ASME RTP 1 2013
$98.04
ASME RTP-1 Reinforced Thermoset Plastic Corrosion-Resistant Equipment
Published By | Publication Date | Number of Pages |
ASME | 2013 | 356 |
This Standard applies to stationary vessels used for the storage, accumulation, or processing of corrosive or other substances at pressures not exceeding 15 psig external and/or 15 psig internal above any hydrostatic head.
PDF Catalog
PDF Pages | PDF Title |
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5 | CONTENTS |
12 | FOREWORD |
13 | STATEMENT OF POLICY ON THE USE OF CERTIFICATION MARKS AND CODE AUTHORIZATION IN ADVERTISING STATEMENT OF POLICY ON THE USE OF ASME MARKING TO IDENTIFY MANUFACTURED ITEMS |
14 | ASME RTP COMMITTEE ROSTER |
16 | INTRODUCTION GENERAL MATERIALS AND ASSEMBLY DESIGN INSPECTION |
17 | SUMMARY OF CHANGES |
21 | Part 1 General Requirements 1- 100 INTRODUCTION 1- 110 Scope 1- 120 Exclusions 1- 130 Application Limitations |
22 | 1- 200 USER’S BASIC REQUIREMENTS SPECIFICATION 1- 210 Service Restrictions 1- 220 Critical Service Requirements |
23 | Tables Table 1- 1 User’s Basic Requirements Specification ( UBRS) ( As Required by the Provisions of ASME RTP- 1) |
24 | Table 1- 1 User’s Basic Requirements Specification ( UBRS) ( Cont’d) ( As Required by the Provisions of ASME RTP- 1) |
25 | Table 1- 1 User’s Basic Requirements Specification ( UBRS) ( Cont’d) ( As Required by the Provisions of ASME RTP- 1) |
26 | Table 1- 1 User’s Basic Requirements Specification ( UBRS) ( Cont’d) ( As Required by the Provisions of ASME RTP- 1) |
27 | 1- 300 FABRICATOR’S DESIGN REPORT 1- 400 INSPECTION 1- 410 Duties of the Certified Individual 1- 420 Qualifications of the Certified Individual 1- 430 Inspector’s Duty |
28 | 1- 440 Access for the Inspector 1- 500 FABRICATOR’S QUALITY CONTROL PROGRAM 1- 510 Fabricator’s Demonstration of Capability 1- 520 Certification 1- 530 Requirements for Nameplate Construction and Attachment |
31 | Table 1- 3 Fabricator’s Partial Data Report |
32 | 1- 540 Information and Marking Requirements on Nameplates 1- 550 Design Requirements for Nameplates Figures Fig. 1- 1 Official ASME Certification Mark With RTP Designator |
33 | Part 2 Materials 2- 100 SCOPE 2- 200 LAMINATE COMPOSITIONS 2- 210 Resin and Reinforcement Substitution 2- 300 MATERIALS 2- 310 Resin Matrix 2- 320 Fiber Reinforcement |
34 | 2- 330 Balsa Wood Core SUBPART 2A REQUIREMENTS FOR REPRESENTATIVE FLAT LAMINATES 2A- 100 INTRODUCTION 2A- 200 LAMINATE REQUIREMENTS 2A- 210 Laminate Construction 2A- 220 Laminate Composition 2A- 300 REQUIREMENTS FOR PHYSICAL AND MECHANICAL PROPERTIES |
35 | Table 2A- 1 Standard Laminate Composition Type I |
36 | Table 2A- 2 Standard Laminate Composition Type II |
37 | 2A- 400 TEST METHODS Table 2A- 3 Minimum Values of Flat Laminates |
38 | 2A- 500 RECORDS 2A- 600 ADDITIONAL STANDARD LAMINATE COMPOSITIONS FOR SUBPART 2A SUBPART 2B REQUIREMENTS FOR LAMINATES DEVELOPED USING THE LAMINATION ANALYSIS METHOD 2B- 100 LAMINATE COMPOSITION 2B- 110 Inner Surface Corrosion Resistant Barrier 2B- 120 Interior Layer Corrosion Resistant Barrier 2B- 130 Structural Layer 2B- 140 Outer Surface 2B- 200 REQUIREMENTS FOR PHYSICAL AND MECHANICAL PROPERTIES |
39 | 2B- 300 TEST METHODS 2B- 400 RECORDS SUBPART 2C PERMISSIBLE TOLERANCES FOR LAMINATE THICKNESS VARIATION 2C- 100 TOLERANCE FOR AVERAGE SPOT THICKNESS 2C- 200 TOLERANCE FOR AVERAGE THICKNESS OF A MAJOR PART 2C- 300 EXCEPTIONS |
40 | Part 3 Design 3- 100 SCOPE 3- 200 GENERAL 3- 300 DEFINITIONS |
41 | SUBPART 3A DESIGN BY RULES 3A- 100 LOADINGS 3A- 110 Design Acceptability |
42 | 3A- 120 Other Formulas 3A- 130 Maximum Corrosion Liner Barrier Strain 3A- 140 Maximum Compressive Stress Stability 3A- 150 Conservative Design 3A- 200 DESIGN FOR TOTAL INTERNAL PRESSURE 3A- 210 Calculation of Minimum Thickness of Cylindrical Shells |
43 | 3A- 220 Design of Cylindrical Shells Under Combined Axial Loads 3A- 230 Minimum Thickness of Torispherical Heads |
44 | 3A- 240 Minimum Thickness of Ellipsoidal Heads 3A- 250 Minimum Thickness of Toriconical Heads Fig. 3- 1 Toriconical Head Dimensions |
45 | 3A- 260 Minimum Thickness of Flat Bottom Heads 3A- 270 Minimum Thickness of Hemispherical Heads |
46 | 3A- 300 DESIGN FOR EXTERNAL PRESSURE 3A- 310 Cylindrical Shells 3A- 320 Torispherical and Elliptical Heads 3A- 330 Stiffening Rings |
47 | 3A- 340 Top Head Loads 3A- 350 Toriconical Heads |
48 | 3A- 360 Stiffening Rings 3A- 400 SEISMIC, WIND, AND SNOW LOADINGS 3A- 410 Design Loadings 3A- 420 Specifying Design Loadings 3A- 430 Assumed Design Loadings 3A- 440 Stresses From Loadings 3A- 450 Loading Design Examples 3A- 460 Hold- Down Lugs |
