Table of Contents

• A. PREFACE
• B. ACKNOWLEDGMENTS
• C. ABOUT THE AUTHOR
• 1. PROPERTIES OF ENGINEERING MATERIALS
• 2. STATIC STRESSES IN MACHINE ELEMENTS
• 3. DYNAMIC STRESSES IN MACHINE ELEMENTS 2
• 4. STRESS CONCENTRATION AND STRESS INTENSITY IN MACHINE MEMBERS
• 5. DESIGN OF MACHINE ELEMENTS FOR STRENGTH
• 6. CAMS
• 7. PIPES, TUBES, AND CYLINDERS
• 8. DESIGN OF PRESSURE VESSELS, PLATES, AND SHELLS
• 9. DESIGN OF POWER BOILERS
• 10. ROTATING DISKS AND CYLINDERS 1
• 11. METAL FITS, TOLERANCES, AND SURFACE TEXTURE
• 12. DESIGN OF WELDED JOINTS
• 13. RIVETED JOINTS
• 14. DESIGN OF SHAFTS
• 15. FLYWHEELS
• 16. PACKINGS AND SEALS
• 17. KEYS, PINS, COTTERS, AND JOINTS
• 18. THREADED FASTENERS AND SCREWS FOR POWER TRANSMISSION
• 19. COUPLINGS, CLUTCHES, AND BRAKES
• 20. SPRINGS
• 21. FLEXIBLE MACHINE ELEMENTS
• 22. MECHANICAL VIBRATIONS
• 23. DESIGN OF BEARINGS AND TRIBOLOGY
• 24. MISCELLANEOUS MACHINE ELEMENTS 2 , 3
• 25. ELEMENTS OF MACHINE TOOL DESIGN
• 26. RETAINING RINGS AND CIRCLIPS
• 27. APPLIED ELASTICITY

• table (534)
• figure (192)

Expanded Table of Contents

• A. PREFACE
• B. ACKNOWLEDGMENTS
• C. ABOUT THE AUTHOR
• 1. PROPERTIES OF ENGINEERING MATERIALS
  • SYMBOLS 5 , 6
  • SUFFIXES
  • ABBREVIATIONS
  • HARDNESS
  • WOOD
• 2. STATIC STRESSES IN MACHINE ELEMENTS
  • SYMBOLS 3 , 4 , 5
  • SIMPLE STRESS AND STRAIN
  • STRESSES
  • PURE SHEAR (FIG. 2–5)
  • BIAXIAL STRESSES (FIG. 2–6)
  • BIAXIAL STRESSES COMBINED WITH SHEAR (FIG. 2–7)
  • MOHR’S CIRCLE
  • TRIAXIAL STRESS (Figs. 2–10 and 2–11)
  • MOHR’S CIRCLE
  • STRESS-STRAIN RELATIONS
  • STATISTICALLY INDETERMINATE MEMBERS (Fig. 2–13)
  • THERMAL STRESS AND STRAIN
  • COMPOUND BARS
  • EQUIVALENT OR COMBINED MODULUS OF ELASTICITY OF COMPOUND BARS
  • POWER
  • TORSION (FIG. 2–18)
  • BENDING (FIG. 2–19)
  • ECCENTRIC LOADING
  • COLUMN FORMULAS (Fig. 2–25)
  • HERTZ CONTACT STRESS
  • DESIGN OF MACHINE ELEMENTS AND STRUCTURES MADE OF COMPOSITE
  • FILAMENT REINFORCED STRUCTURES (Fig. 2–34)
  • FILAMENT BINDER COMPOSITE (Fig. 2–36)
  • FILAMENT-OVERLAY COMPOSITE
  • FORMULAS AND DATA FOR VARIOUS CROSS SECTIONS OF MACHINE ELEMENTS
• 3. DYNAMIC STRESSES IN MACHINE ELEMENTS 2
  • SYMBOLS 2 , 3
  • INERTIA FORCE
  • ENERGY METHOD
  • IMPACT STRESSES
  • BENDING STRESS IN BEAMS DUE TO IMPACT
  • TORSION OF BEAM/BAR DUE TO IMPACT (Fig. 3–7)
  • LONGITUDINAL STRESS-WAVE IN ELASTIC MEDIA (Fig. 3–8)
  • LONGITUDINAL IMPACT ON A LONG BAR
  • TORSIONAL IMPACT ON A BAR
