AISC 370 2021
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ANSI/AISC 370-21: Specification for Structural Stainless Steel Buildings
Published By | Publication Date | Number of Pages |
AISC | 2021 |
The Specification for Structural Stainless Steel Buildings provides the generally applicable requirements for the design and construction of structural stainless steel buildings and other structures. Both LRFD and ASD methods of design are incorporated. Dual-units format provides for both U.S. customary and S.I. units.
PDF Catalog
PDF Pages | PDF Title |
---|---|
1 | ANSI/AISC 370-21 |
4 | COPYRIGHT |
5 | PREFACE |
7 | TABLE OF CONTENTS |
23 | SYMBOLS |
35 | GLOSSARY |
48 | ABBREVIATIONS |
51 | CHAPTER A – GENERAL PROVISIONS A1. Scope |
53 | A2. Referenced Specifications, Codes, and Standards |
56 | A3. Material and Product Order Requirements |
64 | A4. Minimum Assessment Requirements for Specifying Alloy Corrosion Resistance |
65 | A5. Structural Design Documents and Specifications |
66 | CHAPTER B – DESIGN REQUIREMENTS B1. General Provisions B2. Loads and Load Combinations B3. Design Basis |
70 | B4. Member Properties |
75 | B5. Fabrication and Erection B6. Quality Control and Quality Assurance B7. Evaluation of Existing Structures |
78 | CHAPTER C – DESIGN FOR STABILITY C1. General Stability Requirements C2. Calculation of Required Strengths |
83 | C3. Calculation of Available Strengths |
84 | CHAPTER D – DESIGN OF MEMBERS FOR TENSION D1. Slenderness Limitations D2. Tensile Strength |
86 | D3. Effective Net Area D4. Built-Up Members D5. Pin-Connected Members |
90 | CHAPTER E – DESIGN OF MEMBERS FOR COMPRESSION E1. General Provisions |
92 | E2. Effective Length E3. Flexural Buckling of Members Without Slender Elements |
93 | E4. Torsional and Flexural-Torsional Buckling of Single Equal-Leg Angles and Members Without Slender Elements |
95 | E5. Single Equal-Leg Angle Compression Members Without Slender Elements |
96 | E6. Built-Up Members |
97 | E7. Members With Slender Elements |
100 | CHAPTER F – DESIGN OF MEMBERS FOR FLEXURE |
102 | F1. General Provisions |
103 | F2. Doubly Symmetric Compact I-Shaped Members and Channels Bent About Their Major Axis |
105 | F3. Double Symmetric I-Shaped Members and Channels With Compact Webs and Non Compact or Slender Flanges Bent About Their Major Axis |
106 | F4. Doubly Symmetric I-Shaped Members with Noncompact Webs Bent About Their Major Axis |
108 | F5. Doubly Symmetric I-Shaped Members With Slender Webs Bent About Their Major Axis |
110 | F6. I-Shaped Members and Channels Bent About Their Minor Axis |
111 | F7. Square and Rectangular HSS and Box Sections |
113 | F8. Round HSS |
114 | F9. Solid Rectangular Shapes and Rounds |
115 | F10. Other Shapes |
116 | F11. Proportions of Beams and Girders |
117 | CHAPTER G – DESIGN OF MEMBERS FOR SHEAR AND TORSION G1. General Provisions |
118 | G2. I-Shaped Members and Channels Subject to Major-Axis Shear |
121 | G3. Rectangular HSS and Box Sections Subject to Shear |
122 | G4. Round HSS Subject to Shear |
123 | G5. Doubly Symmetric I-Shaped Members and Channels Subject to Minor-Axis Shear G6. Other Singly or Doubly Symmetric Shapes Subject to Shear |
124 | G7. Beams and Girders with Web Openings Subject to Shear G8. Round and Rectangular HSS and Box Sections Subject to Torsion |
126 | G9. Doubly Symmetric I-Shaped Members and Channels Subject to Torsion |
127 | CHAPTER H – DESIGN OF MEMBERS FOR COMBINED FORCES H1. Doubly Symmetric I-Shaped Members, Channels, HSS, and Box Sections Subject to Flexure and Axial Force |
129 | H2. Doubly Symmetric I-Shaped Members, Channels, HSS, and Box Sections Subject to Combined Torsion, Flexure, Shear, and/or Axial Force H3. Rupture of Flanges with Holes Subject to Tension |
131 | CHAPTER I – DESIGN OF COMPOSITE MEMBERS |
132 | CHAPTER J – DESIGN OF CONNECTIONS J1. General Provisions |
135 | J2. Welds |