49 | 3A- 500 LARGE DIAMETER RTP EQUIPMENT BODY FLANGES 3A- 600 VESSELS SUPPORTED BY SHELL ATTACHMENTS 3A- 700 REINFORCEMENT OF CIRCULAR OPENINGS 3A- 710 Wall Thickness Definitions 3A- 720 Reinforcement Diameter 3A- 730 Reinforcement Thickness 3A- 800 SECONDARY BOND SHEAR STRESS |
50 | SUBPART 3B DESIGN BY STRESS ANALYSIS 3B- 100 INTRODUCTION 3B- 200 DESIGN ACCEPTABILITY 3B- 210 Basis for Determining Stresses 3B- 220 Terms Relating to Stress Analysis |
51 | 3B- 300 LOADING 3B- 400 DESIGN |
52 | 3B- 500 STRESS CRITERIA 3B- 600 EXTERNAL PRESSURE 3B- 700 ATTACHMENTS |
53 | Part 4 Fabrication 4- 100 SCOPE 4- 110 Fabrication Requirements 4- 120 Large Diameter Fabrication Details 4- 200 LARGE DIAMETER BODY FLANGES 4- 300 SHELL JOINTS 4- 310 Shell- to- Shell Joints 4- 320 Type I and Type II Secondary Bond Overlays |
54 | 4- 330 Alternative Secondary Bond Overlays 4- 400 FLANGED NOZZLES 4- 410 Fabricating Flanged Nozzles 4- 420 Bolt Holes 4- 430 Installation of Nozzles 4- 500 MANWAYS 4- 510 Diameter 4- 520 Installation |
55 | 4- 530 Bolt Holes 4- 600 REINFORCEMENT OF CUTOUTS 4- 700 TOLERANCES 4- 800 BALSA WOOD CORED PLATES Table 4- 1 Flange Flatness Tolerance |
56 | Fig. 4- 1 Torispherical Heads |
57 | Fig. 4- 2 Flat- Bottom Tank Knuckle Detail |
58 | Fig. 4- 2 Flat- Bottom Tank Knuckle Detail ( Cont’d) |
59 | Fig. 4- 3 Joint Arrangement |
60 | Fig. 4- 4 Flush Nozzle Installation |
61 | Fig. 4- 5 Penetrating Nozzle Installation |
62 | Table 4- 2 Typical Dimensions of Manways Table 4- 3 Shear Bond Length |
63 | Fig. 4- 6 Bottom Drain Detail |
64 | Fig. 4- 7 Stiffener Detail |
65 | Fig. 4- 8 Support Skirt Attachment Detail |
66 | Fig. 4- 9 Fabrication Tolerances |
67 | Fig. 4- 10 Nozzle Flange Dimensions for Class 150 Bolting |
68 | Fig. 4- 11 Flanged Nozzle Lay- Up Method |
69 | Fig. 4- 12 Nozzle Installation and Cutout Reinforcement Location Alternate |
70 | Fig. 4- 13 Nozzle Gussets |
71 | Fig. 4- 14 Flange Tolerances Fig. 4- 15 Flat Cored Bottom Knuckle Detail |
72 | Part 5 Overpressure Protection 5- 100 BASIS FOR DESIGN 5- 110 Atmospheric Tanks 5- 120 Excessive Pressure 5- 130 Operating Characteristics 5- 200 PROTECTION AGAINST OVERPRESSURE 5- 300 TYPE OF OVERPRESSURE PROTECTION 5- 400 LOCATION OF OVERPRESSURE PROTECTION DEVICES 5- 500 INSTALLATION PRACTICES 5- 600 OVERPRESSURE DEVICE SET PRESSURE 5- 700 RELIEF DEVICE SIZING 5- 710 Sizing of Spring or Deadweight Loaded Valves and Rupture Disks 5- 720 Sizing of Vents and Overflows 5- 800 DISCHARGE LINES FROM PRESSURE RELIEF DEVICES |
73 | 5- 900 RESPONSIBILITY FOR DESIGN AND SELECTION |
74 | Part 6 Inspection and Tests 6- 100 SCOPE 6- 200 INSPECTOR 6- 300 INSPECTION AND RESPONSIBILITY 6- 400 CONDITIONS FOR INSPECTION |
75 | 6- 500 EQUIPMENT DESIGN 6- 600 MATERIALS 6- 700 FABRICATION 6- 800 FABRICATOR’S QUALITY ASSURANCE PROGRAM 6- 900 FINAL INSPECTION 6- 910 Resin Cure |
76 | 6- 920 Dimensions and Laminate Thickness Checks |
77 | 6- 930 Physical Property and Laminate Reinforcing Content Tests |
78 | 6- 940 Laminate Imperfections — Visual Inspection 6- 950 Pressure Tests and Acoustic Emission Tests |
79 | Table 6- 1 RTP Visual Inspection Acceptance Criteria |
80 | Table 6- 1 RTP Visual Inspection Acceptance Criteria ( Cont’d) |
81 | Table 6- 1 RTP Visual Inspection Acceptance Criteria ( Cont’d) |
82 | Table 6- 1 RTP Visual Inspection Acceptance Criteria ( Cont’d) |
83 | 6- 960 Procedures for Rectifying Nonconformities or Imperfections |
84 | Part 7 Shop Qualification 7- 100 SCOPE 7- 200 GENERAL 7- 210 Shop Survey 7- 300 FABRICATOR’S FACILITIES AND EQUIPMENT 7- 400 PERSONNEL 7- 500 QUALITY CONTROL PROGRAM, DOCUMENT HANDLING, AND RECORD SYSTEM 7- 600 DEMONSTRATION OF CAPABILITY ( Demonstration Laminates) |
85 | 7- 610 Hand Lay- Up and Spray- Up Demonstration Laminates Table 7- 1 Required Resins and Acceptable Fabrication Processes for Demonstration Laminates |
86 | Table 7- 2 Dimensional Requirements for Hand Lay- Up and Spray- Up Demonstration Laminates Table 7- 3 Reinforcement Requirements for Hand Lay- Up and Spray- Up Demonstration Laminates |
87 | 7- 620 Filament Wound Demonstration Laminates 7- 700 MINIMUM TEST VALUES FROM DEMONSTRATION LAMINATES 7- 800 DEMONSTRATION VESSEL |
88 | 7- 900 IDENTIFYING DEMONSTRATION LAMINATES 7- 1000 LABORATORY TEST AND TEST REPORT REQUIREMENTS FOR DEMONSTRATION LAMINATES |
89 | Fig. 7- 1 Dimensions for Tensile Test Specimen |
