DocumentCode :
3567364
Title :
Estimated force based velocity synchronization for fly touch control in hot rolling process
Author :
Sung Min Yoon ; Min Cheol Lee ; Sung Jin Kim ; Hyun Hee Kim ; Keum Gang Cha
Author_Institution :
Grad. Sch. of Mech. Eng., Pusan Nat. Univ., Busan, South Korea
fYear :
2015
Firstpage :
1664
Lastpage :
1669
Abstract :
In the hot rolling process, scratches are caused by immense friction between the rollers and the steel plate, and this defect reduces the quality of steelworks. To solve this problem, a flying touch method was proposed, which can control the gap between rollers for reducing scratches in hot rolling process. In a flying touch method, it is important that the gap between the rolling rolls can be control precisely and the velocity of rolling rolls can be synchronize to minimize the friction between steel plate and rolling rolls. Therefore, this paper addresses the velocity synchronize control for fly touch method. To reduce friction between steel plate and rolling rolls, this study estimates load torque of rolling rolls using torque estimation method based on SPO and control the velocity of rolling rolls according to estimated load torque. To confirm the performance of the estimated Force based velocity synchronize control, experimental evaluation is performed using down scaled simulator designed in previous study.
Keywords :
hot rolling; plates (structures); rollers (machinery); rolling friction; steel; synchronisation; torque control; velocity control; SPO; down scaled simulator design; estimated force based velocity synchronization control; fly touch control method; friction minimization; hot rolling process; immense friction scratch; load torque estimation method; rollers; rolling roll; steel plate; steelwork quality reduction; Conferences; Mechatronics;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Advanced Intelligent Mechatronics (AIM), 2015 IEEE International Conference on
Type :
conf
DOI :
10.1109/AIM.2015.7222783
Filename :
7222783
Link To Document :
بازگشت