A Vision of Wire Rod Rolling Technology for the Twenty First Century


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During the last 60 years, tremendous developments have been in wire rod rolling. Finish rolling speeds in the order of 100 – 140 m/s are common and on line wire rod cooling practices, has made it possible to treat the wire rod directly in line in the mill instead of separate off line operations. New procedures for roll setting have been developed to cut the downtime in the mill, by presetting the stands in separate workshops an supply the entire rolling line with fast changing equipment. Much of the efforts have been directed to improve the productivity and the wire rod quality, but also to improve the working environment. In the 21:st century, the main challenge will be the global energy saving and environment protection, which in turn will require new trends in wire rod rolling and wire rod rolling research. The in line treatment will be applied for more steel grades, but the important savings must be solved at the interface between the steelmaking/continuous casting and the wire rod rolling. Hot charging as well as warm rolling will be employed in order to save energy. Their knowledge of the rolling processes will be improved by means of new methods for plastic analysis. New processes must be introduced, where the requirements from the rolling mills will direct the development. These are including casting of smaller billet sections, in order to minimize the mechanical work, and thus the consumption of electrical energy for conversion of the billets to wire rod. By the development of these technologies not only energy will be saved. Better wire rod surfaces can be obtained and the investment cost for new rolling mills will decrease. However the development of new knowledge and new processes requires funding on a level that is hard to expect, especially from the funding system which exists at present.



Edited by:

Ionel Chicinaş and Traian Canta




S. E. Lundberg "A Vision of Wire Rod Rolling Technology for the Twenty First Century ", Advanced Materials Research, Vol. 23, pp. 39-44, 2007

Online since:

October 2007




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