90 | Part 8 Certification 8- 100 SCOPE 8- 200 GENERAL 8- 210 ASME RTP-1 Certificate of Authorization Holders 8- 220 ASME RTP-1 Certificate of Authorization Holder’s Responsibilities 8- 300 CERTIFICATION OF ASME RTP-1 FABRICATORS 8- 310 General 8- 320 Evaluation of the Quality Control Program 8- 330 Evaluation of Shop Qualifications 8- 400 ASME RTP-1 CERTIFICATE OF AUTHORIZATION FOR VESSEL FABRICATORS 8- 410 General |
91 | 8- 420 Application for Certificate of Authorization 8- 430 Verification of Shop Qualification 8- 440 Issuance of ASME RTP- 1 Certificate of Authorization 8- 450 Obtaining Stamps 8- 460 Requirements Subject to Change |
93 | MANDATORY APPENDIX M-1 REINFORCEMENT MATERIALS RECEIVING PROCEDURES M1- 100 INTRODUCTION M1A- 100 INTRODUCTION M1A- 200 ACCEPTANCE INSPECTION M1A- 300 EQUIPMENT AND MEASURING TOOLS REQUIRED M1A- 310 Inspection Table and Lights M1A- 320 Linear Measuring Tools M1A- 330 Laboratory Balance M1A- 400 PROCEDURES AND ACCEPTANCE LIMITS M1A- 410 Roll Identification and Package Inspection M1A- 420 Visual Inspection of Mat |
94 | Table M1A- 1 Veil and Mat Reinforcement Log Sheet |
95 | M1A- 430 Weight per Square Foot of Mat M1B- 100 INTRODUCTION M1B- 200 ACCEPTANCE INSPECTIONS M1B- 300 EQUIPMENT AND MEASURING TOOLS M1B- 310 Wrap Reel M1B- 320 Laboratory Balance M1B- 400 PROCEDURES AND ACCEPTANCE LIMITS M1B- 410 Roving Identification and Package Inspection M1B- 420 Visual Inspection of Roving |
96 | Table M1B- 1 Roving Reinforcement Log Sheet |
97 | M1B- 430 Measurement of Roving Yield M1C- 100 INTRODUCTION M1C- 200 ACCEPTANCE INSPECTIONS M1C- 300 EQUIPMENT AND MEASURING TOOLS REQUIRED M1C- 310 Inspection Table and Lights M1C- 320 Linear Measuring, Marking, and Cutting Tools M1C- 330 Laboratory Balance M1C- 400 PROCEDURES AND ACCEPTANCE LIMITS M1C- 410 Roll Identification and Package Inspection |
98 | Table M1C- 1 Fabric Reinforcement Log Sheet |
99 | M1C- 420 Visual Inspection of Fabric M1C- 430 Width Measure of Fabric M1C- 440 Weight per Square Yard of Fabric |
100 | M1C- 450 Construction M1D- 100 INTRODUCTION M1D- 200 ACCEPTANCE INSPECTIONS M1D- 300 EQUIPMENT REQUIRED M1D- 400 PROCEDURES AND ACCEPTANCE LIMITS M1D- 410 Package Identification and Inspection M1D- 420 Visual Inspection of Milled Fiber |
101 | Table M1D- 1 Milled Fiber Reinforcement Log Sheet |
102 | MANDATORY APPENDIX M- 2 MATRIX MATERIALS RECEIVING PROCEDURES M2- 100 INTRODUCTION M2- 200 SAFETY M2A- 100 INTRODUCTION M2A- 200 REQUIREMENTS M2A- 300 ACCEPTANCE CRITERIA |
103 | M2B- 100 INTRODUCTION M2B- 200 APPARATUS M2B- 300 PROCEDURE M2B- 400 CALCULATIONS M2B- 500 REPORT M2C- 100 INTRODUCTION M2C- 200 APPARATUS M2C- 300 PREPARATION OF SAMPLES |
104 | Table M2C- 1 Recommended Numerical Standards for Comparator Viscosity Tubes |
105 | M2C- 400 PROCEDURE BY THE COMPARISON METHOD M2C- 500 PROCEDURE BY THE TIME METHOD ( GREATER THAN 6 STOKES) M2C- 600 CALCULATIONS M2C- 700 REPORT M2D- 100 INTRODUCTION M2D- 200 APPARATUS M2D- 300 PROCEDURE FOR TEMPERATURE ADJUSTMENT M2D- 400 PROCEDURE FOR THIXOTROPIC RESINS M2D- 500 PROCEDURE FOR NONTHIXOTROPIC RESINS |
106 | M2D- 600 CALCULATIONS M2D- 700 REPORT M2E- 100 INTRODUCTION M2E- 200 APPARATUS M2E- 300 PROCEDURE M2E- 400 REPORT M2G- 100 INTRODUCTION M2G- 200 DEFINITION AND LIMITS M2G- 210 Thixotropic Agents |
107 | Table M2F- 1 Resin Log Sheet |
108 | Table M2F- 2 Curing Agents Log Sheet |
109 | M2G- 220 Flame Retardant Synergists M2G- 230 Ultraviolet Light Absorbers M2G- 240 Pigments M2G- 300 ACCEPTANCE INSPECTION M2G- 400 ACCEPTANCE CRITERIA M2G- 500 INSPECTION IN USE |
110 | Table M2G- 1 Common Additives Log Sheet |
111 | MANDATORY APPENDIX M- 3 CALCULATION OF PHYSICAL AND MECHANICAL PROPERTIES USING LAMINATION ANALYSIS METHOD M3- 100 SCOPE M3- 200 LAMINATION ANALYSIS METHOD |
112 | M3- 300 ANALYSIS EXAMPLE M3- 400 STIFFNESS COEFFICIENTS FOR DESIGN BY SUBPART 3B RULES M3- 410 Nomenclature |
113 | M3- 420 Lamina Reduced Stiffness |
114 | M3- 430 Stiffness Coefficients for the Laminate M3- 440 Procedure for Calculating the Stiffness Coefficients |
115 | M3- 500 THE QUADRATIC INTERACTION CRITERION M3- 510 Nomenclature M3- 520 Calculation of Layer Strains and Stresses |
116 | M3- 530 Calculation of Strength Ratios M3- 540 Procedure for Calculating the Strength Ratio |
117 | Fig. M3- 1 Glass Fiber Volume Percent Versus Tensile Modulus |
118 | Fig. M3- 2 Glass Fiber Volume Percent Versus Shear Modulus |
119 | Fig. M3- 3 Oriented Glass Fiber at 30 Vol. % Versus Tensile Modulus |
120 | Fig. M3- 4 Oriented Glass Fiber at 30 Vol. % Versus In- Plane Shear Modulus |