  • INERTIA IN COLLISION OF ELASTIC BODIES
  • RESILIENCE
• 4. STRESS CONCENTRATION AND STRESS INTENSITY IN MACHINE MEMBERS
  • SYMBOLS 6 , 7 , 8
  • STRESS CONCENTRATION IN FLANGED PIPE SUBJECTED TO AXIAL EXTERNAL FORCE
  • REDUCTION OR MITIGATION OF STRESS CONCENTRATIONS
  • STRESS INTENSITY FACTOR OR FRACTURE TOUGHNESS FACTOR
• 5. DESIGN OF MACHINE ELEMENTS FOR STRENGTH
  • SYMBOLS 5 , 6
  • STATIC LOADS
  • INDEX OF SENSITIVITY
  • SURFACE CONDITION (Fig. 5–3)
  • SAFETY FACTOR
  • THEORIES OF FAILURE
  • CYCLIC LOADS (Figs. 5–4 and 5–5)
  • STRESS-STRESS AND STRESS-LOAD RELATIONS
  • THE COMBINED STRESSES
  • COMBINED STRESSES IN TERMS OF LOADS
  • CREEP
  • RELIABILITY
  • REFERENCES
• 6. CAMS
  • SYMBOLS 3 , 4
  • RADIUS OF CURVATURE OF DISK CAM WITH ROLLER FOLLOWER
  • RADIUS OF CURVATURE OF DISK CAM WITH FLAT-FACED FOLLOWER
  • PRESSURE ANGLE (Figs. 6–3 and 6–4)
  • RADIAL CAM-TRANSLATING ROLLER-FOLLOWER-FORCE ANALYSIS (Fig. 6–5)
  • SIDE THRUST (Fig. 6–5)
  • BASIC SPIRAL CONTOUR CAM
  • BASIC SPIRAL CONTOUR CAM CONSTANTS
  • HERTZ CONTACT STRESSES
• 7. PIPES, TUBES, AND CYLINDERS
  • SYMBOLS 5 , 6 , 9
  • LONG THIN TUBES WITH INTERNAL PRESSURE
  • ENGINES AND PRESSURE CYLINDERS
  • OPENINGS IN CYLINDRICAL DRUMS
  • THIN TUBES WITH EXTERNAL PRESSURE
  • SHORT TUBES WITH EXTERNAL PRESSURES
  • LAMÉ’S EQUATIONS FOR THICK CYLINDERS
  • DEFORMATION OF A THICK CYLINDER
  • COMPOUND CYLINDERS
  • THERMAL STRESSES IN LONG HOLLOW CYLINDERS
  • CLAVARINO’S EQUATION FOR CLOSED CYLINDERS
  • BIRNIE’S EQUATIONS FOR OPEN CYLINDERS
  • BARLOW’S EQUATION
• 8. DESIGN OF PRESSURE VESSELS, PLATES, AND SHELLS
  • SYMBOLS 13 , 14 , 15
  • PLATES 13 , 14 , 15
  • SHELLS (UNFIRED PRESSURE VESSEL)
  • FORMED HEADS UNDER PRESSURE ON CONCAVE SIDE
  • FORMED HEADS UNDER PRESSURE ON CONVEX SIDE
  • UNSTAYED FLAT HEADS AND COVERS (Fig. 8–9, Table 8–6 )
  • STAYED FLAT AND BRACED PLATES OR SURFACES (Figs. 8–11 and 8–12)
  • OPENINGS AND REINFORCEMENT
  • LIGAMENTS
  • BOLTED FLANGE CONNECTIONS
  • INTEGRAL-TYPE FLANGES AND LOOSE-TYPE FLANGES WITH A HUB
  • LOOSE-TYPE FLANGES WITHOUT HUB AND LOOSE-TYPE FLANGES WITH HUB WHICH THE DESIGNER CHOOSES TO CALCULATE
• 9. DESIGN OF POWER BOILERS
  • SYMBOLS 6 , 7
  • BOILER TUBES AND PIPES
  • DISHED HEADS
  • UNSTAYED FLAT HEADS AND COVERS
  • COMBUSTION CHAMBER AND FURNACES
  • THE MAXIMUM ALLOWABLE PRESSURE FOR SPECIAL FURNACES HAVING WALLS REINFORCED BY RIBS, RINGS, AND CORRUGATIONS
  • FINAL RATIOS 1
