Calculate/Check the section properties (I, S, r in the x and y directions) for a W12x26/C10x15.3...
Fantastic news! We've Found the answer you've been seeking!
Question:
Transcribed Image Text:
Calculate/Check the section properties (I, S, r in the x and y directions) for a W12x26/C10x15.3 (page 1-114 AISC). Use the parallel axis theorem. Using the section in Prob. 2 as a crane girder with a 40-foot span that is simply-supported, shown below. Determine the maximum bending stress due to a concentrated loading from the crane wheels of 25 kips vertically and 7.5 kips laterally at the mid-span. Ignore the stresses due to torsion in your calculations. 25 kip T Rx 7.5 kip T Rx Ry Axis X-X Total Total Wt. S = W-Shape Channel Area Ib/ft in. in. in in 56.8 553 831 12000 11500 w36x150 MC18×42.7 C1533.9 193 184 146 146 542 546 764 10000 9580 W33x141 490 750 MC1842.7 C15-33.9 184 54.1 51.5 136 175 484 689 134 W33x118 400 656 MC18x42.7 C1533.9 47.2 44.6 161 8280 132 152 7900 395 596 133 W30x116 MC18x42.7 159 150 46.8 6900 6590 365 360 598 544 12.1 C15x33.9 44,1 122 W30x99 MC18x42.7 C15x33.9 142 41.6 5830 5550 304 300 533 481 118 133 39.0 11.9 W27x94 C15x33.9 128 37.6 4530 268 435 11.0 W27x84 C15-33.9 118 347 4050 237 403 10.8 W24-84 C15x33.9 C12-20,7 118 105 34.7 3340 217 367 9.82 9.92 30.8 3030 211 302 W24-68 C15x33.9 102 30.0 2710 173 9.51 9.67 321 C12-20.7 88.7 26.1 2440 168 258 W21x68 C15-33.9 C12-20.7 102 30.0 26.1 2180 1970 156 8.52 8.67 287 88.7 152 232 W21x62 C15x33.9 95.9 28.2 2000 272 841 8.59 142 C12-20.7 82.7 24.3 1800 138 218 W18x50 C15x33.9 C12-20.7 83.9 70.7 24.6 20.7 1250 100 211 7.12 1120 97.3 166 735 WI6-36 C15x33.9 69.9 56.7 20.5 16.6 6.04 6.34 748 64.5 160 123 C12-20.7 670 628 W1430 C12-20.7 C10x15.3 50.7 5.47 14.9 13.3 447 46.7 46.0 98.1 45.3 420 84.5 5.61 W1226 C12-20.7 C10x15.3 46.7 41.3 13.7 12.1 4.81 4.96 318 36.8 36.3 82.1 299 70.5 Axis X-X Axis Y-Y W-Sape Channel In. in. in in. in in In. in. MC18x42.7 C15x33.9 W36x150 21.8 14.5 15.1 738 716 28.0 25.9 824 584 91.5 3.81 146 21.1 77.9 3.28 122 w33x141 MC18x42.7 13.3 652 800 88.9 74.8 3.85 142 118 20.4 27.0 C15-33.9 19.8 13.9 635 24.9 561 3.30 W33x118 MC1842.7 C15x33.9 27.8 823 126 102 20.7 12.6 133 544 741 3.96 20.0 529 25.5 502 66.9 3.35 11.5 12.1 W30x116 718 MC18×42.7 C15x339 18.9 18.3 492 480 26.1 23.8 79.8 3.92 124 479 63.8 3.29 100 MC18-42.7 C15x33.9 75.8 59.0 W30-99 19.2 26.4 24.4 682 442 10.9 4.05 114 412 408 18.5 11.5 3.37 89.4 W27x94 C15x339 16.9 10.4 357 23.6 439 58.5 3.41 89.6 Wz7x84 C15x339 17.1 10.0 316 23.9 420 56.0 3.48 83.9 3.43 2.69 83.4 58.2 C15-339 15.4 14.3 W24x84 9.10 286 21.6 409 54.5 C12-20.7 10.0 275 18.5 223 37.2 8.46 232 21.7 19.2 385 199 51.3 33.2 3.58 2.76 75.3 50.1 W24x68 C15x33.9 C12x20.7 15,7 14.5 9.49 224 C15x33.9 3.56 13.9 12.9 W21x68 7.59 207 19.3 379 50.6 75.1 C12-20.7 8.49 200 17.6 194 32.3 2.72 50.0 189 372 186 49.6 31.1 3.63 2.77 C15x33.9 14.1 725 7.33 8.26 W21x62 19.4 C12-20.7 13.0 183 18.1 47.3 12.5 16.9 16.1 Wi8:50 5.92 6.76 354 47.3 3.79 67.3 133 C15x33.9 C12-20.7 11.5 127 169 28.2 2.85 42.2 W16-36 339 452 4.06 61.6 C15x33.9 C12x20.7 4.67 86.8 83.2 11.6 15.2 10.7 5.47 14.6 153 25.6 3.04 36.4 4.55 149 24.8 3.16 62.0 60.3 W14x30 12.9 34.6 C12-20.7 CI0x15.3 9.57 9.11 4.97 12.6 86.8 17.4 2.55 24.9 W12x26 3.87 48.2 11.6 146 24.4 3.27 33.7 C12-20.7 C10x15.3 8.63 8.22 4.24 47.0 11.3 84.5 16.9 2.64 24.1 STRONG AXIS: WEAK AXIS: (c) (c) (c) .original shape I- exaggerated deflect ed shape C)com pression (T) कोnsion (T) (c) CRITICAL POINT: EXTREME FİBRES 1yaxis Cweak) ーX-axS (strong) Calculate/Check the section properties (I, S, r in the x and y directions) for a W12x26/C10x15.3 (page 1-114 AISC). Use the parallel axis theorem. Using the section in Prob. 2 as a crane girder with a 40-foot span that is simply-supported, shown below. Determine the maximum bending stress due to a concentrated loading from the crane wheels of 25 kips vertically and 7.5 kips laterally at the mid-span. Ignore the stresses due to torsion in your calculations. 