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Clifford Matthews
Engineers' Data Book (eBook, ePUB)
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ENGINEERS' DATA BOOK A completely revised and expanded fourth edition of this best-selling pocket guide. Engineers' Data Book provides a concise and useful source of up-to-date essential information for the student or practising engineer. * Updated, expanded edition * Easy to use * Handy reference guide * Core technical data Clifford Matthews is an experienced engineer with worldwide knowledge of mechanical engineering.
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ENGINEERS' DATA BOOK A completely revised and expanded fourth edition of this best-selling pocket guide. Engineers' Data Book provides a concise and useful source of up-to-date essential information for the student or practising engineer. * Updated, expanded edition * Easy to use * Handy reference guide * Core technical data Clifford Matthews is an experienced engineer with worldwide knowledge of mechanical engineering.
Dieser Download kann aus rechtlichen Gründen nur mit Rechnungsadresse in A, B, BG, CY, CZ, D, DK, EW, E, FIN, F, GR, HR, H, IRL, I, LT, L, LR, M, NL, PL, P, R, S, SLO, SK ausgeliefert werden.
Produktdetails
- Produktdetails
- Verlag: John Wiley & Sons
- Seitenzahl: 320
- Erscheinungstermin: 30. Dezember 2011
- Englisch
- ISBN-13: 9781119969051
- Artikelnr.: 38255192
- Verlag: John Wiley & Sons
- Seitenzahl: 320
- Erscheinungstermin: 30. Dezember 2011
- Englisch
- ISBN-13: 9781119969051
- Artikelnr.: 38255192
Clifford Mathews is an experienced engineer with worldwide knowledge of mechanical engineering.
Foreword xi Preface xiii Introduction - The Role of Technical Standards xv
Section 1: Engineering Careers 1 1.1 Introduction: what is an engineer? 1
1.2 A rough guide to industry breakdown 3 1.3 Training and professional
development 4 1.4 Degrees of (engineering) excellence 5 1.5 Degrees and how
to pass them 9 1.6 Do you have any . . . experience? 12 1.7 Final cut - job
interviews 14 Section 2: Units 18 2.1 The Greek alphabet 18 2.2 Units
systems 19 2.3 Units and conversions 21 2.4 Consistency of units 32 2.5
Dimensional analysis 36 2.6 Essential engineering mathematics 38 2.7 Maths
and the real world? 40 Section 3: Engineering Design - Process and
Principles 49 3.1 Engineering problem-solving 49 3.2 Problem types and
methodologies 49 3.3 Design principles 51 3.4 The engineering design
process 52 3.5 Design as a systematic activity (the 'pugh' method) 53 3.6
The innovation model 53 3.7 Creativity tools 57 3.8 The product design
specification (PDS) 58 3.9 Presenting technical information 60 3.10 The
anatomy of mechanical design 79 3.11 Safety in design - principles and
practice 89 3.12 Design by nature - project toucan 105 Section 4: Basic
Mechanical Design 110 4.1 Engineering abbreviations 110 4.2 Datums and
tolerances - principles 112 4.3 Toleranced dimensions 113 4.4 General
tolerances 114 4.5 Holes 115 4.6 Screw threads 116 4.7 Limits and fits 117
4.8 Surface finish 119 Section 5: Motion 122 5.1 Making sense of
equilibrium 122 5.2 Motion equations 123 5.3 Newton's laws of motion 124
5.4 Simple harmonic motion (SHM) 125 5.5 Understanding acceleration 126 5.6
Dynamic balancing 126 5.7 Vibration 128 5.8 Machine vibration 129 5.9
Machinery noise 130 Section 6: Deformable Body Mechanics 133 6.1 Quick
reference - mechanical notation 133 6.2 Engineering structures - so where