121 | Fig. M3- 5 Oriented Glass Fiber at 40 Vol. % Versus Tensile Modulus |
122 | Fig. M3- 6 Oriented Glass Fiber at 40 Vol. % Versus In- Plane Shear Modulus |
123 | Fig. M3- 7 Oriented Glass Fiber at 50 Vol. % Versus Tensile Modulus |
124 | Fig. M3- 8 Oriented Glass Fiber at 50 Vol. % Versus In- Plane Shear Modulus |
125 | Fig. M3- 9 Oriented Glass Fiber at 60 Vol. % Versus Tensile Modulus |
126 | Fig. M3- 10 Oriented Glass Fiber at 60 Vol. % Versus In- Plane Shear Modulus |
127 | Fig. M3- 11 Oriented Glass Fiber at 70 Vol. % Versus Tensile Modulus |
128 | Fig. M3- 12 Oriented Glass Fiber at 70 Vol. % Versus In- Plane Shear Modulus |
129 | Fig. M3- 13 Poisson’s Ratios — 10 to 70 Vol. % |
130 | Fig. M3- 14 Moment Resultants Fig. M3- 15 In- Plane Force Resultants Fig. M3- 16 Geometry of an Layered Laminate |
131 | Fig. M3- 17 Coordinate Systems Table M3- 1 Glass Volume Fraction and Density Table M3- 2 Layer Properties |
132 | Table M3- 3 Products of Layer Properties Table M3- 4 Summary Table of Laminate Properties |
133 | MANDATORY APPENDIX M- 4 QUALITY CONTROL PROGRAM M4- 100 GENERAL M4- 200 ORGANIZATION M4- 300 DOCUMENTATION M4- 400 QUALITY CONTROL |
134 | M4- 500 EXAMPLE OF A FABRICATOR’S QUALITY CONTROL PROGRAM |
135 | MANDATORY APPENDIX M- 5 QUALIFICATION OF LAMINATORS AND SECONDARY BONDERS M5- 100 GENERAL REQUIREMENTS M5- 200 RESPONSIBILITY M5- 300 QUALIFICATION OF LAMINATORS M5- 400 QUALIFICATION OF SECONDARY BONDERS M5- 410 Making Pipe Test Pieces M5- 420 Making Secondary Bond Test Assemblies |
136 | Table M5- 1 Laminator Qualification Report |
137 | Table M5- 2 Secondary Bonder Qualification Report |
138 | Fig. M5- 1 Pipe Test Piece |
139 | Fig. M5- 2 Secondary Bond Test Assembly M5- 430 Making and Measuring Secondary Bond Test Specimens M5- 440 Testing Secondary Bond Test Specimens and Calculating Secondary Bond Shear Strength |
140 | Fig. M5- 3 Secondary Bond Test Specimen |
141 | M5- 450 Requirements for Qualification of Secondary Bonders |
142 | MANDATORY APPENDIX M- 6 DEMONSTRATION VESSEL M6- 100 GENERAL M6- 200 PRELIMINARY REQUIREMENTS M6- 300 DESIGN, FABRICATION, AND TESTING OF THE DEMONSTRATION VESSEL M6- 400 REQUIREMENTS SUBSEQUENT TO TESTING |
143 | Table M6- 1 User’s Basic Requirements Specification ( UBRS) ( As Required by the Provisions of ASME RTP- 1) |
144 | Table M6- 1 User’s Basic Requirements Specification ( UBRS) ( Cont’d) ( As Required by the Provisions of ASME RTP- 1) |
145 | Table M6- 1 User’s Basic Requirements Specification ( UBRS) ( Cont’d) ( As Required by the Provisions of ASME RTP- 1) |
146 | Table M6- 1 User’s Basic Requirements Specification ( UBRS) ( Cont’d) ( As Required by the Provisions of ASME RTP- 1) |
147 | Fig. M6- 1 ASME RTP- 1 Demonstration Vessel |
148 | Fig. M6- 2 Post- Test Sectioning of Vessel for Final Inspection and Display |
149 | Fig. M6- 3 Witness of Hydrotest of ASME RTP- 1 Demonstration Vessel ( Attachment No. 3) |
150 | MANDATORY APPENDIX M- 7 REPAIR PROCEDURES M7- 100 SCOPE M7- 200 GENERAL CONDITIONS M7- 210 Nonconformities M7- 220 Incorrectly Placed/ Sized Attachments M7- 300 REPAIRS TO CORRECT NONCONFORMITIES M7- 310 Unrepairable Nonconformities |
151 | M7- 400 CLASSIFICATION OF REPAIRS M7- 500 ORDER OF REPAIRS M7- 600 REPAIR PROCEDURES M7- 610 Type 1 — Inner Surface Repairs M7- 620 Type 2 — Interior Layer Repairs |
152 | M7- 630 Type 3 — Structural Layer Repairs M7- 640 Type 4 — Dimensional Nonconformance Repairs |
153 | M7- 650 Type 5 — Undercured Laminate Repairs M7- 660 Type 6 — User’s Dimensional Nonconformance Repairs |
155 | MANDATORY APPENDIX M- 8 ACOUSTIC EMISSION EXAMINATION M8- 100 SCOPE M8- 200 GENERAL M8- 300 DEFINITIONS AND INSTRUMENT CALIBRATION Table M8- 1 Acceptance Criteria M8- 310 Threshold of Acoustic Emission Detectability M8- 320 Reference Amplitude Threshold |
156 | M8- 330 Count Criterion, and Value M8- 400 WRITTEN PROCEDURE REQUIREMENTS M8- 500 WRITTEN REPORT OF RESULTS |
157 | MANDATORY APPENDIX M- 9 GLOSSARY |
161 | MANDATORY APPENDIX M- 10 REFERENCE DOCUMENTS |
163 | MANDATORY APPENDIX M- 11 SUBMITTAL OF TECHNICAL INQUIRIES TO THE REINFORCED THERMOSET PLASTIC CORROSION RESISTANT EQUIPMENT COMMITTEE M11- 100 INTRODUCTION M11- 200 INQUIRY FORMAT M11- 300 REVISIONS OR ADDITIONS M11- 400 CASES |
164 | M11- 500 INTERPRETATIONS M11- 600 SUBMITTALS |
165 | MANDATORY APPENDIX M- 12 DUAL LAMINATE VESSELS M12- 100 INTRODUCTION M12A- 100 SCOPE M12A- 200 APPLICATION LIMITATIONS M12B- 100 SCOPE M12B- 200 THERMOPLASTIC LINING MATERIALS |
