabilized Rod Warhead Considerations
175(7)
Stabilized Rod Design Derivations
176(3)
Containment Band Stress Considerations
179(3)
System Examples
182(11)
Problems
183(10)
Direct Energy Warheads
193(60)
Introduction to Deformable Warhead Technology
193(7)
Premade Case Concept Modeling
200(2)
Zigzag Case Concept Modeling
202(3)
Endgame Fragment Ejection Mechanics
205(4)
Gimbaled Warhead Concepts
209(16)
Modeling
212(2)
Velocity Predictions
214(8)
Ejection Angles
222(3)
Shaped-Charge Considerations
225(9)
Directed Energy System Considerations
227(3)
Linear Shaped-Charge Derivations
230(2)
Multijet Shaped-Charge Considerations
232(2)
EFP
234(19)
EFP Formation
236(1)
Projectile Charge Warhead
237(1)
P-Charge Modeling
238(3)
P-Charge Formation
241(2)
Problems
243(10)
Blast Warhead Concepts
253(62)
Introduction to Blast Warhead Concepts
253(8)
Scaling Considerations
253(1)
Weapon Shape Considerations
254(2)
Pressure, Impulse, and Energy Calculations
256(5)
Blast Warhead Modeling
261(15)
Aluminized Explosive Warheads
276(7)
Energetic Case Considerations
283(8)
Combustion Warhead Concepts
291(5)
Reactive Fragment Technology
296(5)
Explosive Fragment Technology
301(14)
Circuit Component Selection
301(2)
Circuit Analysis of Fragments
303(3)
Problems
306(9)
Direct Hit Modeling with Missile Debris Considerations
315(50)
Introduction to Direct Hit Modeling
315(5)
Oblique Missile Impact
320(4)
Direct Hit Against Unitary Payloads
324(2)
Direct Hit Against Submunition Payloads
326(10)
Tate Penetration Equations Related to Direct Hits
336(7)
Direct Hit Modeling with Hydrocodes
343(1)
Direct Hit with Lethality Enhancers
344(10)
Lethal Mechanism Considerations
344(4)
System and Weapon Design Considerations
348(6)
Missile Debris Considerations
354(11)
Modeling
354(5)
Debris Penetration Calculations
359(1)
Problems
360(5)
Terminal Encounter Kinematics
365(52)
Design Fundamentals
365(1)
Obliquity Angle Consideration for Blast Fragmentation Warheads
365(5)
Fragmentation System Warhead Design
370(18)
Ejection Angle Calculations
371(3)
Ejection Velocity Calculations
374(3)
Barrel Warhead Considerations
377(2)
End Confinement Effects
379(4)
Velocity Gradient Considerations
383(5)
Velocity Enhanced Electronically Aimed Warheads
388(6)
KE-Rod Warhead System Approach
394(5)
Gimbaled Warhead Systems
399(4)
Fuzing and Warhead Considerations
403(5)
Warhead Case Material Selection
408(9)
Problems
409(8)
Target Detection Mechanics Coupled with Designing Warheads
417(50)
Fixed-Angle Fuze Considerations
417(5)
Optimum Point Burst Delay
422(11)
Fuze Design Calculation Example
426(3)
Fuzing Dynamic Ejection Angle Considerations
429(3)
Optimum Time-Delay Calculations
432(1)
Late-Bird vs Early-Bird Misses
433(4)
Angle-of-Attack Considerations
437(1)
Multiple-Beam Fuzes
438(2)
Doppler and Intercept Arm Fuzing Mathematical Modeling
440(8)
Glitter-Point Modeling
441(3)
Fuze Triggering
444(4)
Seeker Fuzing Applications
448(9)
Warhead Burst Control Error Analysis
457(3)
Fuze Selection
460(7)
Problems
461(6)
Vulnerability Modeling
467(58)
Tactical Ballistic Missile Payload Descriptions
467(1)
TBM Payloads
467(2)
Integral and Internal Bulk Warheads
468(1)
High-Explosive Submunition Warhead
469(1)
TBM Vulnerability to Blast Modeling
469(5)
Near-Zone Blast Effects
470(1)
Far-Zone Blast Effects
471(3)
Explosive Relationship and Scaling Laws
474(5)
Fragment Penetration Principles
479(11)
THOR Penetration Equations
482(2)
Fragment Penetration Modeling
484(6)
Blast and Fragment Damage on Missile Structures
490(5)
Ballistic Impact of Explosive Munitions
495(7)
Shock-Initiated Modeling
496(5)
Obliquity Considerations
501(1)
Vulnerability of Cluster Munitions to Fragments
502(2)
Hydraulic Ram Considerations
504(4)
Synergistic Damage
508(17)
Problems
517(8)
Warhead Design with Endgame Codes
525(46)
Introduction to Endgame Computer Simulations
525(2)
Target Geometric Modeling
527(1)
Missile Representation
527(14)
Warhead Fragmentation Models
529(2)
Modeling
531(7)
Direct Hit
538(1)
Blast Damage
539(1)
Fuze Modeling
540(1)
Encounter Geometry
541(2)
Damage Assessment Models
543(2)
Endgame Codes Used with Hydrocode to Optimize Warheads
545(9)
Computer Programs for Endgame Lethality
554(17)
SHAZAM Endgame Simulation
554(1)
Target Models
555(1)
Fuze
556(1)
Damage Mechanisms
556(1)
Lethality Endgame Simulation (LEGS)
556(2)
Warhead Model
558(1)
Target Model
558(1)
Missile Model
558(1)
Simulation
559(1)
ACE Shotline Simulation
560(1)
Weapon Models
560(4)
Joint Service Endgame Model (JSEM)
564(1)
Damage Mechanisms
564(2)
Warhead Model
566(1)
Fuze Models
567(2)
Missile/Target Encounter
569(2)
Warhead Evaluation Principles
571(46)
Introduction to Evaluation Concepts
571(1)
System Kill Probability
571(1)
Vulnerable Area Computations
572(5)
KE-Rod Warhead Deployment Density
577(8)
Blast Fragmentation Density
585(2)
Gimbaled Warhead Density
587(1)
Warhead Analysis Considerations
588(1)
Kill Probability of Fragment Patterns
589(3)
Uniform and Random Fragment Patterns
592(5)
Side Spray Warheads
597(3)
Miss Distance Frequency Distribution
600(2)
Direct Hit Probability and Fuzing
602(3)
Fuzing Errors
605(12)
Problems
609(8)
Index 617
Richard Lloyd is current manager of the Warhead Lethality Group of the Raytheon Company Electronic Systems Division. He has extensive hands-on experience with advanced state-of-the-art interceptor missules, having served as principal investigator on such noteworthy missile projects as the Patriot PAC-3 and, more recently, the SM-2 Block IVA/P31 Warhead. A practicing engineer with more than 15 years experience, Mr. Lloyd holds three patents on warhead concepts as well as a B.S. in mechanical engineering, and a B.S. in agriculture engineering with a mathematics minor from Washington State University.