25 kip T Rx 7.5 kip T Rx Ry Axis X-X Total Total Wt. S = W-Shape Channel Area Ib/ft in. in. in in 56.8 553 831 12000 11500 w36x150 MC18×42.7 C1533.9 193 184 146 146 542 546 764 10000 9580 W33x141 490 750 MC1842.7 C15-33.9 184 54.1 51.5 136 175 484 689 134 W33x118 400 656 MC18x42.7 C1533.9 47.2 44.6 161 8280 132 152 7900 395 596 133 W30x116 MC18x42.7 159 150 46.8 6900 6590 365 360 598 544 12.1 C15x33.9 44,1 122 W30x99 MC18x42.7 C15x33.9 142 41.6 5830 5550 304 300 533 481 118 133 39.0 11.9 W27x94 C15x33.9 128 37.6 4530 268 435 11.0 W27x84 C15-33.9 118 347 4050 237 403 10.8 W24-84 C15x33.9 C12-20,7 118 105 34.7 3340 217 367 9.82 9.92 30.8 3030 211 302 W24-68 C15x33.9 102 30.0 2710 173 9.51 9.67 321 C12-20.7 88.7 26.1 2440 168 258 W21x68 C15-33.9 C12-20.7 102 30.0 26.1 2180 1970 156 8.52 8.67 287 88.7 152 232 W21x62 C15x33.9 95.9 28.2 2000 272 841 8.59 142 C12-20.7 82.7 24.3 1800 138 218 W18x50 C15x33.9 C12-20.7 83.9 70.7 24.6 20.7 1250 100 211 7.12 1120 97.3 166 735 WI6-36 C15x33.9 69.9 56.7 20.5 16.6 6.04 6.34 748 64.5 160 123 C12-20.7 670 628 W1430 C12-20.7 C10x15.3 50.7 5.47 14.9 13.3 447 46.7 46.0 98.1 45.3 420 84.5 5.61 W1226 C12-20.7 C10x15.3 46.7 41.3 13.7 12.1 4.81 4.96 318 36.8 36.3 82.1 299 70.5 Axis X-X Axis Y-Y W-Sape Channel In. in. in in. in in In. in. MC18x42.7 C15x33.9 W36x150 21.8 14.5 15.1 738 716 28.0 25.9 824 584 91.5 3.81 146 21.1 77.9 3.28 122 w33x141 MC18x42.7 13.3 652 800 88.9 74.8 3.85 142 118 20.4 27.0 C15-33.9 19.8 13.9 635 24.9 561 3.30 W33x118 MC1842.7 C15x33.9 27.8 823 126 102 20.7 12.6 133 544 741 3.96 20.0 529 25.5 502 66.9 3.35 11.5 12.1 W30x116 718 MC18×42.7 C15x339 18.9 18.3 492 480 26.1 23.8 79.8 3.92 124 479 63.8 3.29 100 MC18-42.7 C15x33.9 75.8 59.0 W30-99 19.2 26.4 24.4 682 442 10.9 4.05 114 412 408 18.5 11.5 3.37 89.4 W27x94 C15x339 16.9 10.4 357 23.6 439 58.5 3.41 89.6 Wz7x84 C15x339 17.1 10.0 316 23.9 420 56.0 3.48 83.9 3.43 2.69 83.4 58.2 C15-339 15.4 14.3 W24x84 9.10 286 21.6 409 54.5 C12-20.7 10.0 275 18.5 223 37.2 8.46 232 21.7 19.2 385 199 51.3 33.2 3.58 2.76 75.3 50.1 W24x68 C15x33.9 C12x20.7 15,7 14.5 9.49 224 C15x33.9 3.56 13.9 12.9 W21x68 7.59 207 19.3 379 50.6 75.1 C12-20.7 8.49 200 17.6 194 32.3 2.72 50.0 189 372 186 49.6 31.1 3.63 2.77 C15x33.9 14.1 725 7.33 8.26 W21x62 19.4 C12-20.7 13.0 183 18.1 47.3 12.5 16.9 16.1 Wi8:50 5.92 6.76 354 47.3 3.79 67.3 133 C15x33.9 C12-20.7 11.5 127 169 28.2 2.85 42.2 W16-36 339 452 4.06 61.6 C15x33.9 C12x20.7 4.67 86.8 83.2 11.6 15.2 10.7 5.47 14.6 153 25.6 3.04 36.4 4.55 149 24.8 3.16 62.0 60.3 W14x30 12.9 34.6 C12-20.7 CI0x15.3 9.57 9.11 4.97 12.6 86.8 17.4 2.55 24.9 W12x26 3.87 48.2 11.6 146 24.4 3.27 33.7 C12-20.7 C10x15.3 8.63 8.22 4.24 47.0 11.3 84.5 16.9 2.64 24.1 STRONG AXIS: WEAK AXIS: (c) (c) (c) .original shape I- exaggerated deflect ed shape C)com pression (T) कोnsion (T) (c) CRITICAL POINT: EXTREME FİBRES 1yaxis Cweak) ーX-axS (strong) Calculate/Check the section properties (I, S, r in the x and y directions) for a W12x26/C10x15.3 (page 1-114 AISC). Use the parallel axis theorem. Using the section in Prob. 2 as a crane girder with a 40-foot span that is simply-supported, shown below. Determine the maximum bending stress due to a concentrated loading from the crane wheels of 25 kips vertically and 7.5 kips laterally at the mid-span. Ignore the stresses due to torsion in your calculations. 