166 | Table M12B- 1 ASTM Specifications for Thermoplastic Materials M12B- 300 FIBER BACKING MATERIALS M12B- 400 WELDING AND JOINING MATERIALS M12B- 500 FILLER MATERIALS, PIGMENTS, PROCESSING AIDS, AND CONDUCTIVE MATERIALS M12B- 600 MATERIALS RECEIVING PROCEDURES |
167 | Table M12B- 2 Typical Thermoplastic Properties |
168 | M12B- 610 Thermoplastic Sheet |
169 | Table M12B- 3 Thermoplastic Sheet or Roll Receiving Log |
170 | Table M12B- 4 Thermoplastic Sheet Visual Inspection Acceptance Criteria M12B- 620 Welding Consumables |
171 | M12B- 630 Bonding Resin |
172 | Table M12B- 5 Welding Material Receiving Log |
173 | Table M12B- 6 Bonding Resin Receiving Log |
174 | M12B- 640 Conductive Spark Test Targets |
175 | Table M12B- 7 Conductive Material Receiving Log |
176 | M12B- 650 Thermoplastic Shapes for Vessel Components |
177 | Table M12B- 8 Thermoplastic Shape Receiving Log |
178 | M12C- 100 SCOPE M12C- 200 MATERIAL SELECTION M12C- 300 SHEET MAP AND WELD PLACEMENT M12C- 400 WALL ATTACHMENTS M12C- 500 DESIGN STRESS LIMITATIONS |
179 | Fig. M12C- 1 Support Ledges Showing Recommended Weld Locations Away From Thermoformed Bends M12C- 600 HEATING AND COOLING DESIGNS M12D- 100 SCOPE AND OPTIONS |
180 | M12D- 200 MACHINING OF THE THERMOPLASTIC LINING M12D- 300 FORMING M12D- 310 Limits on Thinning of Lining During Forming M12D- 320 Thermoforming M12D- 400 WELDING M12D- 410 Welder Qualification M12D- 420 Welding Procedures |
181 | Fig. M12D- 1 Maximum Offset Allowed for Joints Between Sheets With Different Thicknesses |
182 | Table M12D- 1 Visual Weld Defects |
183 | Fig. M12D- 2 Visual Features of Hot Gas Welds Fig. M12D- 3 Illustrations of Flow Lines |
184 | Fig. M12D- 4 Heat Affected Zone Patterns Fig. M12D- 5 Butt Fusion Welds Showing Melt Flow Lines |
185 | M12D- 500 TESTS FOR DEFECTS IN WELDS M12D- 510 High Voltage Spark Test M12D- 520 Gas Penetrant Tests M12D- 600 FLANGES, NOZZLES, AND MANWAYS M12D- 610 Fabrication Options M12D- 620 Shell- Neck and Neck- Flange Designs |
186 | Fig. M12D- 6 Nozzle Construction for Penetrating Nozzle |
187 | Fig. M12D- 7 Nozzle and Manway Constructions |
188 | M12D- 700 INTERNAL ATTACHMENTS M12D- 800 REPAIR PROCEDURES M12D- 810 Scope M12D- 820 General Conditions M12D- 830 Nonconformities M12D- 840 Repairable Nonconformities M12D- 850 Irreparable Nonconformities |
189 | Fig. M12D- 8 Bottom Nozzle Constructions |
190 | M12D- 900 APPLICATION OF THE RTP OVERLAY M12D- 910 Application of Spark Test Targets M12D- 920 Testing Bond Strength Between Liner and RTP Overlay M12D- 1000 INSPECTION M12E- 100 SCOPE M12E- 200 FINAL INSPECTION M12E- 210 High Voltage Spark Test M12E- 220 Lining Imperfections: Visual Inspection M12F- 100 SCOPE |
191 | Table M12E- 1 Lining Visual Inspection Acceptance Criteria M12F- 200 PRECAUTIONS TO PREVENT MECHANICAL DAMAGE M12F- 300 INSPECTION AFTER SHIPMENT AND INSTALLATION M12G- 100 SCOPE M12G- 200 GENERAL M12G- 300 FABRICATOR’S FACILITIES AND EQUIPMENT |
192 | M12G- 400 PERSONNEL M12G- 500 DEMONSTRATION OF CAPABILITY M12G- 510 Welding Capability M12G- 520 Bonding Capability M12G- 530 Demonstration Vessel M12G- 540 Procedures M12G- 550 Fabricator Certification |
193 | Fig. M12G- 1 Dual Laminate Demonstration Vessel |
194 | Table M12G- 1 User’s Basic Requirements Specification ( UBRS) ( As Required by the Provisions of ASME RTP- 1) |
195 | Table M12G- 1 User’s Basic Requirements Specification ( UBRS) ( Cont’d) ( As Required by the Provisions of ASME RTP- 1) |
196 | Table M12G- 1 User’s Basic Requirements Specification ( UBRS) ( Cont’d) ( As Required by the Provisions of ASME RTP- 1) |
197 | Table M12G- 1 User’s Basic Requirements Specification ( UBRS) ( Cont’d) ( As Required by the Provisions of ASME RTP- 1) |
198 | Fig. M12G- 2 Post- Test Sectioning of Dual Laminate Demonstration Vessel for Final Inspection and Display |
199 | M12H- 100 GENERAL REQUIREMENTS M12H- 200 RESPONSIBILITY M12H- 300 QUALIFICATION OF WELDERS M12H- 310 Making Weld Test Samples M12H- 400 EVALUATING WELD SAMPLES |
200 | Table M12H- 1 Welder Qualification Report |
201 | Table M12H- 1 Welder Qualification Report ( Cont’d) |
202 | Table M12H- 2 Weld Strength Requirements M12H- 500 REQUALIFICATION |
204 | MANDATORY APPENDIX M- 13 BALSA WOOD RECEIVING AND INSPECTION PROCEDURES M13- 100 INTRODUCTION M13- 200 ACCEPTANCE INSPECTION M13- 300 EQUIPMENT AND MEASURING TOOLS REQUIRED M13- 400 PROCEDURES AND ACCEPTANCE LIMITS M13- 410 Balsa Wood Identification and Package Inspection M13- 420 Visual Inspection Criteria |
