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ComputerAided_Design_Engineering_amp_Manufactur.pdf

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informal training; formal training may be conducted either internally or externally (using a vendor or<br />

an outside consultant to conduct the training). The advantages and disadvantages of both internally and<br />

externally conducted training programs in technology implementation are well documented in the<br />

literature. 5,17,22,27,32,33<br />

However, it is the issue of formal vs. informal training in CAD environments that<br />

is the primary interest of the remainder of this chapter.<br />

Finally, training issues must be balanced with the enhancement of the value added by design work. In<br />

an attempt to cut labor costs associated with using CAD, managers have tried to use less skilled workers<br />

to operate the new technology after its installation. With CAD, computer operators have been extensively<br />

substituted in the place of professional designers and draftsmen. 27,33,39 It has been suggested that the<br />

introduction of CAD systems causes a certain degree of de-skilling. The de-skilling process “results in<br />

the reduction of skills requirements by those using the new technology. In PCB design, a de-skilling<br />

process would involve a relative shift in work content, expanding routine tasks….” 39 Thus, this strategy<br />

attempts to achieve cost savings through CAD by allowing the firm to hire cheaper labor to operate the<br />

system. A similar strategy has been proposed by proponents of office automation for increasing the<br />

productivity in the office setting while decreasing the salaries of white collar workers. 24,40<br />

This de-skilling process has not, however, been successful in all applications within the CAD industry.<br />

A study of the West German mechanical engineering CAD industry examined firms that attempted to<br />

train a group of workers with no previous design experience to run the CAD system. 31 The study<br />

concluded that the firm’s attempts to bypass the requisite design training and, instead, to emphasize<br />

computer literacy limited the success of the de-skilling process to only clerical tasks. Salzman39<br />

provides<br />

two ex<strong>amp</strong>les of unsuccessful de-skilling attempts in which companies, one in the aerospace industry<br />

and the other in the electronics division of a large firm, attempted to assimilate workers trained only as<br />

computer operators into the CAD group. The study concluded that, in both cases, the attempts failed<br />

because the workers lacked the background knowledge to perform design work successfully. CAD, like<br />

many new technologies, is more than the automation of routine tasks; it requires the operator to possess<br />

a deep and thorough understanding for the design process to be successful. Attempts at de-skilling in<br />

several industries have produced equivocal results with some arguing that rather than enhancing the jobs<br />

of less skilled workers, de-skilling has actually degraded them. 4,8,9,44,46<br />

The literature states that, for many firms, the gains from implementation of systems such as CAD<br />

frequently come not only from savings in labor costs, but also from improvements in quality and speed<br />

of the design process. 29 In the competitive arenas of the electronics and telecommunications industries,<br />

cost, quality, and speed are no longer strategic tradeoffs in design work. Instead, a design group must<br />

be competitive in all three dimensions. If de-skilling through CAD is to be successful, it must simultaneously<br />

improve design performance in all three of these dimensions.<br />

Organization Structure and Technology<br />

Organizational issues constitute the third critical factor, after person and task, in the selection of a training<br />

program. 21 The organizational structure, whether organic or mechanistic, can help determine the CAD<br />

training strategy. 25,41 Burns and Stalker12<br />

discuss the importance of organizational structure to successful<br />

business ventures, showing that organic firms are more successful in innovative environments than<br />

mechanistic organizations. Organic firms are characterized by worker autonomy, a team orientation, a<br />

professional community, and decentralized decision making. Relationships between managers and workers<br />

tend to be less formal. 12,15,28 Davis and Wilkof 17 define an organic system as a professional organization<br />

which is bound together through formal and informal norms derived from a commonality of interest.<br />

It is this common interest that keeps the organization together. The rules tend to be less rigid, and the<br />

manager’s spans of control are smaller. In organic environments, task accomplishment and innovation<br />

are moved to the most knowledgeable parties. 12<br />

Mechanistic structures, in contrast, are more formal and structured. They are characterized by less<br />

worker autonomy, centralized decision making, and more authoritative and hierarchical relationships<br />

between manager and worker. 12

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