25 kip T Rx 7.5 kip T Rx Ry Axis X-X Total Total Wt. S = W-Shape Channel Area Ib/ft in. in. in in 56.8 553 831 12000 11500 w36x150 MC18×42.7 C1533.9 193 184 146 146 542 546 764 10000 9580 W33x141 490 750 MC1842.7 C15-33.9 184 54.1 51.5 136 175 484 689 134 W33x118 400 656 MC18x42.7 C1533.9 47.2 44.6 161 8280 132 152 7900 395 596 133 W30x116 MC18x42.7 159 150 46.8 6900 6590 365 360 598 544 12.1 C15x33.9 44,1 122 W30x99 MC18x42.7 C15x33.9 142 41.6 5830 5550 304 300 533 481 118 133 39.0 11.9 W27x94 C15x33.9 128 37.6 4530 268 435 11.0 W27x84 C15-33.9 118 347 4050 237 403 10.8 W24-84 C15x33.9 C12-20,7 118 105 34.7 3340 217 367 9.82 9.92 30.8 3030 211 302 W24-68 C15x33.9 102 30.0 2710 173 9.51 9.67 321 C12-20.7 88.7 26.1 2440 168 258 W21x68 C15-33.9 C12-20.7 102 30.0 26.1 2180 1970 156 8.52 8.67 287 88.7 152 232 W21x62 C15x33.9 95.9 28.2 2000 272 841 8.59 142 C12-20.7 82.7 24.3 1800 138 218 W18x50 C15x33.9 C12-20.7 83.9 70.7 24.6 20.7 1250 100 211 7.12 1120 97.3 166 735 WI6-36 C15x33.9 69.9 56.7 20.5 16.6 6.04 6.34 748 64.5 160 123 C12-20.7 670 628 W1430 C12-20.7 C10x15.3 50.7 5.47 14.9 13.3 447 46.7 46.0 98.1 45.3 420 84.5 5.61 W1226 C12-20.7 C10x15.3 46.7 41.3 13.7 12.1 4.81 4.96 318 36.8 36.3 82.1 299 70.5 Axis X-X Axis Y-Y W-Sape Channel In. in. in in. in in In. in. MC18x42.7 C15x33.9 W36x150 21.8 14.5 15.1 738 716 28.0 25.9 824 584 91.5 3.81 146 21.1 77.9 3.28 122 w33x141 MC18x42.7 13.3 652 800 88.9 74.8 3.85 142 118 20.4 27.0 C15-33.9 19.8 13.9 635 24.9 561 3.30 W33x118 MC1842.7 C15x33.9 27.8 823 126 102 20.7 12.6 133 544 741 3.96 20.0 529 25.5 502 66.9 3.35 11.5 12.1 W30x116 718 MC18×42.7 C15x339 18.9 18.3 492 480 26.1 23.8 79.8 3.92 124 479 63.8 3.29 100 MC18-42.7 C15x33.9 75.8 59.0 W30-99 19.2 26.4 24.4 682 442 10.9 4.05 114 412 408 18.5 11.5 3.37 89.4 W27x94 C15x339 16.9 10.4 357 23.6 439 58.5 3.41 89.6 Wz7x84 C15x339 17.1 10.0 316 23.9 420 56.0 3.48 83.9 3.43 2.69 83.4 58.2 C15-339 15.4 14.3 W24x84 9.10 286 21.6 409 54.5 C12-20.7 10.0 275 18.5 223 37.2 8.46 232 21.7 19.2 385 199 51.3 33.2 3.58 2.76 75.3 50.1 W24x68 C15x33.9 C12x20.7 15,7 14.5 9.49 224 C15x33.9 3.56 13.9 12.9 W21x68 7.59 207 19.3 379 50.6 75.1 C12-20.7 8.49 200 17.6 194 32.3 2.72 50.0 189 372 186 49.6 31.1 3.63 2.77 C15x33.9 14.1 725 7.33 8.26 W21x62 19.4 C12-20.7 13.0 183 18.1 47.3 12.5 16.9 16.1 Wi8:50 5.92 6.76 354 47.3 3.79 67.3 133 C15x33.9 C12-20.7 11.5 127 169 28.2 2.85 42.2 W16-36 339 452 4.06 61.6 C15x33.9 C12x20.7 4.67 86.8 83.2 11.6 15.2 10.7 5.47 14.6 153 25.6 3.04 36.4 4.55 149 24.8 3.16 62.0 60.3 W14x30 12.9 34.6 C12-20.7 CI0x15.3 9.57 9.11 4.97 12.6 86.8 17.4 2.55 24.9 W12x26 3.87 48.2 11.6 146 24.4 3.27 33.7 C12-20.7 C10x15.3 8.63 8.22 4.24 47.0 11.3 84.5 16.9 2.64 24.1 STRONG AXIS: WEAK AXIS: (c) (c) (c) .original shape I- exaggerated deflect ed shape C)com pression (T) कोnsion (T) (c) CRITICAL POINT: EXTREME FİBRES 1yaxis Cweak) ーX-axS (strong) Calculate/Check the section properties (I, S, r in the x and y directions) for a W12x26/C10x15.3 (page 1-114 AISC). Use the parallel axis theorem. Using the section in Prob. 2 as a crane girder with a 40-foot span that is simply-supported, shown below. Determine the maximum bending stress due to a concentrated loading from the crane wheels of 25 kips vertically and 7.5 kips laterally at the mid-span. Ignore the stresses due to torsion in your calculations. 25 kip T Rx 7.5 kip T Rx Ry Axis X-X Total Total Wt. S = W-Shape Channel Area Ib/ft in. in. in in 56.8 553 831 12000 11500 w36x150 MC18×42.7 C1533.9 193 184 146 146 542 546 764 10000 9580 W33x141 490 750 MC1842.7 C15-33.9 184 54.1 51.5 136 175 484 689 134 W33x118 400 656 MC18x42.7 C1533.9 47.2 44.6 161 8280 132 152 7900 395 596 133 W30x116 MC18x42.7 159 150 46.8 6900 6590 365 360 598 544 12.1 C15x33.9 44,1 122 W30x99 MC18x42.7 C15x33.9 142 41.6 5830 5550 304 300 533 481 118 133 39.0 11.9 W27x94 C15x33.9 128 37.6 4530 268 435 11.0 W27x84 C15-33.9 118 347 4050 237 403 10.8 W24-84 C15x33.9 C12-20,7 118 105 34.7 3340 217 367 9.82 9.92 30.8 3030 211 302 W24-68 C15x33.9 102 30.0 2710 173 9.51 9.67 321 C12-20.7 88.7 26.1 2440 168 258 W21x68 C15-33.9 C12-20.7 102 30.0 26.1 2180 1970 156 8.52 8.67 287 88.7 152 232 W21x62 C15x33.9 95.9 28.2 2000 272 841 8.59 142 C12-20.7 82.7 24.3 1800 138 218 W18x50 C15x33.9 C12-20.7 83.9 70.7 24.6 20.7 1250 100 211 7.12 1120 97.3 166 735 WI6-36 C15x33.9 69.9 56.7 20.5 16.6 6.04 6.34 748 64.5 160 123 C12-20.7 670 628 W1430 C12-20.7 C10x15.3 50.7 5.47 14.9 13.3 447 46.7 46.0 98.1 45.3 420 84.5 5.61 W1226 