are all the pin joints? 135 6.3 Simple stress and strain 136 6.4 Simple
elastic bending 138 6.5 Slope and deflection of beams 140 6.6 Torsion 142
6.7 Thin cylinders 145 6.8 Cylindrical vessels with hemispherical ends 146
6.9 Thick cylinders 147 6.10 Buckling of struts 148 6.11 Flat circular
plates 149 6.12 Stress concentration factors 151 Section 7: Material
Failure 155 7.1 How materials fail 155 7.2 LEFM method 156 7.3 Multi-axis
stress states 157 7.4 Fatigue 158 7.5 Factors of safety 161 7.6 United
states practice 161 7.7 Ultimate jigsaw - what everything is made of 162
Section 8: Thermodynamics and Cycles 166 8.1 Quick reference: symbols -
thermodynamics 166 8.2 Basic thermodynamic laws 167 8.3 Entropy 169 8.4
Enthalpy 169 8.5 Other definitions 170 8.6 Cycles 170 8.7 The steam cycle
172 8.8 Properties of steam 172 8.9 Reference information 175 8.10 The gas
turbine (GT) cycle 175 Section 9: Basic Fluid Mechanics and Aerodynamics
178 9.1 Basic properties 178 9.2 Flow equations 180 9.3 Flow regimes 186
9.4 Boundary layers 189 9.5 Isentropic flow 191 9.6 Compressible
one-dimensional flow 191 9.7 Normal shock waves 192 9.8 Axisymmetric flows
195 9.9 Drag coefficients 195 9.10 General airfoil theory 197 9.11 Airfoil
coefficients 198 9.12 Pressure distributions 200 9.13 Aerodynamic centre
200 9.14 Centre of pressure 201 9.15 Supersonic conditions 202 9.16 Wing
loading: semi-ellipse assumption 204 Section 10: Fluid Equipment 206 10.1
Turbines 206 10.2 Refrigeration systems 207 10.3 Diesel engines 209 10.4
Heat exchangers 210 10.5 Centrifugal pumps 212 10.6 Impeller types 214
Section 11: Pressure Vessels 216 11.1 Vessel codes and standards 216 11.2
Pressure vessel design features 219 11.3 Cylindrical pressure vessel design
stresses 220 11.4 Stress categories 221 11.5 Analysis of stress
combinations 222 11.6 Vessel certification 223 11.7 Flanges 223 Section 12:
Materials 225 12.1 Observing crystals: order and disorder 225 12.2 Carbon
steels 226 12.3 Low-alloy steels 227 12.4 Alloy steels 227 12.5 Cast iron
(CI) 228 12.6 Stainless steels 230 12.7 Non-ferrous alloys 233 12.8 Nickel
alloys 233 12.9 Zinc alloys 234 12.10 Copper alloys 234 12.11 Aluminium
alloys 235 12.12 Titanium alloys 236 12.13 Engineering plastics 237 12.14
Material traceability and documentation 238 12.15 Corrosion 239 Section 13:
Machine Elements 244 13.1 Screw fasteners 244 13.2 Bearings 247 13.3 Ball
and roller bearings 248 13.4 Bearing lifetime 249 13.5 Coefficient of
friction 250 13.6 Gear trains 251 13.7 Seals 254 13.8 Shaft couplings 257
13.9 Cam mechanisms 259 13.10 Clutches 261 13.11 Pulley mechanisms 264
13.12 Drive types 266 Section 14: Quality Assurance and Quality Control 267
14.1 Quality assurance: ISO 9001: 2008 267 14.2 Quality system
certification 268 14.3 The ISO 9001 standard 269 14.4 Taguchi methods 271
14.5 Statistical process control (SPC) 272 14.6 Normal distribution 272
14.7 The binomial and poisson distributions 274 14.8 Reliability 274 14.9
Improving design reliability: main principles 277 14.10 'Design for
reliability' - a new approach 278 Section 15: Project Engineering 281 15.1
Project planning 281 15.2 Critical path analysis (CPA) 282 15.3 Planning
with Gantt charts 283 15.4 Rapid prototyping 284 15.5 Value analysis 285
Section 16: Welding 286 16.1 Welding processes 286 16.2 Weld types and
orientation 289 16.3 Welding symbols 292 16.4 Welding defects 295 16.5
