ComputerAided_Design_Engineering_amp_Manufactur.pdf
ComputerAided_Design_Engineering_amp_Manufactur.pdf
ComputerAided_Design_Engineering_amp_Manufactur.pdf
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CAD systems. The s<strong>amp</strong>le consists of companies primarily associated with the electronics and telecommunication<br />
industries who represent different sizes and organizational structures. This research proposes<br />
a model that depicts how training programs are affected by organizational factors and how the choice<br />
of a training program may lead to specific benefits for the company. Empirical data from intensive clinical<br />
case studies are included to highlight several of the important and interesting alternatives that managers<br />
face in their selection of appropriate training methods. The research provides helpful information regarding<br />
the strengths and weaknesses associated with different training methods employed under different<br />
working environments. The findings of this study raise a number of issues related to the development<br />
of CAD training programs, as well as the costs and benefits of CAD.<br />
6.2 Issues in CAD Training<br />
Given the complexity of many high-tech product designs, it is often impossible to produce and modify<br />
the requisite designs without using a CAD system. As CAD use becomes prevalent in a number of<br />
industries, particularly the electronics, telecommunications, and automotive industries, the company that<br />
uses CAD can no longer assume that it holds a competitive advantage. Instead, it may find that its<br />
competitors are also using CAD and also realizing the benefits of both time savings and improved quality<br />
in design work. In these industries, CAD use is reduced to a qualifying requirement for sustained design<br />
competitiveness. However, given the intense cost pressures these industries are experiencing due to global<br />
competition, a company can achieve significant cost savings by developing a CAD training plan that<br />
enhances the value added by design work. Thus, when CAD becomes a core technology, the issue for<br />
management is no longer whether to use CAD, but rather how to strategically leverage the full potential<br />
of the CAD system through cost-effective training programs aimed at improving worker skills and abilities.<br />
It has been shown that CAD helps companies increase design productivity and improve the quality<br />
of designs. Forslin and Thulestedt19 found that 90% of CAD users surveyed felt that their CAD system<br />
had produced time savings. However, successful use of CAD does not come without proper worker<br />
training. Majchrzak and Salzman30 also stress the importance of developing worker skills and training<br />
programs as critical social and organizational dimensions that are crucial to the firm in reaching the full<br />
potential of CAD systems.<br />
Training programs focus on improving skills so that the worker will be able to operate the new system<br />
efficiently. “Skill relates to the ability to perform a particular task in a particular way and is built up by<br />
an individual over time. A technical innovation like CAD requires the acquisition of certain new skills<br />
while rendering others largely redundant.” 26 Bretz and Thompset state that, although it is estimated that<br />
U.S. organizations spend over $44 billion per year on employee training, “training methods are often<br />
seen as fads, training program evaluation is rare, and rigorous evaluation is virtually nonexistent.” 10 Thus,<br />
a company’s selection of the proper training program or method may lead to significant cost savings<br />
relative to other companies that have made suboptimal choices with respect to training. However,<br />
companies rarely perform a systematic evaluation of their training processes in order to determine how<br />
to improve the selection of training methods so that future training programs are more effective. 38<br />
A review of recent research relating to CAD systems and their associated training programs is useful in<br />
understanding the complexity of the major issues. The review of the CAD acquisition literature is broken<br />
down into two categories of issues: pre-adoption and implementation. Pre-adoption training issues are those<br />
in which training is considered prior to a firm’s final decision regarding purchase of the new technology.<br />
These issues are critical because unless a firm is attentive to the important “people” issues, (e.g., the extent to<br />
which the entire workforce needs to be trained, or whether the present workforce is willing or able to be trained<br />
for the new technology) prior to the acquisition, there is a significant risk that the adoption will not be<br />
successful. Implementation issues are those which occur after the firm has already committed to the adoption<br />
of the system. A key issue is the design of the implementation process in order to maximize the usefulness of<br />
the system, while keeping costs in check. Ex<strong>amp</strong>les of implementation issues (to be discussed later in this<br />
section) include decisions regarding the training method that will be used and the deployment of lower-skilled<br />
workers in using the new technology (de-skilling). Table 6.1 displays the issues according to their stage. 37