C12-20.7 C10x15.3 46.7 41.3 13.7 12.1 4.81 4.96 318 36.8 36.3 82.1 299 70.5 Axis X-X Axis Y-Y W-Sape Channel In. in. in in. in in In. in. MC18x42.7 C15x33.9 W36x150 21.8 14.5 15.1 738 716 28.0 25.9 824 584 91.5 3.81 146 21.1 77.9 3.28 122 w33x141 MC18x42.7 13.3 652 800 88.9 74.8 3.85 142 118 20.4 27.0 C15-33.9 19.8 13.9 635 24.9 561 3.30 W33x118 MC1842.7 C15x33.9 27.8 823 126 102 20.7 12.6 133 544 741 3.96 20.0 529 25.5 502 66.9 3.35 11.5 12.1 W30x116 718 MC18×42.7 C15x339 18.9 18.3 492 480 26.1 23.8 79.8 3.92 124 479 63.8 3.29 100 MC18-42.7 C15x33.9 75.8 59.0 W30-99 19.2 26.4 24.4 682 442 10.9 4.05 114 412 408 18.5 11.5 3.37 89.4 W27x94 C15x339 16.9 10.4 357 23.6 439 58.5 3.41 89.6 Wz7x84 C15x339 17.1 10.0 316 23.9 420 56.0 3.48 83.9 3.43 2.69 83.4 58.2 C15-339 15.4 14.3 W24x84 9.10 286 21.6 409 54.5 C12-20.7 10.0 275 18.5 223 37.2 8.46 232 21.7 19.2 385 199 51.3 33.2 3.58 2.76 75.3 50.1 W24x68 C15x33.9 C12x20.7 15,7 14.5 9.49 224 C15x33.9 3.56 13.9 12.9 W21x68 7.59 207 19.3 379 50.6 75.1 C12-20.7 8.49 200 17.6 194 32.3 2.72 50.0 189 372 186 49.6 31.1 3.63 2.77 C15x33.9 14.1 725 7.33 8.26 W21x62 19.4 C12-20.7 13.0 183 18.1 47.3 12.5 16.9 16.1 Wi8:50 5.92 6.76 354 47.3 3.79 67.3 133 C15x33.9 C12-20.7 11.5 127 169 28.2 2.85 42.2 W16-36 339 452 4.06 61.6 C15x33.9 C12x20.7 4.67 86.8 83.2 11.6 15.2 10.7 5.47 14.6 153 25.6 3.04 36.4 4.55 149 24.8 3.16 62.0 60.3 W14x30 12.9 34.6 C12-20.7 CI0x15.3 9.57 9.11 4.97 12.6 86.8 17.4 2.55 24.9 W12x26 3.87 48.2 11.6 146 24.4 3.27 33.7 C12-20.7 C10x15.3 8.63 8.22 4.24 47.0 11.3 84.5 16.9 2.64 24.1 STRONG AXIS: WEAK AXIS: (c) (c) (c) .original shape I- exaggerated deflect ed shape C)com pression (T) कोnsion (T) (c) CRITICAL POINT: EXTREME FİBRES 1yaxis Cweak) ーX-axS (strong) Calculate/Check the section properties (I, S, r in the x and y directions) for a W12x26/C10x15.3 (page 1-114 AISC). Use the parallel axis theorem. Using the section in Prob. 2 as a crane girder with a 40-foot span that is simply-supported, shown below. Determine the maximum bending stress due to a concentrated loading from the crane wheels of 25 kips vertically and 7.5 kips laterally at the mid-span. Ignore the stresses due to torsion in your calculations. 25 kip T Rx 7.5 kip T Rx Ry Axis X-X Total Total Wt. S = W-Shape Channel Area Ib/ft in. in. in in 56.8 553 831 12000 11500 w36x150 MC18×42.7 C1533.9 193 184 146 146 542 546 764 10000 9580 W33x141 490 750 MC1842.7 C15-33.9 184 54.1 51.5 136 175 484 689 134 W33x118 400 656 MC18x42.7 C1533.9 47.2 44.6 161 8280 132 152 7900 395 596 133 W30x116 MC18x42.7 159 150 46.8 6900 6590 365 360 598 544 12.1 C15x33.9 44,1 122 W30x99 MC18x42.7 C15x33.9 142 41.6 5830 5550 304 300 533 481 118 133 39.0 11.9 W27x94 C15x33.9 128 37.6 4530 268 435 11.0 W27x84 C15-33.9 118 347 4050 237 403 10.8 W24-84 C15x33.9 C12-20,7 118 105 34.7 3340 217 367 9.82 9.92 30.8 3030 211 302 W24-68 C15x33.9 102 30.0 2710 173 9.51 9.67 321 C12-20.7 88.7 26.1 2440 168 258 W21x68 C15-33.9 C12-20.7 102 30.0 26.1 2180 1970 156 8.52 8.67 287 88.7 152 232 W21x62 C15x33.9 95.9 28.2 2000 272 841 8.59 142 C12-20.7 82.7 24.3 1800 138 218 W18x50 C15x33.9 C12-20.7 83.9 70.7 24.6 20.7 1250 100 211 7.12 1120 97.3 166 735 WI6-36 C15x33.9 69.9 56.7 20.5 16.6 6.04 6.34 748 64.5 160 123 C12-20.7 670 628 W1430 C12-20.7 C10x15.3 50.7 5.47 14.9 13.3 447 46.7 46.0 98.1 45.3 420 84.5 5.61 W1226 C12-20.7 C10x15.3 46.7 41.3 13.7 12.1 4.81 4.96 318 36.8 36.3 82.1 299 70.5 Axis X-X Axis Y-Y W-Sape Channel In. in. in in. in in In. in. MC18x42.7 C15x33.9 W36x150 21.8 14.5 15.1 738 716 28.0 25.9 824 584 91.5 3.81 146 21.1 77.9 3.28 122 w33x141 MC18x42.7 13.3 652 800 88.9 74.8 3.85 142 118 20.4 27.0 C15-33.9 19.8 13.9 635 24.9 561 3.30 W33x118 MC1842.7 C15x33.9 27.8 823 126 102 20.7 12.6 133 544 741 3.96 20.0 529 25.5 502 66.9 3.35 11.5 12.1 W30x116 718 MC18×42.7 C15x339 18.9 18.3 492 480 26.1 23.8 79.8 3.92 124 479 63.8 3.29 100 MC18-42.7 C15x33.9 75.8 59.0 W30-99 19.2 26.4 24.4 682 442 10.9 