• 10. ROTATING DISKS AND CYLINDERS 1
  • SYMBOLS 1
  • DISK OF UNIFORM STRENGTH ROTATING AT ω rad/s (Fig. 10–1)
  • SOLID DISK ROTATING AT ω rad/s
  • HOLLOW DISK ROTATING AT ω rad/s (Fig. 10–2)
  • SOLAD CYLENDER ROTATING AT ω rad/s
  • HOLLOW CYLINDER ROTATING AT ω rad/s
  • SOLID THIN UNIFORM DISK ROTATING AT ω rad/s UNDER EXTERNAL PRESSURE p o (Fig. 10–3)
  • HOLLOW CYLINDER OF UNIFORM THICKNESS ROTATING AT ω rad/s. SUBJECT TO INTERNAL (p i) AND EXTERNAL (p o) PRESSURES (Fig. 10–4)
  • ROTATING THICK DISK AND CYLINDER WITH UNIFORM THICKNESS SUB SUBJECT TO THERMAL STRESSES
  • ROTATING LONG HOLLOW CYLINDER WITH UNIFORM THICKNESS ROTATING AT ω rad/s SUBJECT TO THERMAL STRESS
  • DEFLECTION OF A ROTATING DISK OF UNIFORM THICKNESS IN RADIAL DIRECTION WITH A CENTRAL CIRCULAR CUTOUT
• 11. METAL FITS, TOLERANCES, AND SURFACE TEXTURE
  • SYMBOLS 1 , 2 , 3
  • SUFFIXES
  • PRESS AND SHRINK FITS
  • INTERFERENCE FITS
  • TOLERANCES AND ALLOWANCES
• 12. DESIGN OF WELDED JOINTS
  • SYMBOLS 2 , 3 , 4
  • FILLET WELD
  • BUTT WELD
  • TRANSVERSE FILLET WELD
  • PARALLEL FILLET WELD (Fig. 12–5)
  • LENGTH OF WELD
  • ECCENTRICITY IN A FILLET WELD
  • ECCENTRIC LOADS
  • STRESSES
  • FATIGUE STRENGTH
  • DESIGN STRESS OF WELDS
  • THE STRENGTH ANALYSIS OF A TYPICAL WELD JOINT SUBJECTED TO ECCENTRIC LOADING (Fig. 12–8) 2 , 3 , 4
  • COMBINED FORCE DUE TO P x, P y, AND P z AT POINT Q (Fig. 12–8)
  • GENERAL
• 13. RIVETED JOINTS
  • SYMBOLS 2 , 3 , 4
  • PRESSURE VESSELS
  • PITCHES
  • MARGIN
  • COVER PLATES
  • STRENGTH ANALYSIS OF TYPICAL RIVETED JOINT (Fig. 13–2)
  • EFFICIENCY OF THE RIVETED JOINT
  • THE LENGTH OF THE SHANK OF RIVET(Fig. 13–3)
  • STRUCTURAL JOINT
  • RIVETED BRACKET (Fig. 13–5)
• 14. DESIGN OF SHAFTS
  • SYMBOLS 1 , 2 , 3
  • SUFFIXES
  • SOLID SHAFTS
  • HOLLOW SHAFTS
  • COMPARISON BETWEEN DIAMETERS OF SOLID AND HOLLOW SHAFTS OF SAME LENGTH
  • STIFFNESS
  • RIGIDITY
  • EFFECT OF KEYWAYS
  • THE BUCKLING FACTOR
  • SHAFTS SUBJECTED TO VARIOUS STRESSES
  • GENERAL
• 15. FLYWHEELS
  • SYMBOLS 1 , 2
  • KINETIC ENERGY
  • FLYWHEEL EFFECT OR POLAR MOMENT OF INERTIA
  • STRESSES IN RIM (Figs. 15–2 and 15–3)
  • STRESSES IN ARMS (Fig. 15–2)
  • RIM DIMENSIONS (Fig. 15–2)
  • ARMS (Fig. 15–2)
  • REFERENCES
• 16. PACKINGS AND SEALS
  • SYMBOLS 1 , 2
  • ELASTIC PACKING 1 – 3
  • FRICTION
  • METALLIC GASKETS (Fig. 16–1)
  • SELF-SEALING PACKING (Fig. 16–2)
  • PACKINGLESS SEALS
  • STRAIGHT-CUT SEALINGS (Fig. 16–3a)
  • V-RING PACKING