Welding documentation 297 Section 17: Non-Destructive Testing (NDT) 299
17.1 Non-destructive testing acronyms 299 17.2 Visual examination 301 17.3
Dye penetrant (DP) testing 301 17.4 Magnetic particle (MP) testing 302 17.5
Ultrasonic testing (UT) 303 17.6 Radiographic testing (RT) 313 Section 18:
Surface Protection 318 18.1 Painting 318 18.2 Galvanizing 320 18.3 Chrome
plating 320 18.4 Rubber linings 321 Section 19: Metallurgical Terms 324
Section 1: Engineering Careers 1 1.1 Introduction: what is an engineer? 1
1.2 A rough guide to industry breakdown 3 1.3 Training and professional
development 4 1.4 Degrees of (engineering) excellence 5 1.5 Degrees and how
to pass them 9 1.6 Do you have any . . . experience? 12 1.7 Final cut - job
interviews 14 Section 2: Units 18 2.1 The Greek alphabet 18 2.2 Units
systems 19 2.3 Units and conversions 21 2.4 Consistency of units 32 2.5
Dimensional analysis 36 2.6 Essential engineering mathematics 38 2.7 Maths
and the real world? 40 Section 3: Engineering Design - Process and
Principles 49 3.1 Engineering problem-solving 49 3.2 Problem types and
methodologies 49 3.3 Design principles 51 3.4 The engineering design
process 52 3.5 Design as a systematic activity (the 'pugh' method) 53 3.6
The innovation model 53 3.7 Creativity tools 57 3.8 The product design
specification (PDS) 58 3.9 Presenting technical information 60 3.10 The
anatomy of mechanical design 79 3.11 Safety in design - principles and
practice 89 3.12 Design by nature - project toucan 105 Section 4: Basic
Mechanical Design 110 4.1 Engineering abbreviations 110 4.2 Datums and
tolerances - principles 112 4.3 Toleranced dimensions 113 4.4 General
tolerances 114 4.5 Holes 115 4.6 Screw threads 116 4.7 Limits and fits 117
4.8 Surface finish 119 Section 5: Motion 122 5.1 Making sense of
equilibrium 122 5.2 Motion equations 123 5.3 Newton's laws of motion 124
5.4 Simple harmonic motion (SHM) 125 5.5 Understanding acceleration 126 5.6
Dynamic balancing 126 5.7 Vibration 128 5.8 Machine vibration 129 5.9
Machinery noise 130 Section 6: Deformable Body Mechanics 133 6.1 Quick
reference - mechanical notation 133 6.2 Engineering structures - so where
are all the pin joints? 135 6.3 Simple stress and strain 136 6.4 Simple
elastic bending 138 6.5 Slope and deflection of beams 140 6.6 Torsion 142
6.7 Thin cylinders 145 6.8 Cylindrical vessels with hemispherical ends 146
6.9 Thick cylinders 147 6.10 Buckling of struts 148 6.11 Flat circular
plates 149 6.12 Stress concentration factors 151 Section 7: Material
Failure 155 7.1 How materials fail 155 7.2 LEFM method 156 7.3 Multi-axis
stress states 157 7.4 Fatigue 158 7.5 Factors of safety 161 7.6 United
states practice 161 7.7 Ultimate jigsaw - what everything is made of 162
Section 8: Thermodynamics and Cycles 166 8.1 Quick reference: symbols -
thermodynamics 166 8.2 Basic thermodynamic laws 167 8.3 Entropy 169 8.4
Enthalpy 169 8.5 Other definitions 170 8.6 Cycles 170 8.7 The steam cycle
172 8.8 Properties of steam 172 8.9 Reference information 175 8.10 The gas
turbine (GT) cycle 175 Section 9: Basic Fluid Mechanics and Aerodynamics
178 9.1 Basic properties 178 9.2 Flow equations 180 9.3 Flow regimes 186
9.4 Boundary layers 189 9.5 Isentropic flow 191 9.6 Compressible
one-dimensional flow 191 9.7 Normal shock waves 192 9.8 Axisymmetric flows
195 9.9 Drag coefficients 195 9.10 General airfoil theory 197 9.11 Airfoil
coefficients 198 9.12 Pressure distributions 200 9.13 Aerodynamic centre