4.05 114 412 408 18.5 11.5 3.37 89.4 W27x94 C15x339 16.9 10.4 357 23.6 439 58.5 3.41 89.6 Wz7x84 C15x339 17.1 10.0 316 23.9 420 56.0 3.48 83.9 3.43 2.69 83.4 58.2 C15-339 15.4 14.3 W24x84 9.10 286 21.6 409 54.5 C12-20.7 10.0 275 18.5 223 37.2 8.46 232 21.7 19.2 385 199 51.3 33.2 3.58 2.76 75.3 50.1 W24x68 C15x33.9 C12x20.7 15,7 14.5 9.49 224 C15x33.9 3.56 13.9 12.9 W21x68 7.59 207 19.3 379 50.6 75.1 C12-20.7 8.49 200 17.6 194 32.3 2.72 50.0 189 372 186 49.6 31.1 3.63 2.77 C15x33.9 14.1 725 7.33 8.26 W21x62 19.4 C12-20.7 13.0 183 18.1 47.3 12.5 16.9 16.1 Wi8:50 5.92 6.76 354 47.3 3.79 67.3 133 C15x33.9 C12-20.7 11.5 127 169 28.2 2.85 42.2 W16-36 339 452 4.06 61.6 C15x33.9 C12x20.7 4.67 86.8 83.2 11.6 15.2 10.7 5.47 14.6 153 25.6 3.04 36.4 4.55 149 24.8 3.16 62.0 60.3 W14x30 12.9 34.6 C12-20.7 CI0x15.3 9.57 9.11 4.97 12.6 86.8 17.4 2.55 24.9 W12x26 3.87 48.2 11.6 146 24.4 3.27 33.7 C12-20.7 C10x15.3 8.63 8.22 4.24 47.0 11.3 84.5 16.9 2.64 24.1 STRONG AXIS: WEAK AXIS: (c) (c) (c) .original shape I- exaggerated deflect ed shape C)com pression (T) कोnsion (T) (c) CRITICAL POINT: EXTREME FİBRES 1yaxis Cweak) ーX-axS (strong) Calculate/Check the section properties (I, S, r in the x and y directions) for a W12x26/C10x15.3 (page 1-114 AISC). Use the parallel axis theorem. Using the section in Prob. 2 as a crane girder with a 40-foot span that is simply-supported, shown below. Determine the maximum bending stress due to a concentrated loading from the crane wheels of 25 kips vertically and 7.5 kips laterally at the mid-span. Ignore the stresses due to torsion in your calculations. 25 kip T Rx 7.5 kip T Rx Ry Axis X-X Total Total Wt. S = W-Shape Channel Area Ib/ft in. in. in in 56.8 553 831 12000 11500 w36x150 MC18×42.7 C1533.9 193 184 146 146 542 546 764 10000 9580 W33x141 490 750 MC1842.7 C15-33.9 184 54.1 51.5 136 175 484 689 134 W33x118 400 656 MC18x42.7 C1533.9 47.2 44.6 161 8280 132 152 7900 395 596 133 W30x116 MC18x42.7 159 150 46.8 6900 6590 365 360 598 544 12.1 C15x33.9 44,1 122 W30x99 MC18x42.7 C15x33.9 142 41.6 5830 5550 304 300 533 481 118 133 39.0 11.9 W27x94 C15x33.9 128 37.6 4530 268 435 11.0 W27x84 C15-33.9 118 347 4050 237 403 10.8 W24-84 C15x33.9 C12-20,7 118 105 34.7 3340 217 367 9.82 9.92 30.8 3030 211 302 W24-68 C15x33.9 102 30.0 2710 173 9.51 9.67 321 C12-20.7 88.7 26.1 2440 168 258 W21x68 C15-33.9 C12-20.7 102 30.0 26.1 2180 1970 156 8.52 8.67 287 88.7 152 232 W21x62 C15x33.9 95.9 28.2 2000 272 841 8.59 142 C12-20.7 82.7 24.3 1800 138 218 W18x50 C15x33.9 C12-20.7 83.9 70.7 24.6 20.7 1250 100 211 7.12 1120 97.3 166 735 WI6-36 C15x33.9 69.9 56.7 20.5 16.6 6.04 6.34 748 64.5 160 123 C12-20.7 670 628 W1430 C12-20.7 C10x15.3 50.7 5.47 14.9 13.3 447 46.7 46.0 98.1 45.3 420 84.5 5.61 W1226 C12-20.7 C10x15.3 46.7 41.3 13.7 12.1 4.81 4.96 318 36.8 36.3 82.1 299 70.5 Axis X-X Axis Y-Y W-Sape Channel In. in. in in. in in In. in. MC18x42.7 C15x33.9 W36x150 21.8 14.5 15.1 738 716 28.0 25.9 824 584 91.5 3.81 146 21.1 77.9 3.28 122 w33x141 MC18x42.7 13.3 652 800 88.9 74.8 3.85 142 118 20.4 27.0 C15-33.9 19.8 13.9 635 24.9 561 3.30 W33x118 MC1842.7 C15x33.9 27.8 823 126 102 20.7 12.6 133 544 741 3.96 20.0 529 25.5 502 66.9 3.35 11.5 12.1 W30x116 718 MC18×42.7 C15x339 18.9 18.3 492 480 26.1 23.8 79.8 3.92 124 479 63.8 3.29 100 MC18-42.7 C15x33.9 75.8 59.0 W30-99 19.2 26.4 24.4 682 442 10.9 4.05 114 412 408 18.5 11.5 3.37 89.4 W27x94 C15x339 16.9 10.4 357 23.6 439 58.5 3.41 89.6 Wz7x84 C15x339 17.1 10.0 316 23.9 420 56.0 3.48 83.9 3.43 2.69 83.4 58.2 C15-339 15.4 14.3 W24x84 9.10 286 21.6 409 54.5 C12-20.7 10.0 275 18.5 223 37.2 8.46 232 21.7 19.2 385 199 51.3 33.2 3.58 2.76 75.3 50.1 W24x68 C15x33.9 C12x20.7 15,7 14.5 9.49 224 C15x33.9 3.56 13.9 12.9 W21x68 7.59 207 19.3 379 50.6 75.1 C12-20.7 8.49 200 17.6 194 32.3 2.72 50.0 189 372 186 49.6 31.1 3.63 2.77 C15x33.9 14.1 725 7.33 8.26 W21x62 19.4 C12-20.7 13.0 183 18.1 47.3 12.5 16.9 16.1 Wi8:50 5.92 6.76 354 47.3 3.79 67.3 133 