Choosing dimensions of part surfaces when planning multiproduct processes
Authors: Belov A.P. | Published: 06.12.2013 |
Published in issue: #12(645)/2013 | |
Category: Technology and Process Machines | |
Keywords: production planning, dimensional communication, graph theory, structural elements |
Rapid growth and improvement of technological equipment in machining industries stimulate its fast deployment and new product release. However, this increases time and cost of research and development and decreases quality of design solutions. Therefore, at the design stage, it is necessary to consider all possible design solutions taking into account the current situation at the enterprise. To do this, mathematical methods and technological capabilities of the enterprise should be used for generating, choosing, and selecting design solution alternatives. As a result, choosing the dimensions of part surfaces when planning multiproduct processes has reduced the design and technological preparation time, improved the quality of design solutions, and made it possible to use all production capabilities. The developed approach will allow designers to choose reasonable part designs taking into account technological capabilities of a particular multiproduct enterprise in the framework of an efficiently functioning production management system. The method of choosing dimensions of part surfaces in the multiproduct process planning system is intended for engineering companies providing research and development within a production cycle.
References
[1] Bochkarev P.Iu., Vasin A.N. Planirovanie tekhnologicheskikh protsessov v usloviiakh mnogonomenklaturnykh mekhanoobrabatyvaiushchikh sistem. Teoreticheskie osnovy razrabotki podsistem planirovaniia marshrutov tekhnologicheskikh operatsii [Planning processes in multinomenclature Machining systems. The theoretical basis for the development of subsystems route planning process operations]. Saratov, SSTU publ., 2004. 136 p.
[2] Zykov A.A. Osnovy teorii grafov [Fundamentals of graph theory]. Moscow, Vuzovskaia kniga publ., 2004. 66 p.
[3] Bochkarev P.Iu., Kochedaev A.V., Plastinkin A.V., Shalunov V.V. Formirovanie skhem obrabotki elementarnykh poverkhnostei detalei [Formation of the processing circuits of the elementary surfaces of the parts]. Progressivnye napravleniia razvitiia tekhnologii mashinostroeniia. Mezhvuzovskii nauchnyi sbornik [Progressive development directions of engineering technology. Interuniversity scientific collection]. Saratov, SSTU publ., 2003, pp. 31—33.
[4] Zeid I. CAD/CAM Theory and Practice. New York, McGraw-Hill, Science/Engineering/Math, 1991. 576 p.
[5] Lee K. Principles of CAD/CAM/CAE. Prentice Hall, 1999. 640 p.
[6] Kolesov I.M. Osnovy tekhnologii mashinostroeniia [Fundamentals of Mechanical Engineering]. Moscow, Vysshaia shkola publ., 2001. 592 p.
[7] Meier B. Ob’’ektno-orientirovannoe konstruirovanie programmnykh system [Object-oriented design of software systems]. Moscow, Russkaia Redaktsiia publ., 2005. 1232 p.