200 9.14 Centre of pressure 201 9.15 Supersonic conditions 202 9.16 Wing
loading: semi-ellipse assumption 204 Section 10: Fluid Equipment 206 10.1
Turbines 206 10.2 Refrigeration systems 207 10.3 Diesel engines 209 10.4
Heat exchangers 210 10.5 Centrifugal pumps 212 10.6 Impeller types 214
Section 11: Pressure Vessels 216 11.1 Vessel codes and standards 216 11.2
Pressure vessel design features 219 11.3 Cylindrical pressure vessel design
stresses 220 11.4 Stress categories 221 11.5 Analysis of stress
combinations 222 11.6 Vessel certification 223 11.7 Flanges 223 Section 12:
Materials 225 12.1 Observing crystals: order and disorder 225 12.2 Carbon
steels 226 12.3 Low-alloy steels 227 12.4 Alloy steels 227 12.5 Cast iron
(CI) 228 12.6 Stainless steels 230 12.7 Non-ferrous alloys 233 12.8 Nickel
alloys 233 12.9 Zinc alloys 234 12.10 Copper alloys 234 12.11 Aluminium
alloys 235 12.12 Titanium alloys 236 12.13 Engineering plastics 237 12.14
Material traceability and documentation 238 12.15 Corrosion 239 Section 13:
Machine Elements 244 13.1 Screw fasteners 244 13.2 Bearings 247 13.3 Ball
and roller bearings 248 13.4 Bearing lifetime 249 13.5 Coefficient of
friction 250 13.6 Gear trains 251 13.7 Seals 254 13.8 Shaft couplings 257
13.9 Cam mechanisms 259 13.10 Clutches 261 13.11 Pulley mechanisms 264
13.12 Drive types 266 Section 14: Quality Assurance and Quality Control 267
14.1 Quality assurance: ISO 9001: 2008 267 14.2 Quality system
certification 268 14.3 The ISO 9001 standard 269 14.4 Taguchi methods 271
14.5 Statistical process control (SPC) 272 14.6 Normal distribution 272
14.7 The binomial and poisson distributions 274 14.8 Reliability 274 14.9
Improving design reliability: main principles 277 14.10 'Design for
reliability' - a new approach 278 Section 15: Project Engineering 281 15.1
Project planning 281 15.2 Critical path analysis (CPA) 282 15.3 Planning
with Gantt charts 283 15.4 Rapid prototyping 284 15.5 Value analysis 285
Section 16: Welding 286 16.1 Welding processes 286 16.2 Weld types and
orientation 289 16.3 Welding symbols 292 16.4 Welding defects 295 16.5
Welding documentation 297 Section 17: Non-Destructive Testing (NDT) 299
17.1 Non-destructive testing acronyms 299 17.2 Visual examination 301 17.3
Dye penetrant (DP) testing 301 17.4 Magnetic particle (MP) testing 302 17.5
Ultrasonic testing (UT) 303 17.6 Radiographic testing (RT) 313 Section 18:
Surface Protection 318 18.1 Painting 318 18.2 Galvanizing 320 18.3 Chrome
plating 320 18.4 Rubber linings 321 Section 19: Metallurgical Terms 324
Foreword xi Preface xiii Introduction - The Role of Technical Standards xv
Section 1: Engineering Careers 1 1.1 Introduction: what is an engineer? 1
1.2 A rough guide to industry breakdown 3 1.3 Training and professional
development 4 1.4 Degrees of (engineering) excellence 5 1.5 Degrees and how
to pass them 9 1.6 Do you have any . . . experience? 12 1.7 Final cut - job
interviews 14 Section 2: Units 18 2.1 The Greek alphabet 18 2.2 Units
systems 19 2.3 Units and conversions 21 2.4 Consistency of units 32 2.5
Dimensional analysis 36 2.6 Essential engineering mathematics 38 2.7 Maths
and the real world? 40 Section 3: Engineering Design - Process and
Principles 49 3.1 Engineering problem-solving 49 3.2 Problem types and
methodologies 49 3.3 Design principles 51 3.4 The engineering design
process 52 3.5 Design as a systematic activity (the 'pugh' method) 53 3.6