C15x33.9 C12-20.7 11.5 127 169 28.2 2.85 42.2 W16-36 339 452 4.06 61.6 C15x33.9 C12x20.7 4.67 86.8 83.2 11.6 15.2 10.7 5.47 14.6 153 25.6 3.04 36.4 4.55 149 24.8 3.16 62.0 60.3 W14x30 12.9 34.6 C12-20.7 CI0x15.3 9.57 9.11 4.97 12.6 86.8 17.4 2.55 24.9 W12x26 3.87 48.2 11.6 146 24.4 3.27 33.7 C12-20.7 C10x15.3 8.63 8.22 4.24 47.0 11.3 84.5 16.9 2.64 24.1 STRONG AXIS: WEAK AXIS: (c) (c) (c) .original shape I- exaggerated deflect ed shape C)com pression (T) कोnsion (T) (c) CRITICAL POINT: EXTREME FİBRES 1yaxis Cweak) ーX-axS (strong) Calculate/Check the section properties (I, S, r in the x and y directions) for a W12x26/C10x15.3 (page 1-114 AISC). Use the parallel axis theorem. Using the section in Prob. 2 as a crane girder with a 40-foot span that is simply-supported, shown below. Determine the maximum bending stress due to a concentrated loading from the crane wheels of 25 kips vertically and 7.5 kips laterally at the mid-span. Ignore the stresses due to torsion in your calculations. 25 kip T Rx 7.5 kip T Rx Ry Axis X-X Total Total Wt. S = W-Shape Channel Area Ib/ft in. in. in in 56.8 553 831 12000 11500 w36x150 MC18×42.7 C1533.9 193 184 146 146 542 546 764 10000 9580 W33x141 490 750 MC1842.7 C15-33.9 184 54.1 51.5 136 175 484 689 134 W33x118 400 656 MC18x42.7 C1533.9 47.2 44.6 161 8280 132 152 7900 395 596 133 W30x116 MC18x42.7 159 150 46.8 6900 6590 365 360 598 544 12.1 C15x33.9 44,1 122 W30x99 MC18x42.7 C15x33.9 142 41.6 5830 5550 304 300 533 481 118 133 39.0 11.9 W27x94 C15x33.9 128 37.6 4530 268 435 11.0 W27x84 C15-33.9 118 347 4050 237 403 10.8 W24-84 C15x33.9 C12-20,7 118 105 34.7 3340 217 367 9.82 9.92 30.8 3030 211 302 W24-68 C15x33.9 102 30.0 2710 173 9.51 9.67 321 C12-20.7 88.7 26.1 2440 168 258 W21x68 C15-33.9 C12-20.7 102 30.0 26.1 2180 1970 156 8.52 8.67 287 88.7 152 232 W21x62 C15x33.9 95.9 28.2 2000 272 841 8.59 142 C12-20.7 82.7 24.3 1800 138 218 W18x50 C15x33.9 C12-20.7 83.9 70.7 24.6 20.7 1250 100 211 7.12 1120 97.3 166 735 WI6-36 C15x33.9 69.9 56.7 20.5 16.6 6.04 6.34 748 64.5 160 123 C12-20.7 670 628 W1430 C12-20.7 C10x15.3 50.7 5.47 14.9 13.3 447 46.7 46.0 98.1 45.3 420 84.5 5.61 W1226 C12-20.7 C10x15.3 46.7 41.3 13.7 12.1 4.81 4.96 318 36.8 36.3 82.1 299 70.5 Axis X-X Axis Y-Y W-Sape Channel In. in. in in. in in In. in. MC18x42.7 C15x33.9 W36x150 21.8 14.5 15.1 738 716 28.0 25.9 824 584 91.5 3.81 146 21.1 77.9 3.28 122 w33x141 MC18x42.7 13.3 652 800 88.9 74.8 3.85 142 118 20.4 27.0 C15-33.9 19.8 13.9 635 24.9 561 3.30 W33x118 MC1842.7 C15x33.9 27.8 823 126 102 20.7 12.6 133 544 741 3.96 20.0 529 25.5 502 66.9 3.35 11.5 12.1 W30x116 718 MC18×42.7 C15x339 18.9 18.3 492 480 26.1 23.8 79.8 3.92 124 479 63.8 3.29 100 MC18-42.7 C15x33.9 75.8 59.0 W30-99 19.2 26.4 24.4 682 442 10.9 4.05 114 412 408 18.5 11.5 3.37 89.4 W27x94 C15x339 16.9 10.4 357 23.6 439 58.5 3.41 89.6 Wz7x84 C15x339 17.1 10.0 316 23.9 420 56.0 3.48 83.9 3.43 2.69 83.4 58.2 C15-339 15.4 14.3 W24x84 9.10 286 21.6 409 54.5 C12-20.7 10.0 275 18.5 223 37.2 8.46 232 21.7 19.2 385 199 51.3 33.2 3.58 2.76 75.3 50.1 W24x68 C15x33.9 C12x20.7 15,7 14.5 9.49 224 C15x33.9 3.56 13.9 12.9 W21x68 7.59 207 19.3 379 50.6 75.1 C12-20.7 8.49 200 17.6 194 32.3 2.72 50.0 189 372 186 49.6 31.1 3.63 2.77 C15x33.9 14.1 725 7.33 8.26 W21x62 19.4 C12-20.7 13.0 183 18.1 47.3 12.5 16.9 16.1 Wi8:50 5.92 6.76 354 47.3 3.79 67.3 133 C15x33.9 C12-20.7 11.5 127 169 28.2 2.85 42.2 W16-36 339 452 4.06 61.6 C15x33.9 C12x20.7 4.67 86.8 83.2 11.6 15.2 10.7 5.47 14.6 153 25.6 3.04 36.4 4.55 149 24.8 3.16 62.0 60.3 W14x30 12.9 34.6 C12-20.7 CI0x15.3 9.57 9.11 4.97 12.6 86.8 17.4 2.55 24.9 W12x26 3.87 48.2 11.6 146 24.4 3.27 33.7 C12-20.7 C10x15.3 8.63 8.22 4.24 47.0 11.3 84.5 16.9 2.64 24.1 STRONG AXIS: WEAK AXIS: (c) (c) (c) .original shape I- exaggerated deflect ed shape C)com pression (T) कोnsion (T) (c) CRITICAL POINT: EXTREME FİBRES 1yaxis Cweak) ーX-axS (strong) Calculate/Check the section properties (I, S, r in the x and y directions) for a W12x26/C10x15.3 (page 1-114 AISC). Use the parallel axis theorem. Using the section in Prob. 2 as a crane girder with a 40-foot span that is simply-supported, shown below. Determine the maximum bending stress due to a concentrated loading from the crane wheels of 25 kips vertically and 7.5 kips laterally at the mid-span. Ignore the stresses due to torsion in your calculations. 