  • BOLT LOADS IN GASKET JOINT ACCORDING TO ASME BOILER AND PRESSURE VESSEL CODE (Fig. 16–3b) 4
  • FLANGE DESIGN BOLT LOAD W
• 17. KEYS, PINS, COTTERS, AND JOINTS
  • SYMBOLS 4 , 5 , 6
  • SUFFIXES
  • ROUND OR PIN KEYS
  • STRENGTH OF KEYS
  • TAPER KEY (Fig. 17–2, Table 17–3)
  • FRICTION OF FEATHER KEYS (Fig. 17–3)
  • SPLINES
  • INDIAN STANDARD (Figs. 17–4 and 17–5, Tables 17–14 and 17–15)
  • PINS
  • COTTER
• 18. THREADED FASTENERS AND SCREWS FOR POWER TRANSMISSION
  • SYMBOLS 5 , 6 , 7
  • SUFFIXES
  • SCREWS
  • TENSION BOLTED JOINT UNDER EXTERNAL LOAD
  • PRELOADED BOLT (Fig. 18–3B)
  • GASKET JOINTS
  • PRELOADED BOLTS UNDER DYNAMIC LOADING
  • LOADING
  • GENERAL
• 19. COUPLINGS, CLUTCHES, AND BRAKES
  • SYMBOLS 8 , 9 , 10
  • SUFFIXES
  • COUPLINGS
  • MARINE TYPE OF FLANGE COUPLING
  • PULLEY FLANGE COUPLING (Fig. 19–3)
  • PIN OR BUSH TYPE FLEXIBLE COUPLING (Fig. 19–4, Table 19–3)
  • OLDHAM COUPLING (Fig. 19–5)
  • MUFF OR SLEEVE COUPLING (Fig. 19–6)
  • FAIRBAIRN’S LAP-BOX COUPLING (Fig. 19–7)
  • SPLIT MUFF COUPLING (Fig. 19–8)
  • SLIP COUPLING (Fig. 19–9)
  • SELLERS’ CONE COUPLING (Fig. 19–10)
  • HYDRAULIC COUPLINGS (Fig. 19–11)
  • CLUTCHES POSITIVE CLUTCHES (Fig. 19–12)
  • FRICTION CLUTCHES
  • DISK CLUTCHES (Fig. 19–14)
  • DIMENSIONS OF DISKS (Fig. 19–15)
  • DESIGN OF A TYPICAL CLUTCH OPERATING LEVER (Fig. 19–16)
  • EXPANDING-RING CLUTCHES (Fig. 19–17)
  • CENTRIFUGAL CLUTCH (Fig. 19–19)
  • BRAKES ENERGY EQUATIONS
  • BRAKE FORMULAS
  • CONE BRAKES (Fig. 19–24)
  • CONSIDERING THE LEVER (Fig. 19–24)
  • DISK BRAKES
  • INTERNAL EXPANDING-RIM BRAKE
  • EXTERNAL CONTRACTING-RIM BRAKE
  • HEATING OF BRAKES
• 20. SPRINGS
  • SYMBOLS
  • SUFFIXES
  • LEAF SPRINGS (Table 20–1) 1 , 2 , 3
  • LAMINATED SPRING (Fig. 20–1) 5
  • LAMINATED SPRINGS WITH INITIAL CURVATURE
  • DISK SPRINGS (BELLEVILLE SPRINGS)
  • HELICAL SPRINGS (Fig. 20–4) 5
  • SPRING SCALE (Fig. 20–6)
  • RESILIENCE
  • RECTANGULAR SECTION SPRINGS (Fig. 20–7a) 5
  • SQUARE SECTION SPRING
  • SELECTION OF MATERIALS AND STRESSES FOR SPRINGS
  • DESIGN OF HELICAL COMPRESSION SPRINGS
  • STABILITY OF HELICAL SPRINGS
  • REPEATED LOADING (Fig. 20–9)
  • CONCENTRIC SPRINGS (Fig. 20–10)
  • VIBRATION OF HELICAL SPRINGS
  • STRESS WAVE PROPAGATION IN CYLINDRICAL SPRINGS UNDER IMPACT LOAD
  • HELICAL EXTENSION SPRINGS (Fig. 20–11 to 20–13)
  • CONICAL SPRINGS [Fig. 20–14(a)]
  • NONMETALLIC SPRINGS
  • TORSION SPRINGS (Fig. 20–16) 7
• 21. FLEXIBLE MACHINE ELEMENTS
