Constructal vascularized structures
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Authors
Çetkin, Erdal
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Open Access Color
GOLD
Green Open Access
Yes
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Publicly Funded
No
Abstract
Smart features such as self-healing and selfcooling require bathing the entire volume with a coolant or/and healing agent. Bathing the entire volume is an example of point to area (or volume) flows. Point to area flows cover all the distributing and collecting kinds of flows, i.e. inhaling and exhaling, mining, river deltas, energy distribution, distribution of products on the landscape and so on. The flow resistances of a point to area flow can be decreased by changing the design with the guidance of the constructal law, which is the law of the design evolution in time. In this paper, how the flow resistances (heat, fluid and stress) can be decreased by using the constructal law is shown with examples. First, the validity of two assumptions is surveyed: using temperature independent Hess-Murray rule and using constant diameter ducts where the duct discharges fluid along its edge. Then, point to area types of flows are explained by illustrating the results of two examples: fluid networks and heating an area. Last, how the structures should be vascularized for cooling and mechanical strength is documented. This paper shows that flow resistances can be decreased by morphing the shape freely without any restrictions or generic algorithms.
Description
Keywords
Constructal law, Distributing flows, Point to area flows, Smart materials, Vascularization, constructal law, Distributing flows, Vascularization, Smart materials, distributing flows, point to area flows, Engineering (General). Civil engineering (General), vascularization, smart materials, Constructal law, Point to area flows, TA1-2040
Fields of Science
02 engineering and technology, 01 natural sciences, 0103 physical sciences, 0210 nano-technology
Citation
Çetkin, E. (2015). Constructal vascularized structures. Open Engineering, 5(1), 220-228. doi:10.1515/eng-2015-0017
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OpenCitations Citation Count
3
Source
Volume
5
Issue
1
Start Page
220
End Page
228
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CrossRef : 3
Scopus : 3
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