25 kip T Rx 7.5 kip T Rx Ry Axis X-X Total Total Wt. S = W-Shape Channel Area Ib/ft in. in. in in 56.8 553 831 12000 11500 w36x150 MC18×42.7 C1533.9 193 184 146 146 542 546 764 10000 9580 W33x141 490 750 MC1842.7 C15-33.9 184 54.1 51.5 136 175 484 689 134 W33x118 400 656 MC18x42.7 C1533.9 47.2 44.6 161 8280 132 152 7900 395 596 133 W30x116 MC18x42.7 159 150 46.8 6900 6590 365 360 598 544 12.1 C15x33.9 44,1 122 W30x99 MC18x42.7 C15x33.9 142 41.6 5830 5550 304 300 533 481 118 133 39.0 11.9 W27x94 C15x33.9 128 37.6 4530 268 435 11.0 W27x84 C15-33.9 118 347 4050 237 403 10.8 W24-84 C15x33.9 C12-20,7 118 105 34.7 3340 217 367 9.82 9.92 30.8 3030 211 302 W24-68 C15x33.9 102 30.0 2710 173 9.51 9.67 321 C12-20.7 88.7 26.1 2440 168 258 W21x68 C15-33.9 C12-20.7 102 30.0 26.1 2180 1970 156 8.52 8.67 287 88.7 152 232 W21x62 C15x33.9 95.9 28.2 2000 272 841 8.59 142 C12-20.7 82.7 24.3 1800 138 218 W18x50 C15x33.9 C12-20.7 83.9 70.7 24.6 20.7 1250 100 211 7.12 1120 97.3 166 735 WI6-36 C15x33.9 69.9 56.7 20.5 16.6 6.04 6.34 748 64.5 160 123 C12-20.7 670 628 W1430 C12-20.7 C10x15.3 50.7 5.47 14.9 13.3 447 46.7 46.0 98.1 45.3 420 84.5 5.61 W1226 C12-20.7 C10x15.3 46.7 41.3 13.7 12.1 4.81 4.96 318 36.8 36.3 82.1 299 70.5 Axis X-X Axis Y-Y W-Sape Channel In. in. in in. in in In. in. MC18x42.7 C15x33.9 W36x150 21.8 14.5 15.1 738 716 28.0 25.9 824 584 91.5 3.81 146 21.1 77.9 3.28 122 w33x141 MC18x42.7 13.3 652 800 88.9 74.8 3.85 142 118 20.4 27.0 C15-33.9 19.8 13.9 635 24.9 561 3.30 W33x118 MC1842.7 C15x33.9 27.8 823 126 102 20.7 12.6 133 544 741 3.96 20.0 529 25.5 502 66.9 3.35 11.5 12.1 W30x116 718 MC18×42.7 C15x339 18.9 18.3 492 480 26.1 23.8 79.8 3.92 124 479 63.8 3.29 100 MC18-42.7 C15x33.9 75.8 59.0 W30-99 19.2 26.4 24.4 682 442 10.9 4.05 114 412 408 18.5 11.5 3.37 89.4 W27x94 C15x339 16.9 10.4 357 23.6 439 58.5 3.41 89.6 Wz7x84 C15x339 17.1 10.0 316 23.9 420 56.0 3.48 83.9 3.43 2.69 83.4 58.2 C15-339 15.4 14.3 W24x84 9.10 286 21.6 409 54.5 C12-20.7 10.0 275 18.5 223 37.2 8.46 232 21.7 19.2 385 199 51.3 33.2 3.58 2.76 75.3 50.1 W24x68 C15x33.9 C12x20.7 15,7 14.5 9.49 224 C15x33.9 3.56 13.9 12.9 W21x68 7.59 207 19.3 379 50.6 75.1 C12-20.7 8.49 200 17.6 194 32.3 2.72 50.0 189 372 186 49.6 31.1 3.63 2.77 C15x33.9 14.1 725 7.33 8.26 W21x62 19.4 C12-20.7 13.0 183 18.1 47.3 12.5 16.9 16.1 Wi8:50 5.92 6.76 354 47.3 3.79 67.3 133 C15x33.9 C12-20.7 11.5 127 169 28.2 2.85 42.2 W16-36 339 452 4.06 61.6 C15x33.9 C12x20.7 4.67 86.8 83.2 11.6 15.2 10.7 5.47 14.6 153 25.6 3.04 36.4 4.55 149 24.8 3.16 62.0 60.3 W14x30 12.9 34.6 C12-20.7 CI0x15.3 9.57 9.11 4.97 12.6 86.8 17.4 2.55 24.9 W12x26 3.87 48.2 11.6 146 24.4 3.27 33.7 C12-20.7 C10x15.3 8.63 8.22 4.24 47.0 11.3 84.5 16.9 2.64 24.1 STRONG AXIS: WEAK AXIS: (c) (c) (c) .original shape I- exaggerated deflect ed shape C)com pression (T) कोnsion (T) (c) CRITICAL POINT: EXTREME FİBRES 1yaxis Cweak) ーX-axS (strong)
Expert Answer:
Answer rating: 100% (QA)
SNo Distance from Area ay ay Iself Axr 208 46 204 765 1222 o240635 4851 1804 Cx o... View the full answer
Related Book For
Managerial Decision Modeling with Spreadsheets
ISBN: 978-0136115830
3rd edition
Authors: Nagraj Balakrishnan, Barry Render, Jr. Ralph M. Stair
Posted Date:
Students also viewed these accounting questions
-
Determine the maximum bending stress Ï max (due to pure bending by a moment M) for a beam having a cross section in the form of a circular core (see figure). The circle has diameter and the...
-
Determine the maximum bending stress in the handle of the cable cutter at section aa. A force of 45 lb is applied to the handles. 45 Ib 5 in. 4 in. 3 in. 0.75 in. 0.50 in. 45 lb