205 | Table M13- 1 Balsa Wood Core Inspection Sheet |
206 | NONMANDATORY APPENDIX NM- 1 DESIGN EXAMPLES NM1- 100 INTRODUCTION NM1- 200 EXAMPLE 1: VERTICAL VESSEL WITH A TORICONICAL LOWER HEAD |
207 | Fig. NM1- 1 Toriconical Head |
208 | NM1- 300 EXAMPLE 2: HORIZONTAL VESSEL BY SUBPART 3B RULES NM1- 310 Loading on the Vessel |
209 | Fig. NM1- 2 Stress Intensity in a Toriconical Head |
210 | Table NM1- 1 Example 1, Vessel With a Toriconical Lower Head NM1- 320 Computer Stress Analysis NM1- 330 Design Criterion |
211 | Fig. NM1- 3 Horizontal Tank |
212 | Fig. NM1- 4 Pressure Distribution |
213 | Fig. NM1- 5 Saddle Reaction |
214 | Fig. NM1- 6 Stress Along Top Meridian, Initial Try |
215 | Fig. NM1- 7 Stress Along 45 deg Meridian, Initial Try |
216 | Fig. NM1- 8 Stress Along 90 deg Meridian, Initial Try |
217 | Fig. NM1- 9 Stress Along 135 deg Meridian, Initial Try |
218 | Fig. NM1- 10 Stress Along Bottom Meridian, Initial Try |
219 | Table NM1- 2 Wall Thickness in a Horizontal Tank |
220 | Fig. NM1- 11 Stress Along Top Meridian, Final Try |
221 | Fig. NM1- 12 Stress Along 45 deg Meridian, Final Try |
222 | Fig. NM1- 13 Stress Along 90 deg Meridian, Final Try |
223 | Fig. NM1- 14 Stress Along 135 deg Meridian, Final Try |
224 | Fig. NM1- 15 Stress Along Bottom Meridian, Final Try |
225 | NONMANDATORY APPENDIX NM- 2 DESIGN OF INTEGRAL BODY FLANGES NM2- 100 SCOPE NM2- 200 NOMENCLATURE |
226 | Table NM2- 1 Typical Body Flange Dimensions and Recommended Bolt Torque Values for RTP Body Flanges |
227 | Table NM2- 2 Body Flange Design Using Full- Face Gaskets, Maximum Stress Less Than 3,000 psi — Type II Laminates |
228 | Table NM2- 3 Body Flange Design Using Full- Face Gaskets, Maximum Stress Less Than 1,800 psi — Type I Laminates |
229 | Fig. NM2- 1 Design of Flat- Face Integral Body Flanges With Full- Face Gaskets |
230 | Fig. NM2- 2 Values of ( Integral Flange Factors) |
231 | Fig. NM2- 3 Values of ( Hub Stress Correction Factors) |
232 | Fig. NM2- 4 Values of and ( Terms Involving |
233 | NM2- 300 EXAMPLE CALCULATION |
234 | Fig. NM2- 5 Values of ( Integral Flange Factors) |
235 | Fig. NM2- 6 Design of Flat- Face Integral Body Flanges With Full- Face Gaskets ( Example Calculation — 72 in. Flange at 30 psi) |
237 | Table NM2- 4 Values of and ( Factors Involving |
238 | Table NM2- 4 Values of and ( Factors Involving ( Cont’d) |
239 | Table NM2- 4 Values of and ( Factors Involving ( Cont’d) |
240 | Table NM2- 4 Values of and ( Factors Involving ( Cont’d) |
241 | NONMANDATORY APPENDIX NM- 3 SEISMIC, WIND, AND SNOW LOADINGS NM3- 100 TYPICAL CODES NM3- 200 NOMENCLATURE NM3- 300 EXAMPLES NM3- 310 Loading Criteria |
242 | NM3- 320 Design for Operating Loads |
246 | NM3- 330 Hold- Downs for Seismic Loading |
248 | NONMANDATORY APPENDIX NM- 4 HOLD- DOWN LUG DESIGN NM4- 100 SCOPE NM4- 200 NOMENCLATURE NM4- 300 WOUND LUG DESIGN |
249 | Fig. NM4- 1 Wound- On Hold- Down Lug |
250 | Fig. NM4- 2A Secondary Bonded Hold- Down Lug, Type A |
251 | Fig. NM4- 2B Secondary Bonded Hold- Down Lug, Type B |
252 | Fig. NM4- 3 Moment Coefficient, Fig. NM4- 4 Uplift Coefficient, |
253 | NM4- 400 SECONDARY BONDED LUG DESIGN |
254 | Fig. NM4- 5 Recommended Hold- Down Clip |
255 | NM4- 500 EXAMPLES NM4- 510 Wound Lug Example |
256 | NM4- 520 Secondary Bonded Lug Example |
258 | NONMANDATORY APPENDIX NM- 5 RING SUPPORT OF VESSELS NM5- 100 SCOPE NM5- 200 BAND WITH LUGS NM5- 210 Nomenclature NM5- 220 Design Procedure NM5- 230 Split- Ring Flanges NM5- 240 Thickness of Gussets and Baseplate |
259 | Fig. NM5- 1 Lugs on Band |
260 | Fig. NM5- 2 Moment Coefficient, |
261 | Fig. NM5- 3 Split- Ring Flange |
262 | NM5- 250 Shear Collar NM5- 300 DOUBLE- RING SUPPORT NM5- 310 Nomenclature NM5- 320 Design Procedure for Double Rings on a Band |
263 | Fig. NM5- 4 Ring Support of Vessels |
264 | Fig. NM5- 5 Geometric Quantities |
265 | NM5- 400 DESIGN PROCEDURE FOR A FABRICATED OR ROLLED STRUCTURAL CHANNEL DOUBLE- RING SUPPORT NM5- 410 Stress in Ring NM5- 420 Design Charts NM5- 430 Section Proportions NM5- 500 SPLIT- RING CONSTRUCTION NM5- 510 Nomenclature NM5- 520 Design Procedure |
266 | Fig. NM5- 6 Ring Design Chart for Three Lugs |
267 | Fig. NM5- 7 Ring Design Chart for Four Lugs |
268 | Fig. NM5- 8 Ring Design Chart for Eight Lugs |
269 | NM5- 530 Welding NM5- 600 EXAMPLES NM5- 610 Double- Ring Support NM5- 620 Band With Lugs NM5- 630 Split- Ring Flange |
270 | Fig. NM5- 9 Example Cross Section |
271 | Fig. NM5- 10 Lug |
