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Long resistor ladder network with equal components Using the simple electricity laws of calculating the resistance of resistors in series and parallel quickly leads to the results: Rin (open-circuit) = 2 Ω and R in (short-circuit) = 1.5 Ω

Long resistor ladder network with equal components Using the simple electricity laws of calculating the resistance of resistors in series and parallel quickly leads to the results: Rin (open-circuit) = 2 Ω and R in (short-circuit) = 1.5 Ω

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Perhaps unlike other professions, engineering is strangely difficult to define or describe. This is nowhere as evident as when an attempt is made to articulate its epistemological basis. Engineering has a rich and complex ‘gene pool’ which goes back to when people first built shelters and shaped implements for agricultural purposes. Throughout the...

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... illustrate the heuristic approach with a simple example and also to flavor why it is an attractive option when intelligently applied, consider the following problem. A very long ladder network consists of 1-ohm resistors as shown in Figure 2. The problem is to determine the input resistance at terminals TT'. ...

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... There is no one type of engineering, as there is no brief definition of engineering that is satisfactory (Radder, 2009;Trevelyan, 2021). Definitions are an important part of the conceptualization of a discipline, yet philosophers of engineering have struggled to define engineering (Grimson & Murphy, 2015). One popular definition, the application of science and mathematics to solve problems, is critiqued by scholars as being narrow (Alza, 2017;Figueiredo, 2008). ...
... Second, engineering decisions are the products of social processes. Inarguably, data and evidence are important in engineering (Grimson & Murphy, 2015). However, such data-driven decision-making does not occur in a vacuum; engineering relies on the social process of reviews and evaluations, coordination of human efforts, and collaboration and teamwork, all key practices among engineers. ...
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