  • SYMBOLS 11 , 12 , 13
  • SUFFIXES
  • BELTS
  • BELT LENGTHS AND CONTACT ANGLES FOR OPEN AND CROSSED BELTS (Fig. 21–1A)
  • PULLEYS (Fig. 21–2 and Fig. 21–3)
  • INDIAN STANDARD SPECIFICATION
  • V-BELT
  • MINIMUM ALLOWANCES FOR ADJUSTMENT OF CENTERS FOR TWO TRANSMISSION PULLEYS
  • INITIAL TENSION
  • SYNCHRONOUS BELT DRIVE ANALYSIS
  • CONVEYOR (Tables 21–12, 21–14, 21–20, and 21–31)
  • SHORT CENTER DRIVE
  • ROPES
  • HOISTING TACKLE
  • DRUMS
  • HOLDING CAPACITY OF WIRE ROPE REELS
  • WIRE ROPE CONSTRUCTION
  • CHAINS
  • CHECK FOR ACTUAL SAFETY FACTOR
  • REFERENCES
• 22. MECHANICAL VIBRATIONS
  • SYMBOLS
  • SIMPLE HARMONIC MOTION (Fig. 22–1)
  • ENERGY
  • LOGARITHMIC DECREMENT (Fig. 22–8)
  • EQUIVALENT SPRING CONSTANTS (Fig. 22–9)
  • UNBALANCE DUE TO ROTATING MASS (Fig. 22–13)
  • WHIPPING OF ROTATING SHAFT (Fig. 22–16)
  • EXCITATION OF A SYSTEM BY MOTION OF SUPPORT (Fig. 22–17)
  • INSTRUMENT FOR VIBRATION MEASURING (Fig. 22–18)
  • ISOLATION OF VIBRATION (Fig. 22–19)
  • UNDAMPED TWO-DEGREE-OF-FREEDOM SYSTEM (Fig. 22–22) WITHOUT EXTERNAL FORCE
  • DYNAMIC VIBRATION ABSORBER (Fig. 22–23)
  • TORSIONAL VIBRATING SYSTEMS
• 23. DESIGN OF BEARINGS AND TRIBOLOGY
  • SLIDING CONTACT BEARINGS 1 , 2 , 11
  • SHEAR STRESS 1 , 2
  • VISCOSITY
  • HAGEN-POISEUILLE LAW
  • VERTICAL SHAFT ROTATING IN A GUIDE BEARING (Fig. 23–5)
  • BEARING PRESSURE (Fig. 23–9)
  • INFLUENCE OF MISALIGNMENT OF SHAFT IN BEARING
  • POWER LOSS
  • PARTIAL JOURNAL BEARING (Fig. 23–25)
  • INFLUENCE OF END LEAKAGE
  • FRICTION IN A FULL JOURNAL BEARING WITH END LEAKAGE FROM BEARING
  • OIL FLOW THROUGH JOURNAL BEARING
  • THERMAL EQUILIBRIUM OF JOURNAL BEARING
  • EXTERNAL PRESSURIZED BEARING OR HYDROSTATIC BEARING: JOURNAL BEARING (Fig. 23–47)
  • IDEALIZED SLIDER BEARING (Fig. 23–48)
  • DESIGN OF VERTICAL, PIVOT, AND COLLAR BEARING
  • PLAIN THRUST BEARING (Fig. 23–50b)
  • OIL FILM THICKNESS
  • COEFFICIENT OF FRICTION
  • HYDROSTATIC BEARING: STEP-BEARING
  • SPHERICAL BEARINGS (Fig. 23–54)
  • LIFT
  • ROLLING CONTACT BEARINGS 1
  • ROLLING ELEMENTS BEARINGS
  • SPEED
  • GEAR-TOOTH LOAD
  • STATIC LOADING
  • BASIC STATIC LOAD RATING AS PER INDIAN STANDARDS
  • THRUST BEARINGS
  • CATALOGUE INFORMATION FROM FAG FOR THE SELECTION OF BEARING
  • DYNAMIC LOAD RATING OF BEARINGS
  • LIFE
  • BASIC DYNAMIC LOAD RATING AS PER FAG CATALOGUE
  • LIFE ADJUSTMENT FACTORS
  • BASIC DYNAMIC LOAD RATING OF BEARINGS AS PER INDIAN STANDARDS