The innovation model 53 3.7 Creativity tools 57 3.8 The product design
specification (PDS) 58 3.9 Presenting technical information 60 3.10 The
anatomy of mechanical design 79 3.11 Safety in design - principles and
practice 89 3.12 Design by nature - project toucan 105 Section 4: Basic
Mechanical Design 110 4.1 Engineering abbreviations 110 4.2 Datums and
tolerances - principles 112 4.3 Toleranced dimensions 113 4.4 General
tolerances 114 4.5 Holes 115 4.6 Screw threads 116 4.7 Limits and fits 117
4.8 Surface finish 119 Section 5: Motion 122 5.1 Making sense of
equilibrium 122 5.2 Motion equations 123 5.3 Newton's laws of motion 124
5.4 Simple harmonic motion (SHM) 125 5.5 Understanding acceleration 126 5.6
Dynamic balancing 126 5.7 Vibration 128 5.8 Machine vibration 129 5.9
Machinery noise 130 Section 6: Deformable Body Mechanics 133 6.1 Quick
reference - mechanical notation 133 6.2 Engineering structures - so where
are all the pin joints? 135 6.3 Simple stress and strain 136 6.4 Simple
elastic bending 138 6.5 Slope and deflection of beams 140 6.6 Torsion 142
6.7 Thin cylinders 145 6.8 Cylindrical vessels with hemispherical ends 146
6.9 Thick cylinders 147 6.10 Buckling of struts 148 6.11 Flat circular
plates 149 6.12 Stress concentration factors 151 Section 7: Material
Failure 155 7.1 How materials fail 155 7.2 LEFM method 156 7.3 Multi-axis
stress states 157 7.4 Fatigue 158 7.5 Factors of safety 161 7.6 United
states practice 161 7.7 Ultimate jigsaw - what everything is made of 162
Section 8: Thermodynamics and Cycles 166 8.1 Quick reference: symbols -
thermodynamics 166 8.2 Basic thermodynamic laws 167 8.3 Entropy 169 8.4
Enthalpy 169 8.5 Other definitions 170 8.6 Cycles 170 8.7 The steam cycle
172 8.8 Properties of steam 172 8.9 Reference information 175 8.10 The gas
turbine (GT) cycle 175 Section 9: Basic Fluid Mechanics and Aerodynamics
178 9.1 Basic properties 178 9.2 Flow equations 180 9.3 Flow regimes 186
9.4 Boundary layers 189 9.5 Isentropic flow 191 9.6 Compressible
one-dimensional flow 191 9.7 Normal shock waves 192 9.8 Axisymmetric flows
195 9.9 Drag coefficients 195 9.10 General airfoil theory 197 9.11 Airfoil
coefficients 198 9.12 Pressure distributions 200 9.13 Aerodynamic centre
200 9.14 Centre of pressure 201 9.15 Supersonic conditions 202 9.16 Wing
loading: semi-ellipse assumption 204 Section 10: Fluid Equipment 206 10.1
Turbines 206 10.2 Refrigeration systems 207 10.3 Diesel engines 209 10.4
Heat exchangers 210 10.5 Centrifugal pumps 212 10.6 Impeller types 214
Section 11: Pressure Vessels 216 11.1 Vessel codes and standards 216 11.2
Pressure vessel design features 219 11.3 Cylindrical pressure vessel design
stresses 220 11.4 Stress categories 221 11.5 Analysis of stress
combinations 222 11.6 Vessel certification 223 11.7 Flanges 223 Section 12:
Materials 225 12.1 Observing crystals: order and disorder 225 12.2 Carbon
steels 226 12.3 Low-alloy steels 227 12.4 Alloy steels 227 12.5 Cast iron
(CI) 228 12.6 Stainless steels 230 12.7 Non-ferrous alloys 233 12.8 Nickel
alloys 233 12.9 Zinc alloys 234 12.10 Copper alloys 234 12.11 Aluminium
alloys 235 12.12 Titanium alloys 236 12.13 Engineering plastics 237 12.14
Material traceability and documentation 238 12.15 Corrosion 239 Section 13:
Machine Elements 244 13.1 Screw fasteners 244 13.2 Bearings 247 13.3 Ball
and roller bearings 248 13.4 Bearing lifetime 249 13.5 Coefficient of
friction 250 13.6 Gear trains 251 13.7 Seals 254 13.8 Shaft couplings 257