-
Consider the following LP problem, in which X and Y denote the number of units of products X and Y to produce, respectively: Maximize profit = $4X + $5T subject to the constraints Following...
-
Engineering is a dynamic field that requires continuous learning. Discuss how you plan to acquire and apply new knowledge as needed throughout your engineering career. Address the strategies you...
-
How are production and purchases budgets similar, and how do they differ? What type of organizations will use each of these budgets?
-
Summarize that upon the creation of the DR team, the manager that is placed in charge of the group will begin the creation of the DR policy. Note that this document may have already been created by...
-
Define the auditor's 'desired level of assurance'. Explain how this relates to the auditor's desired level of audit risk.
-
Consider a two-period model with two firms, A and B. In the first period, they simultaneously choose one of two actions, Enter or do not enter. Entry requires the expenditure of a fixed entry cost of...
-
Write a javascript program to display the grade of a student 1) Text 1-Student Name 2) Text 2-Student Id 3) Text 3 - Mark 4) Button - When you click the button display the grade in Paragraph (apply...
-
The Salida Salt Company is considering making a bid to supply the highway department with rock salt to drop on roads in the county during the winter. The contract will guarantee a minimum of 25,000...
-
Two carts on an air track move towards each other with velocities v; and v2i. The carts collide and their velocities vif and v2 are recorded. The table provides data about the collisions including...
-
An entity has revalued its property and has recognised the revaluation in its financial statements. The carrying value of the property was EUR 16m and the revalued amount is EUR 20m. Tax base of the...
-
Use Pascal's Triangle to write out the expansions of \((a+b)^{6}\) and \((a-b)^{4}\)
-
Speeds of automobiles on a certain stretch of freeway at 11:00 PM are normally distributed with mean \(65 \mathrm{mph}\). Twenty percent of the cars are traveling at speeds between 55 and \(65...
-
How does informed consent apply to someone who had not signed an advance directive? To a newborn? To a mature minor?
-
Use Green's Theorem to evaluate the line integral around the given closed curve. \(\oint_{C} y e^{x} d x+x e^{y} d y\), where \(C\) is the triangle with vertices \((-1,0),(0,4)\), and \((0,1)\),...
-
Use Kirchhoff law if I1= 2A find, 12, and 13. 13 07 202 40 E = 29 V www E = 43 V wwww
-
To balance the chemical equation SiH3 + O2 SiO2 + HO, you could introduce coefficients a, b, c, d and write aSiH3 + bO2 cSiO + dHO then write linear equations for each element. The equation for Si...
-
A distributor imports olive oil from Spain and Italy in large casks. He then mixes these oils in different proportions to create three grades of olive oil that are sold domestically in the United...
-
A technical college department head must plan the course offerings for the next term. Student demands make it necessary to offer at least 20 core courses (each of which counts for 3 credit hours) and...
-
What is an activity? What is an immediate predecessor?
-
Selected transactions from the journal of Wong Consultants are presented below (amounts in thousands). Instructions a. Post the transactions to T-accounts. b. Prepare a trial balance at August 31,...
-
The order of the accounts in the ledger is: a. assets, revenues, expenses, liabilities, share capitalordinary, dividends. b. assets, liabilities, share capitalordinary, dividends, revenues, expenses....
-
The T-accounts below summarize the ledger of Negrete Landscaping at the end of the first month of operations (amounts in ). Instructions a. Prepare the complete general journal (including...
Study smarter with the SolutionInn App