- Published: January 1, 2022
- Updated: January 1, 2022
- Level: Masters
- Language: English
- Downloads: 42
Running Head: MANUFACTURING ENGINEERING Manufacturing Engineering [The of the appears here] [The of the appears here]
Manufacturing Engineering
Manufacturing engineering is moving in the direction of high flexibility, low production cost and high product quality. During the last few years, several new manufacturing engineering paradigms have been proposed. The most important of these include: computer integrated manufacturing (CIM) (Nagalingam & Lin 1999), intelligent manufacturing systems (IMS) (Kusiak 1990), fractal manufacturing (Warnecke 1993), bionic manufacturing (Okino 1992), and holonic manufacturing (HMS) (Wyns & Langer 1998). Most of the proposed paradigms focus on improvement of manufacturing systems through the development of two factors: information management and the human factor. Ideas such as intelligent manufacturing systems combine the latest achievements in various directions and put significant stress on the problem of artificial intelligence supported by machine operators. Machine operators working on holonic systems focus their activity on complex problem solving (Oborski & Szafarczyk 2001). Fractal and bionic manufacturing ideas propose manufacturing system performance improvement by stressing work organization factors based on autonomous groups. The human operator also plays a vital role in computer integrated manufacturing (Nagalingam & Lin 1999). All of those new manufacturing engineering paradigms are aimed at creating so-called advanced manufacturing engineering systems. In such systems, several factors are decisive for success: technology, information processing and human factor. Moreover, those factors must coexist together. One of the most crucial and not yet appreciated factors in this combination is the cooperation of technical systems and the human operator. The proposed research will be based on advances in socio-technical approach in Manufacturing Engineering.
The socio-technical approach to system design was introduced by the Tavistock Institute of Human Relation in London in the early nineteen-fifties. The idea behind this approach was the elimination of the negative influence of technical systems on social systems in production (Mumford 1994). The socio-technical systems theory (STS) was proposed based on the principles of socio-technical design elaborated by Trist several years ago (Jones 1995). The main idea of STS is the integration of the social requirements of people doing the work with the technical needs that allow the system to work efficiently. These two aspects must be considered independently, because arrangements that are optimal for one may not be optimal for the other. However, they should be optimised together and some trade-off can be made to find the best solution (Fox 1995). Many people contributed to the development of the STS theory. Significant stress was placed on practical utilisation. Research in this direction was carried out in Europe by: Dutch Maastricht Economic Research Institute on Innovation and Technology (MERIT), Swedish Work Environment Fund’s LOM program, which involves more then 100 companies, and the Work Research Institute in Oslo. The most well-known organisations and research centres in North America are Alcan, the American Productivity Center in Huston, AT&T, Best Foods, Clark Equipment, Cummins Engine, Digital Equipment Company, Exxon, Ford, General Foods, General Motors, Harman International, Hewlett Packard, Inland Steel, LTV Steel, Mead Paper, Procter and Gamble, Shell Oil, Sherwin-Williams, Tektronix, TRW, Weyerhauser, the Work in America institute in New York, Xerox, Zilog and various U. S. and Canadian government agencies, such as the Total Quality Management program of the U. S. Defence Department (Fox 1995).
Most research effort on utilising the socio-technical approach in manufacturing system organisation was done in companies and research institutes from the United States. It appears that the benefits of the theory are not well known in Europe. Some researchers have attempted to develop new work organisation concepts to meet today’s needs, forgetting about good ideas that were developed almost 50 years ego. Those approaches, like socio-technical design, should be taken into account as new conceptions of work organisation and human-technical system interaction are developed.
References
Fox W. M (1995) ” Sociotechnical system principles and guidelines: past and present”, Journal of Applied Behavioural Science, Mar95, Vol. 31 Issue 1, p. 91-106
Jones PM (1995) Designee for operations: towards a sociotechnical systems and cognitive engineering approach to concurrent engineering. Int J Ind E 16: 283-292
Kusiak A (1990) Intelligent manufacturing systems”, Prentice Hall, Englewood Cliffs, NJ
Mumford E (1994) New treatments or old remedies: is business process reengineering really socio-technical design J Strat Inf 3(4): 313-326
Nagalingam SV, Lin GC (1999) Latest developments in CIM. Robot CIM 15: 423-430
Oborski P, Szafarczyk M (2001) Organisation and control at the basic manufacturing level with human-computer integration. Adv M Sci 25(1): 5-15
Okino N (1992) A prototyping of bionic manufacturing system. International conference on object-oriented manufacturing systems, May 3-6, Department of manufacturing engineering, University of Calgary, Alberta, Canada, pp 297-302
Warnecke HJ (1993) The fractal company: a revolution in corporate culture. Springer, Berlin Heidelberg New York
Wyns J, Langer G (1998) Holonic manufacturing systems described in plain text, IDEF0, and object-oriented methods. Proceedings of the First international workshop on intelligent manufacturing systems, Lausanne, 15-17 April 1998, pp 13-28