13.9 Cam mechanisms 259 13.10 Clutches 261 13.11 Pulley mechanisms 264
13.12 Drive types 266 Section 14: Quality Assurance and Quality Control 267
14.1 Quality assurance: ISO 9001: 2008 267 14.2 Quality system
certification 268 14.3 The ISO 9001 standard 269 14.4 Taguchi methods 271
14.5 Statistical process control (SPC) 272 14.6 Normal distribution 272
14.7 The binomial and poisson distributions 274 14.8 Reliability 274 14.9
Improving design reliability: main principles 277 14.10 'Design for
reliability' - a new approach 278 Section 15: Project Engineering 281 15.1
Project planning 281 15.2 Critical path analysis (CPA) 282 15.3 Planning
with Gantt charts 283 15.4 Rapid prototyping 284 15.5 Value analysis 285
Section 16: Welding 286 16.1 Welding processes 286 16.2 Weld types and
orientation 289 16.3 Welding symbols 292 16.4 Welding defects 295 16.5
Welding documentation 297 Section 17: Non-Destructive Testing (NDT) 299
17.1 Non-destructive testing acronyms 299 17.2 Visual examination 301 17.3
Dye penetrant (DP) testing 301 17.4 Magnetic particle (MP) testing 302 17.5
Ultrasonic testing (UT) 303 17.6 Radiographic testing (RT) 313 Section 18:
Surface Protection 318 18.1 Painting 318 18.2 Galvanizing 320 18.3 Chrome
plating 320 18.4 Rubber linings 321 Section 19: Metallurgical Terms 324
Section 1: Engineering Careers 1 1.1 Introduction: what is an engineer? 1
1.2 A rough guide to industry breakdown 3 1.3 Training and professional
development 4 1.4 Degrees of (engineering) excellence 5 1.5 Degrees and how
to pass them 9 1.6 Do you have any . . . experience? 12 1.7 Final cut - job
interviews 14 Section 2: Units 18 2.1 The Greek alphabet 18 2.2 Units
systems 19 2.3 Units and conversions 21 2.4 Consistency of units 32 2.5
Dimensional analysis 36 2.6 Essential engineering mathematics 38 2.7 Maths
and the real world? 40 Section 3: Engineering Design - Process and
Principles 49 3.1 Engineering problem-solving 49 3.2 Problem types and
methodologies 49 3.3 Design principles 51 3.4 The engineering design
process 52 3.5 Design as a systematic activity (the 'pugh' method) 53 3.6
The innovation model 53 3.7 Creativity tools 57 3.8 The product design
specification (PDS) 58 3.9 Presenting technical information 60 3.10 The
anatomy of mechanical design 79 3.11 Safety in design - principles and
practice 89 3.12 Design by nature - project toucan 105 Section 4: Basic
Mechanical Design 110 4.1 Engineering abbreviations 110 4.2 Datums and
tolerances - principles 112 4.3 Toleranced dimensions 113 4.4 General
tolerances 114 4.5 Holes 115 4.6 Screw threads 116 4.7 Limits and fits 117
4.8 Surface finish 119 Section 5: Motion 122 5.1 Making sense of
equilibrium 122 5.2 Motion equations 123 5.3 Newton's laws of motion 124
5.4 Simple harmonic motion (SHM) 125 5.5 Understanding acceleration 126 5.6
Dynamic balancing 126 5.7 Vibration 128 5.8 Machine vibration 129 5.9
Machinery noise 130 Section 6: Deformable Body Mechanics 133 6.1 Quick
reference - mechanical notation 133 6.2 Engineering structures - so where
are all the pin joints? 135 6.3 Simple stress and strain 136 6.4 Simple
elastic bending 138 6.5 Slope and deflection of beams 140 6.6 Torsion 142
6.7 Thin cylinders 145 6.8 Cylindrical vessels with hemispherical ends 146
6.9 Thick cylinders 147 6.10 Buckling of struts 148 6.11 Flat circular
plates 149 6.12 Stress concentration factors 151 Section 7: Material
Failure 155 7.1 How materials fail 155 7.2 LEFM method 156 7.3 Multi-axis