273 | NONMANDATORY APPENDIX NM- 6 EXAMPLE OF A FABRICATOR’S QUALITY CONTROL PROGRAM SECTION 1 QUALITY CONTROL POLICY 1.1 Scope 1.2 Purpose 1.3 Laboratory Standards 1.4 Test Methods 1.5 Operating Procedures 1.6 Documentation 1.7 Nonconformity Correction Reports |
274 | 1.8 Distribution of QC Manual 1.9 QC Manual Revision 1.10 Notification of In- Process Changes SECTION 2 QUALITY CONTROL ORGANIZATION 2.1 Scope and Purpose 2.2 Organizational Responsibility 2.3 Organizational Functions 2.4 Organization Chart SECTION 3 DOCUMENTATION 3.1 Scope and Purpose 3.2 Minimum Documentation 3.3 Document Preparation Responsibility SECTION 4 INSPECTION OF RECEIVED GOODS 4.1 Resin |
275 | Fig. NM6- 1 Organization Chart |
276 | 4.2 Reinforcements 4.3 Curing Agents 4.4 Purchased and/ or Subvended Items 4.5 Common Additives SECTION 5 IN- PROCESS INSPECTION 5.1 Resin Mixing 5.2 Material Dispersion |
277 | 5.3 Component Fabrication 5.4 Assembly SECTION 6 FINISHED EQUIPMENT INSPECTION 6.1 Resin Cure 6.2 Dimensions and Laminate Thickness 6.3 Visual Imperfections 6.4 Physical Property Tests 6.5 Equipment Pressure Tests SECTION 7 RECORD RETENTION AND CONTROLS 7.1 Scope |
278 | 7.2 Application and Retention 7.3 Record Retention 7.4 Procedure for Record Handling |
279 | Table NM6- 1 Mixing Data Sheet |
280 | Table NM6- 2 Component Data Sheet |
281 | Table NM6- 3 Document Control Sheet |
282 | Table NM6- 4 Document Distribution List |
283 | Table NM6- 5 Document Preparation and Distribution Responsibility |
284 | Table NM6- 6 Nonconformity Correction Report |
285 | Table NM6- 6 Nonconformity Correction Report ( Cont’d) |
286 | Table NM6- 7 QC Manual Master Revision List |
287 | NONMANDATORY APPENDIX NM- 7 ACCEPTANCE INSPECTION BY USER’S INSPECTOR NM7- 100 SCOPE NM7- 200 USER’S INSPECTION NM7- 300 INSPECTION AND RESPONSIBILITY NM7- 400 DIMENSIONS NM7- 500 GASEOUS BUBBLES, BLISTERS, AND POROSITY NM7- 600 PACKAGING, SHIPMENT, AND INSTALLATION |
288 | Fig. NM7- 1 Recommended Fabrication Tolerances |
289 | Fig. NM7- 1 Recommended Fabrication Tolerances ( Cont’d) |
290 | Table NM7- 1 RTP Equipment Inspection Requirements |
294 | NONMANDATORY APPENDIX NM- 8 HANDLING AND SHIPPING NM8- 100 GENERAL NM8- 200 HANDLING Fig. NM8- 1 Lifting Vessel With Spreader Bar Fig. NM8- 2 Strongback for Lifting |
295 | NM8- 300 TEMPORARY STORAGE NM8- 400 SHIPPING Fig. NM8- 3 Use of Strongbacks |
296 | NONMANDATORY APPENDIX NM- 9 INSTALLATION OF RTP VESSELS NM9- 100 SCOPE NM9- 200 RECEIVING INSPECTION NM9- 300 INSTALLATION OF RTP VESSELS Fig. NM9- 1 Flat- Face Valve Flange to Flat- Face RTP Nozzle Flange and Full- Face Gasket |
297 | Fig. NM9- 2 Raised- Face Valve Flange to Flat- Face RTP Nozzle Flange With Filler Ring and Full- Face Gasket NM9- 400 GENERAL SERVICE REQUIREMENTS |
298 | Fig. NM9- 3 Flange Bolt Tightening |
299 | NONMANDATORY APPENDIX NM- 10 REQUIREMENTS AND RESPONSIBILITIES OF USER ( OR USER’S AGENT), FABRICATOR, INSPECTOR, AND CERTIFIED INDIVIDUAL NM10- 100 SCOPE AND PURPOSE NM10- 200 USER ( OR USER’S AGENT) NM10- 300 FABRICATOR |
300 | NM10- 400 INSPECTOR NM10- 500 CERTIFIED INDIVIDUAL |
302 | Fig. NM10- 1 RTP- 1 Flowchart |
303 | NONMANDATORY APPENDIX NM- 11 DESIGN FOR 250 lb CONCENTRATED LOAD ON A TORISPHERICAL HEAD NM11- 100 SCOPE NM11- 200 NOMENCLATURE NM11- 300 DESIGN FACTOR NM11- 400 STRESS CALCULATIONS |
304 | Fig. NM11- 1 Stress Function |
305 | NONMANDATORY APPENDIX NM- 12 FRP FLANGE DESIGN NM12- 100 SCOPE NM12- 200 NOMENCLATURE Fig. NM12- 1 Flange Dimensioning Details NM12- 300 CALCULATION PROCEDURE |
306 | Fig. NM12- 2 Flange Loading Conditions NM12- 310 Nozzle Wall Thickness NM12- 320 Gasket Seating Loads NM12- 330 Design Operating Loads NM12- 340 Flange Thickness NM12- 350 Minimum Bolt Torque NM12- 360 Maximum Bolt Torque |
307 | NM12- 370 Hub Thickness and Height NM12- 380 Bolt Spacing and Clearances NM12- 400 FLANGE DESIGN EXAMPLE |
309 | NONMANDATORY APPENDIX NM- 13 STRESS ANALYSIS METHODS NM13A- 100 SIGN CONVENTION AND NOMENCLATURE |
310 | NM13A- 200 PRINCIPAL STRESSES AND STRESS INTENSITIES DUE TO INTERNAL PRESSURE NM13A- 210 Principal Stresses NM13A- 220 Stress Intensities NM13A- 300 BENDING ANALYSIS FOR UNIFORMLY DISTRIBUTED EDGE LOADS NM13A- 310 Displacements, Bending Moments, and Shearing Forces in Terms of Conditions at Reference Edge, 0 |
311 | NM13A- 320 Edge Displacements and Rotations in Terms of Edge Loads |
312 | NM13A- 330 Principal Stresses Due to Bending NM13B- 100 SCOPE NM13B- 200 NOMENCLATURE AND SIGN CONVENTION |
