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6.3 Suspended Ceiling Design Process - Bilkent University

6.3 Suspended Ceiling Design Process - Bilkent University

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since high-level processes sometimes contain unnecessary activities<br />

and some high-level activities produce unnecessary outputs. Building a<br />

process up through the integration of low-level activities and<br />

deliverables, which are known to be required because of their closeness<br />

to the design at a parameter level, can help identify irrelevant activities<br />

and outputs in the process. Other benefits of using parameter-based<br />

DSMs are explained in the next chapter in building design context.<br />

The application of parameter-based DSM analysis is described below<br />

via a simplified example. The example illustrates relationships between<br />

parameters affecting plenum depth for a suspended ceiling design. The<br />

table below shows seven parameters defined for this problem. The<br />

predecessors and owners of the parameters are also listed.<br />

Table 4.4: List of Parameters, Their Predecessor(s) and Owner(s) for<br />

<strong>Suspended</strong> <strong>Ceiling</strong> <strong>Design</strong><br />

Parameter Description Predecessor(s) Owner(s)<br />

A Floor Area - Architect<br />

B Floor to <strong>Ceiling</strong><br />

Height<br />

A, G Architect<br />

C Beam Depth A, E Structural Engineer<br />

D Air Duct Depth A Mechanical Engineer<br />

E Air Duct-Beam C, D Architect, Structural<br />

Integration<br />

Engineer, Mechanical<br />

Scheme<br />

Engineer<br />

F Lighting Fixture<br />

Depth<br />

A Architect<br />

G Plenum Depth C, D, E, F Architect<br />

56

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