stress states 157 7.4 Fatigue 158 7.5 Factors of safety 161 7.6 United
states practice 161 7.7 Ultimate jigsaw - what everything is made of 162
Section 8: Thermodynamics and Cycles 166 8.1 Quick reference: symbols -
thermodynamics 166 8.2 Basic thermodynamic laws 167 8.3 Entropy 169 8.4
Enthalpy 169 8.5 Other definitions 170 8.6 Cycles 170 8.7 The steam cycle
172 8.8 Properties of steam 172 8.9 Reference information 175 8.10 The gas
turbine (GT) cycle 175 Section 9: Basic Fluid Mechanics and Aerodynamics
178 9.1 Basic properties 178 9.2 Flow equations 180 9.3 Flow regimes 186
9.4 Boundary layers 189 9.5 Isentropic flow 191 9.6 Compressible
one-dimensional flow 191 9.7 Normal shock waves 192 9.8 Axisymmetric flows
195 9.9 Drag coefficients 195 9.10 General airfoil theory 197 9.11 Airfoil
coefficients 198 9.12 Pressure distributions 200 9.13 Aerodynamic centre
200 9.14 Centre of pressure 201 9.15 Supersonic conditions 202 9.16 Wing
loading: semi-ellipse assumption 204 Section 10: Fluid Equipment 206 10.1
Turbines 206 10.2 Refrigeration systems 207 10.3 Diesel engines 209 10.4
Heat exchangers 210 10.5 Centrifugal pumps 212 10.6 Impeller types 214
Section 11: Pressure Vessels 216 11.1 Vessel codes and standards 216 11.2
Pressure vessel design features 219 11.3 Cylindrical pressure vessel design
stresses 220 11.4 Stress categories 221 11.5 Analysis of stress
combinations 222 11.6 Vessel certification 223 11.7 Flanges 223 Section 12:
Materials 225 12.1 Observing crystals: order and disorder 225 12.2 Carbon
steels 226 12.3 Low-alloy steels 227 12.4 Alloy steels 227 12.5 Cast iron
(CI) 228 12.6 Stainless steels 230 12.7 Non-ferrous alloys 233 12.8 Nickel
alloys 233 12.9 Zinc alloys 234 12.10 Copper alloys 234 12.11 Aluminium
alloys 235 12.12 Titanium alloys 236 12.13 Engineering plastics 237 12.14
Material traceability and documentation 238 12.15 Corrosion 239 Section 13:
Machine Elements 244 13.1 Screw fasteners 244 13.2 Bearings 247 13.3 Ball
and roller bearings 248 13.4 Bearing lifetime 249 13.5 Coefficient of
friction 250 13.6 Gear trains 251 13.7 Seals 254 13.8 Shaft couplings 257
13.9 Cam mechanisms 259 13.10 Clutches 261 13.11 Pulley mechanisms 264
13.12 Drive types 266 Section 14: Quality Assurance and Quality Control 267
14.1 Quality assurance: ISO 9001: 2008 267 14.2 Quality system
certification 268 14.3 The ISO 9001 standard 269 14.4 Taguchi methods 271
14.5 Statistical process control (SPC) 272 14.6 Normal distribution 272
14.7 The binomial and poisson distributions 274 14.8 Reliability 274 14.9
Improving design reliability: main principles 277 14.10 'Design for
reliability' - a new approach 278 Section 15: Project Engineering 281 15.1
Project planning 281 15.2 Critical path analysis (CPA) 282 15.3 Planning
with Gantt charts 283 15.4 Rapid prototyping 284 15.5 Value analysis 285
Section 16: Welding 286 16.1 Welding processes 286 16.2 Weld types and
orientation 289 16.3 Welding symbols 292 16.4 Welding defects 295 16.5
Welding documentation 297 Section 17: Non-Destructive Testing (NDT) 299
17.1 Non-destructive testing acronyms 299 17.2 Visual examination 301 17.3
Dye penetrant (DP) testing 301 17.4 Magnetic particle (MP) testing 302 17.5
Ultrasonic testing (UT) 303 17.6 Radiographic testing (RT) 313 Section 18:
Surface Protection 318 18.1 Painting 318 18.2 Galvanizing 320 18.3 Chrome
plating 320 18.4 Rubber linings 321 Section 19: Metallurgical Terms 324