Multi-Pass Simulation of Heavy Plate Rolling Including Intermediate Forced Cooling

被引:0
|
作者
E.J.Palmiere [1 ]
A.A.Howe [1 ,2 ]
H.C.Carey [2 ]
机构
[1] Institute for Microstructural and Mechanical Process Engineering:The University of Sheffield (IMMPETUS),Sir Robert Hadfield Building,Mappin Street,Sheffield,S1 3JD,UK
[2] Tata Steel Research Development &Technology,Swinden Technology Centre,Moorgate,Rotherham S60 3AR,UK
关键词
Steel plate rolling; intermediate forced cooling; plane strain compression; recrystallisation; grain growth; finite element modelling; temperature and strain distribution;
D O I
10.13228/j.boyuan.issn1006-706x.2011.s1.106
中图分类号
TG335.5 [板材、带材、箔材轧制];
学科分类号
080201 ; 080503 ;
摘要
Thermomechanical Controlled Processing (TMCP) including accelerated cooling after the final hot rolling pass is a well-established technology,widely applied in HSLA steel plate production.However,there are still certain limitations,especially for thicker plate.The rolling schedule includes a long holding period (HP) after the roughing stage to allow the temperature to fall sufficiently for optimised TMCP during finishing.Intermediate Forced Cooling (IFC) applied during the HP can increase productivity by decreasing the required hold time,can restrict austenite grain growth,and can also improve the subsequent strain penetration in thick plate with further metallurgical benefits.Multi-pass plane strain compression (PSC) tests have been performed on the thermomechanical compression (TMC) machine at Sheffield University including different severities of IFC.Clearly it is impossible to simulate all aspects of the temperature and strain gradients present in thick plates in laboratory specimens,and most of the tests were conducted at temperatures and strains calculated by Finite Element modelling as relevant to specific positions through the plate thickness.However,some aspects of the gradients were addressed with tests using cold platens.The results have indeed shown that IFC can shorten the HP and reduce austenite grain growth and its variation across thick plate.
引用
收藏
页码:506 / 510
页数:5
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