Online predicting method for mechanical properties of cast steel material
A technology of material mechanics and prediction methods, which is applied in the direction of measuring devices, scientific instruments, and analytical materials, etc., and can solve problems such as the mechanical properties of cast steel materials not meeting the requirements
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Embodiment 1
[0156] The first step is to configure the dedicated device:
[0157] The special device for the online prediction method of the mechanical properties of cast steel mainly includes three parts: spectrometer 1, a display 2 that displays the online calculation results of mechanical properties of cast steel, and a computer 3 equipped with calculation equations for the mechanical properties of cast steel. Secondly, it is necessary to measure the cast steel Universal testing machine and hardness tester for various mechanical properties of materials; the model of spectrometer 1 used is Thermo Fisher ARL 8860 photoelectric direct reading spectrometer, and the model of monitor 2 used to display the online calculation results of mechanical properties of cast steel materials is Dell monitor. The model of the computer 3 installed with the calculation equations of cast steel mechanical properties is Vostro 3900 series.
[0158] The second step is to accumulate the elemental composition con...
Embodiment 2
[0299] In this example, the calculation equations of tensile strength, yield strength, elongation, reduction of area and Brinell hardness obtained from 60 sets of accumulated data of ZG45Mn steel are used to predict the composition of ZG45Mn to be: C 0.446%, Si 0.383%, Mn1.35 %, P 0.026%, S 0.037%, Cr0.0390%, Ni 0.024%, Mo 0.021%, Cu 0.034%, Ti 0.006%, Co0.011%, Al 0.025%, V 0.023%, W 0.006%, B 0.002 % and Pb 0.013% of the mechanical properties are as follows: tensile strength = -588.952·0.446%+5051.306·0.383%+11.49591·1.35%+82768.96·0.026%-44821.9·0.037%+836.6707·0.0390%-1185.4·0.00% %+1157.87·0.021%+6707.833·0.034%+13838.36·0.006%-18933.8·0.011%+26654.42·0.025%+2720.107·0.023%+115524.5·0.006%-163448·0.002%+90322.88·0.013%-3925.09=657N ;
[0300] 屈服强度=-1808.52·0.446%+3889.31·0.383%+443.3634·1.35%+30772.88·0.026%-22520.1·0.037%+542.5861·0.0390%-673.869·0.024%+708.8326·0.021%+3704.3339·0.034%+14968.84 0.006%-13616.9 0.011%+6186.412 0.025%+2503.288 0.023%+98602.59 0.006%-18662...
Embodiment 3
[0307] In this example, the tensile strength, yield strength, elongation, reduction of area and Brinell hardness calculation equations obtained from 120 sets of data accumulated by American Standard WCB steel are used to predict the composition of WCB as follows: C 0.27%, Si 0.35%, Mn0 .90%, P 0.031%, S 0.043%, Cr 0.35%, Ni 0.28%, Mo 0.21%, Cu 0.075%, Ti 0.007%, Co 0.012%, Al 0.013%, V 0.01%, W 0.011%, B The mechanical properties of 0.004% and Pb 0.009% are as follows:
[0308]Tensile strength=-588.952·0.27%+5051.306·0.35%+11.49591·0.90%+82768.96·0.031%-44821.9·0.043%+836.6707·0.35%-1185.6·0.28%+1157.87·0.21%+357%07 13838.36·0.007%-18933.8·0.012%+26654.42·0.013%+2720.107·0.01%+115524.5·0.011%-163448·0.004%+90322.88·0.009%-3925.09=545N;
[0309] 屈服强度=-1808.52·0.27%+3889.31·0.35%+443.3634·0.90%+30772.88·0.031%-22520.1·0.043%+542.5861·0.35%-673.869·0.28%+708.8326·0.21%+3704.3339·0.075%+14968.84 0.007%-13616.9 0.012%+6186.412 0.013%+2503.288 0.01%+98602.59 0.011%-186624 0.004%+6...
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