145 | J3. Bolts and Threaded Parts |
156 | J4. Affected Elements of Members and Connecting Elements |
158 | J5. Fillers |
159 | J6. Splices J7. Bearing Strength J8. Pins |
161 | J9. Column Bases and Bearing on Concrete J10. Anchor Rods and Embedments |
162 | J11. Doubly Symmetric I-Shaped Members With Concentrated Forces |
168 | J12. Square and Rectangular HSS With Concentrated Forces |
171 | CHAPTER K – ADDITIONAL REQUIREMENTS FOR HSS AND BOX-SECTION CONNECTIONS K1. General Provisions |
172 | K2. HSS-to-HSS Truss Connections |
178 | CHAPTER L – DESIGN FOR SERVICEABILITY L1. General Provisions |
179 | L2. Deflections L3. Drift |
180 | L4. Vibration L5. Wind-Induced Motion L6. Thermal Expansion and Contraction L7. Connection Slip |
181 | CHAPTER M – FABRICATION AND ERECTION M1. Fabrication and Erection Documents M2. Fabrication |
186 | M3. Erection |
188 | CHAPTER N – QUALITY CONTROL AND QUALITY ASSURANCE N1. General Provisions |
189 | N2. Fabricator and Erector Quality Control Program |
190 | N3. Fabricator and Erector Documents |
191 | N4. Inspection and Nondestructive Testing Personnel |
192 | N5. Minimum Requirements for Inspection of Structural Stainless Steel Buildings |
199 | N6. Approved Fabricators and Erectors |
200 | N7. Nonconforming Material and Workmanship |
201 | APPENDIX 1 – DESIGN BY ADVANCED ANALYSIS 1.1 General Requirements 1.2 Design by Elastic Analysis |
203 | 1.3 Design by Inelastic Analysis |
209 | APPENDIX 2 – THE CONTINUOUS STRENGTH METHOD 2.1. Limitations 2.2 Material Modeling 2.3 Deformation Capacity |
212 | 2.4 Tensile Strength |
213 | 2.5. Compressive Strength 2.6. Flexural Strength |
214 | 2.7. Combined Flexure and Compression |
216 | APPENDIX 3 – FATIGUE 3.1. General Provisions |
217 | 3.2. Calculation of Maximum Stresses and Stress Range 3.3. Plain Material and Welded Joints |
220 | 3.4. Bolts and Threaded Parts 3.5. Fabrication and Erection Requirements for Fatigue |
221 | 3.6. Nondestructive Examination Requirements for Fatigue |
240 | APPENDIX 4 – STRUCTURAL DESIGN FOR FIRE CONDITIONS 4.1. General Provisions |
241 | 4.2. Structural Design for Fire Conditions By Analysis |
249 | 4.3. Design by Qualification Testing |
251 | APPENDIX 5 – EVALUATION OF EXISTING STRUCTURES 5.1. General Provisions 5.2. Material Properties |
252 | 5.3. Evaluation by Structural Analysis |
253 | 5.4. Evaluation by Load Tests |
254 | 5.5. Evaluation Report |
255 | APPENDIX 6 – MEMBER STABILITY BRACING 6.1. General Provisions |
256 | 6.2. Column Bracing |
258 | 6.3. Beam Bracing |
262 | 6.4. Beam-Column Bracing |
263 | APPENDIX 7 – MODELING OF MATERIAL BEHAVIOR 7.1. Material Behavior at Ambient Temperature |
264 | 7.2. Material Behavior at Elevated Temperatures |
267 | COMMENTARY |
268 | COMMENTARY SYMBOLS |
271 | CHAPTER A – GENERAL PROVISIONS |
294 | CHAPTER B – DESIGN REQUIREMENTS |
303 | CHAPTER C – DESIGN FOR STABILITY |
306 | CHAPTER D – DESIGN OF MEMBERS FOR TENSION |
309 | CHAPTER E – DESIGN OF MEMBERS FOR COMPRESSION |
316 | CHAPTER F – DESIGN OF MEMBERS FOR FLEXURE |
327 | CHAPTER G – DESIGN OF MEMBERS FOR SHEAR AND TORSION |
335 | CHAPTER H – DESIGN OF MEMBERS FOR COMBINED FORCES |
338 | CHAPTER I – DESIGN OF COMPOSITE MEMBERS |
339 | CHAPTER J – DESIGN OF CONNECTIONS |
357 | CHAPTER K – ADDITIONAL REQUIREMENTS FOR HSS AND BOX-SECTION CONNECTIONS |
359 | CHAPTER L – DESIGN FOR SERVICEABILITY |
362 | CHAPTER M – FABRICATION AND ERECTION |
365 | CHAPTER N – QUALITY CONTROL AND QUALITY ASSURANCE |
379 | APPENDIX 1 – DESIGN BY ADVANCE ANALYSIS |
390 | APPENDIX 2 – THE CONTINUOUS STRENGTH METHOD |
394 | APPENDIX 3 – FATIGUE |
396 | APPENDIX 4 – STRUCTURAL DESIGN FOR FIRE CONDITIONS |
401 | APPENDIX 5 – EVALUATION OF EXISTING STRUCTURES |
404 | APPENDIX 6 – MEMBER STABILITY BRACING |
405 | APPENDIX 7 – MODELING MATERIAL BEHAVIOR |
408 | REFERENCES |
425 | Metric Conversion Factors for Common Steel Design Units used in AISC Specifications |