Research Article
Stress Analysis and Structural Optimization of Steel–Concrete Joint of Zhonghua Road Bridge in Liaocheng
Table 6
Stress of concrete filled in the joint under different load combinations.
| Load | Maximum tensile stress along the bridge’s central line (MPa) | Maximum compressive stress along the bridge’s central line (MPa) | Maximum tensile stress perpendicular to the bridge’s central line (MPa) | Maximum compressive stress perpendicular to the bridge’s central line (MPa) | Maximum principal stress (MPa) |
| Load 1 | 2.39 | −2.12 | 2.05 | −14.61 | 2.02/−15.30 | Load 2 | 2.30 | −2.26 | 2.62 | −16.62 | 2.59/−17.54 | Load 3 | 2.40 | −2.12 | 2.06 | −14.63 | 2.03/−15.32 | Load 4 | 1.99 | −2.18 | 2.10 | −15.00 | 2.07/−15.72 | Load 5 | 2.40 | −2.13 | 2.07 | −14.72 | 2.02/−15.42 | Load 6 | 2.52 | −2.20 | 2.19 | −15.52 | 2.51/−16.40 |
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Note: Maximum tensile stress is positive, while maximum compressive stress is negative.
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