AISC 360-22 Verification
Verification against AISC Manual Companion v16.0 worked examples for the AISC 360-22 member design engine.
Open AISC 360-22 Calculator · Full-page verification report
Methodology
This page summarizes AISC 360-22 member-engine checks against the AISC Steel Construction Manual 16th Edition Companion, Volume 1: Design Examples, Version 16.0.
- Independent source: Expected values are taken from published companion worked examples, not engine snapshots or generated baselines.
- Engine path: 39 rows exercise the AISC360_22 engine through member inputs and compare the resulting capacity or interaction ratio.
- Formula path: 3 D-chapter rupture rows supply Ae directly because connection geometry is outside the member-engine input scope.
- Scope: Connections, composite design, frame direct-analysis examples, plate-girder stiffener design, solid bars, and open-section warping torsion remain outside this page.
Verification Results
Each row compares an engine result against a published reference value. The difference column shows the percentage deviation.
| ID | Description | Section | Expected | Result | Diff % |
|---|---|---|---|---|---|
| AISC22-D01 | D.1 W8x21 tension gross yielding | W8x21 | 277 kips | 277.33 kips | 0.12% |
| AISC22-D02 | D.1 net-section rupture with supplied Ae | W8x21 | 211 kips | 210.6 kips | 0.19% |
| Formula-level check: Ae is supplied directly because bolt layout and shear-lag connection geometry are outside the member engine input scope. | |||||
| AISC22-D03 | D.2 L4x4x1/2 tension gross yielding | L4x4x1/2 | 169 kips | 170.12 kips | 0.66% |
| AISC22-D04 | D.2 L4x4x1/2 net-section rupture with supplied Ae | L4x4x1/2 | 140 kips | 140.4 kips | 0.29% |
| Formula-level check: Ae is supplied directly because bolt layout and shear-lag connection geometry are outside the member engine input scope. | |||||
| AISC22-D05 | D.3 WT6x20 tension gross yielding | WT6x20 | 263 kips | 260.52 kips | 0.94% |
| AISC22-D06 | D.3 WT6x20 net-section rupture with supplied Ae | WT6x20 | 245 kips | 244.7 kips | 0.11% |
| Formula-level check: Ae is supplied directly because bolt layout and shear-lag connection geometry are outside the member engine input scope. | |||||
| AISC22-D07 | D.4 HSS6x4x3/8 tension gross yielding | HSS6x4x3/8 | 278 kips | 278.09 kips | 0.03% |
| AISC22-D08 | D.5 HSS6.000x0.500 tension gross yielding | HSS6.000x0.500 | 364 kips | 364.05 kips | 0.01% |
| AISC22-E01 | E.1A/E.1C W14x132 compression LRFD | W14x132 | 892 kips | 889.65 kips | 0.26% |
| AISC22-E02 | E.1C W14x132 compression ASD | W14x132 | 598 kips | 591.92 kips | 1.02% |
| AISC22-E03 | E.1D W14x90 compression with intermediate bracing | W14x90 | 927 kips | 924.58 kips | 0.26% |
| AISC22-E04 | E.1E W16x31 slender-web compression | W16x31 | 189 kips | 187.84 kips | 0.61% |
| AISC22-E05 | E.7 WT7x34 compression governing flexural buckling | WT7x34 | 128 kips | 127.86 kips | 0.11% |
| AISC22-E06 | E.8 WT7x15 flexural-torsional compression | WT7x15 | 36.6 kips | 36.52 kips | 0.21% |
| AISC22-E07 | E.9 HSS12x10x3/8 compression | HSS12x10x3/8 | 556 kips | 553.86 kips | 0.38% |
| AISC22-E08 | E.10 HSS12x8x3/16 slender compression | HSS12x8x3/16 | 151 kips | 151.25 kips | 0.17% |
| AISC22-E09 | E.11 Pipe 10 Std compression | Pipe 10 Std | 221 kips | 218.58 kips | 1.09% |