  • THRUST BEARINGS
  • THE EQUIVALENT DYNAMIC LOAD FOR ANGULAR CONTACT BALL BEARINGS
  • THE EQUIVALENT DYNAMIC LOAD FOR TAPERED ROLLER BEARINGS
  • DIMENSIONS, BASIC LOAD RATING CAPACITY, FATIGUE LOAD LIMIT AND MAXIMUM PERMISSIBLE SPEED OF ROLLING CONTACT BEARINGS
  • NEEDLE BEARING LOAD CAPACITY
  • PRESSURE
  • HERTZ-CONTACT PRESSURE
  • SELECTION OF FIT FOR BEARINGS
  • FRICTION AND WEAR 1
  • FRICTION
  • WEAR AND ABRASION
  • GENERAL
• 24. MISCELLANEOUS MACHINE ELEMENTS 2 , 3
  • CRANKSHAFTS 2 , 3
  • SYMBOLS
  • SUFFIXES
  • FORCE ANALYSIS (Fig. 24–1)
  • SIDE CRANK
  • HOLLOW CRANKPIN
  • DIMENSION OF CRANKSHAFT MAIN BEARING (Fig. 24–2b)
  • PROPORTIONS OF CRANKSHAFTS
  • CENTER CRANK (Fig. 24–6)
  • EQUIVALENT SHAFTS
  • EMPERICAL PROPORTIONS
• 25. ELEMENTS OF MACHINE TOOL DESIGN
  • SYMBOLS
  • METAL CUTTING TOOL DESIGN
  • Tool design
  • Tool signatures
  • MACHINE TOOLS
• 26. RETAINING RINGS AND CIRCLIPS
  • SYMBOLS
  • RETAINING RINGS AND CIRCLIPS:
• 27. APPLIED ELASTICITY
  • SYMBOLS
  • STRESS AT A POINT (Fig. 27–1)
  • EQUATIONS OF EQUILIBRIUM
  • TRANSFORMATION OF STRESS
  • PRINCIPAL STRESSES
  • STRAIN (Fig. 27–6)
  • THREE-DIMENSIONAL STRESS-STRAIN SYSTEM
  • BIAXIAL STRESS-STRAIN SYSTEM
  • SHEAR STRAINS
  • STRAIN AND DISPLACEMENT (Figs. 27–8 and 27–9)
  • BOUNDARY CONDITIONS
  • COMPATIBILITY
  • GENERAL HOOKE’S LAW
  • ARY’S STRESS FUNCTION
  • CYLINDRICAL COORDINATES SYSTEM
  • STRAIN COMPONENTS (Fig. 27–14)
  • AIRY’S STRESS FUNCTION IN POLAR COODRINATES
  • SOLUTION OF ELASTICITY PROBLEMS USING AIRY’S STRESS FUNCTION
  • APPLICATION OF STRESS FUNCTION
  • STRESS DISTRIBUTION IN A FLAT PLATE WITH HOLES OR CUTOUTS UNDER DIFFERENT TYPES OF LOADS
  • ROTATING SOLID DISK WITH UNIFORM THICKNESS, (Fig. 27–22)
  • ROTATING DISK WITH A CENTRAL CIRCULAR HOLE OF UNIFORM THICKNESS, Fig. 27–23
  • ROTATING DISK OF VARIABLE THICKNESS (Fig. 27–24)
  • NEUTRAL HOLES (MANSFIELD THEORY)
  • COMPLEX VARIABLE METHOD APPLIED TO ELASTICITY
  • STRAIN COMBINATIONS
  • PLANE STRAIN (Figs. 27–29 and 24–30)
  • BOUNDARY CONDITIONS
  • FORCE AND COUPLE RESULTANTS AROUND THE BOUNDARY (Fig. 27–31)
  • GENERALIZED PLANE STRESS
  • CONDITIONS ALONG A STRESS-FREE BOUNDARY, Fig. 27–33
  • SOLUTION INVOLVING CIRCULAR BOUNDARIES (Figs. 27–33 and 27–34)
  • APPLICATION OF CONFORMAL TRANSFORMATION (Fig. 27–35)
  • MUSKHELISHVILI’S DIRECT METHOD
  • TORSION (Fig. 25–49)
  • TORSION OF CIRCULAR SHAFT OF VARIABLE DIAMETER (Fig. 27–13)
  • PLATES