313 | NM13B- 300 PRINCIPAL STRESSES AND STRESS INTENSITIES RESULTING FROM INTERNAL OR EXTERNAL PRESSURE NM13B- 310 Principal Stresses Resulting From Internal Pressure NM13B- 320 Stress Intensities Resulting From Internal Pressure NM13B- 330 Principal Stresses Resulting From External Pressure |
314 | NM13B- 340 Stress Intensities Resulting From External Pressure NM13B- 400 BENDING ANALYSIS FOR UNIFORMLY DISTRIBUTED EDGE LOADS NM13B- 410 Displacement, Rotation, Moment, and Membrane Force in Terms of Loading Conditions at Reference Edge NM13B- 420 Displacement and Rotation of Reference Edge in Terms of Loading Conditions at Reference Edge |
315 | NM13B- 430 Principal Stresses in Spherical Shells Resulting From Edge Loads NM13B- 500 ALTERNATE BENDING ANALYSIS OF A HEMISPHERICAL SHELL SUBJECTED TO UNIFORMLY DISTRIBUTED EDGE LOADS NM13B- 510 Displacement, Rotation, Moment, and Shear Forces in Terms of Loading Conditions at Edge NM13B- 520 Principal Stresses in a Hemispherical Shell Due to Edge Loads |
316 | NM13C- 100 SCOPE NM13C- 200 NOMENCLATURE AND SIGN CONVENTION NM13C- 300 PRESSURE AND EDGE LOADS ON CIRCULAR FLAT PLATES NM13C- 310 Pressure Loads on Simply Supported Flat Plates |
317 | NM13C- 320 Edge Loads on Flat Plates NM13C- 400 FLAT PLATE PRESSURE VESSEL HEADS NM13C- 410 Displacements and Principal Stresses in a Flat Head |
318 | NM13C- 500 GEOMETRY CONSTANTS NM13C- 600 STRESS INTENSITIES IN A FLAT PLATE |
319 | NM13D- 100 GENERAL NM13D- 200 INFORMATION REQUIRED NM13D- 300 METHOD OF ANALYSIS NM13D- 310 Procedure for Discontinuity Analysis |
320 | NM13D- 320 Stresses NM13D- 400 EXAMPLE ILLUSTRATING THE APPLICATION OF PARAGRAPH NM13D- 310 NM13D- 410 Given NM13D- 420 Required NM13D- 430 Solution |
326 | Fig. NM13A- 1 Sign Conventions for Cylindrical Segments Fig. NM13B- 1 Sign Conventions for Spherical Segments |
327 | Fig. NM13C- 1 Sign Conventions for Flat Plates Fig. NM13C- 2 Simply Supported Flat Plate Fig. NM13C- 3 Edge Loads on Flat Plates Fig. NM13C- 4 Flat Plate Vessel Head Fig. NM13C- 5 Flat Plate to Cylinder Joint Fig. NM13D- 1 Example Pressure Vessel |
328 | Fig. NM13D- 2 Forces and Moments in Pressure Vessel Example Fig. NM13D- 3 Hemispherical Head Fig. NM13D- 4 Cylindrical Shell Fig. NM13D- 5 Flat Plate Head Table NM13C- 1 Multiplying Factors |
329 | NONMANDATORY APPENDIX NM- 14 ISO 9001 QUALITY CONTROL SYSTEM NM14- 100 INTRODUCTION NM14- 200 MANAGEMENT RESPONSIBILITY NM14- 210 Quality Policy NM14- 220 Organization NM14- 230 Management Review NM14- 300 QUALITY CONTROL PROGRAM |
330 | NM14- 400 CONTRACT REVIEW NM14- 500 DESIGN CONTROL NM14- 510 Design and Development Planning NM14- 520 Design Input NM14- 530 Design Output NM14- 540 Design Verification NM14- 550 Design Changes NM14- 600 DOCUMENT CONTROL NM14- 610 Document Approval and Issue |
331 | NM14- 620 Document Changes/ Modifications NM14- 700 PURCHASING NM14- 710 Assessment of Subcontractors NM14- 720 Purchasing Data NM14- 730 Verification of Purchased Product NM14- 800 PURCHASER- SUPPLIED PRODUCT NM14- 900 PRODUCT IDENTIFICATION AND TRACEABILITY NM14- 1000 PROCESS CONTROL |
332 | NM14- 1100 INSPECTION AND TESTING NM14- 1110 Receiving Inspection and Testing NM14- 1120 In- Process Inspection and Testing NM14- 1130 Final Inspection and Testing NM14- 1140 Inspection and Test Records NM14- 1200 INSPECTION, MEASURING, AND TEST EQUIPMENT |
333 | NM14- 1300 INSPECTION AND TEST STATUS NM14- 1400 CONTROL OF NONCONFORMING PRODUCT NM14- 1500 CORRECTIVE ACTION NM14- 1600 HANDLING, STORAGE, PACKAGING, AND DELIVERY NM14- 1610 Handling NM14- 1620 Storage NM14- 1630 Packaging NM14- 1640 Delivery |
334 | NM14- 1700 QUALITY RECORDS NM14- 1800 INTERNAL QUALITY AUDITS NM14- 1900 TRAINING NM14- 2000 SERVICING NM14- 2100 STATISTICAL TECHNIQUES |
335 | NONMANDATORY APPENDIX NM- 15 FLAT CORED PLATE DESIGN NM15- 100 CORED PLATE DESIGN NM15- 110 Solid Plate Design NM15- 120 Initial Estimate of Core Thickness NM15- 130 Plate Deflections and Stresses NM15- 140 Calculate Plate Deflection, Facial Stress, and Core Stress, NM15- 150 Calculate Shear Stress at the Bond Line ( NM15- 160 Design Optimization |
336 | Fig. NM15- 1 Equivalent Solid and Cored Plates NM15- 170 Design Example |
337 | NM15- 180 Discussion |
338 | NONMANDATORY APPENDIX NM- 16 EXTERNAL PRESSURE DESIGN EXAMPLE FOR CYLINDRICAL SHELLS NM16- 100 INTRODUCTION NM16- 200 NASA SP- 8007 SOLUTION |
340 | NM16- 300 USING SIMPLIFIED EQUATION |
341 | SI UNITS |
342 | List of SI Units for Use With ASME RTP- 1 |
343 | Commonly Used Conversion Factors |
344 | INDEX |
347 | ASME RTP- 1 INTERPRETATIONS NO. 8 |
351 | RTP- 1 — Cases |