| AISC22-F01 | F.1-1A W18x50 continuously braced major-axis bending | W18x50 | 379 kip-ft | 378.31 kip-ft | 0.18% |
| AISC22-F02 | F.1-2B W18x50 inelastic LTB | W18x50 | 304 kip-ft | 305.03 kip-ft | 0.34% |
| AISC22-F03 | F.1-3B W18x50 elastic LTB | W18x50 | 288 kip-ft | 288.31 kip-ft | 0.11% |
| AISC22-F04 | F.2-1B C15x33.9 compact channel yielding | C15x33.9 | 191 kip-ft | 190.5 kip-ft | 0.26% |
| AISC22-F05 | F.2-2B C15x33.9 channel LTB | C15x33.9 | 173 kip-ft | 172.08 kip-ft | 0.53% |
| AISC22-F06 | F.3B W21x48 noncompact-flange major-axis bending | W21x48 | 398 kip-ft | 397.06 kip-ft | 0.24% |
| AISC22-F07 | F.5 W12x58 minor-axis bending | W12x58 | 122 kip-ft | 121.33 kip-ft | 0.55% |
| AISC22-F08 | F.6 HSS3-1/2x3-1/2x1/8 compact square HSS bending | HSS3-1/2x3-1/2x1/8 | 7.2 kip-ft | 7.24 kip-ft | 0.52% |
| AISC22-F09 | F.7B HSS10x6x3/16 noncompact flange bending | HSS10x6x3/16 | 59.7 kip-ft | 59.8 kip-ft | 0.16% |
| AISC22-F10 | F.8B HSS8x8x3/16 slender flange bending | HSS8x8x3/16 | 45.4 kip-ft | 46.28 kip-ft | 1.94% |
| Largest current delta. This F7 slender HSS case uses the engine's exact shifted-neutral-axis effective-section calculation; the Manual Companion example uses the simpler conservative symmetric effective-width calculation. | |||||
| AISC22-F11 | F.9B Pipe 8 x-Strong bending | Pipe8xS | 81.4 kip-ft | 81.37 kip-ft | 0.03% |
| AISC22-F12 | F.10 WT5x6 tee bending | WT5x6 | 7.32 kip-ft | 7.29 kip-ft | 0.40% |
| AISC22-G01 | G.1A/G.1B W24x62 major-axis shear | W24x62 | 306 kips | 305.73 kips | 0.09% |
| AISC22-G02 | G.2B C15x33.9 major-axis shear | C15x33.9 | 162 kips | 162 kips | 0.00% |
| AISC22-G03 | G.3 L5x3x1/4 angle shear | L5x3x1/4 | 33.8 kips | 33.75 kips | 0.15% |
| AISC22-G04 | G.4 HSS6x4x3/8 major-axis shear | HSS6x4x3/8 | 93.6 kips | 93.34 kips | 0.27% |
| AISC22-G05 | G.5 HSS16.000x0.375 shear | HSS16.000x0.375 | 232 kips | 232.21 kips | 0.09% |
| AISC22-G06 | G.6 W21x48 minor-axis shear | W21x48 | 189 kips | 189.01 kips | 0.01% |
| AISC22-G07 | G.7 C9x20 minor-axis shear | C9x20 | 59.1 kips | 59.1 kips | 0.00% |
| AISC22-H01 | H.1B W14x99 compression plus biaxial bending interaction | W14x99 | 0.928 | 0.925 | 0.36% |
| AISC22-H02 | H.3 W14x82 tension plus biaxial bending interaction | W14x82 | 0.873 | 0.881 | 0.89% |
| AISC22-H03 | H.4 W10x33 compression plus biaxial bending interaction | W10x33 | 0.979 | 0.981 | 0.24% |
| AISC22-H04 | H.5A HSS6x4x1/4 torsional strength | HSS6x4x1/4 | 273 kip-in | 272.02 kip-in | 0.36% |
| AISC22-H05 | H.5B HSS5.000x0.250 torsional strength | HSS5.000x0.250 | 215 kip-in | 214.61 kip-in | 0.18% |
| AISC22-H06 | H.5C HSS6x4x1/4 combined torsion and flexure H3-6 ratio | HSS6x4x1/4 | 0.333 | 0.334 | 0.23% |
Disclaimer: This verification page is provided for informative purposes only and does not constitute a guarantee of accuracy for all possible configurations. While we use automated verification checks to help find defects, no software is entirely free of defects. Engineers must exercise independent professional judgement and verify results through their own checks before relying on any output for design or construction decisions. AutoCalcs accepts no liability for errors, omissions, or any consequences arising from the use of this software.