Hydraulic Diameter of Compact Design Tubes with Small Diameter

Milan Kubín; Jiří Hirš

doi:10.4028/www.scientific.net/AMR.1041.11

Paper Titles

Preface and Committees

Analysis of the Building Materials in the Energy Efficient Buildings
p.3

Theoretical Calculation of Heat Losses of Heat Exchangers to Vicinity
p.7

Hydraulic Diameter of Compact Design Tubes with Small Diameter
p.11

Analysis of the Degradation of External Plasters in the Buildings with ETICS
p.15

Technological Analysis of the Orientation of the Pitched Icelandic Turf Roof to the Cardinal Points and their Effect on the Stability of the Vegetative Layers
p.19

Test of Adhesion and Cohesion of Silicone Sealants on Facade Cladding Materials within Extreme Weather Conditions
p.23

Study of the Mechanical Behavior against Horizontal Forces of Self-Supporting Facades
p.27

Numerical Study of the Influence of Insect Grille on Airflow in Ventilated Facade Constructions
p.31

HomeAdvanced Materials ResearchAdvanced Materials Research Vol. 1041Hydraulic Diameter of Compact Design Tubes with...

Hydraulic Diameter of Compact Design Tubes with Small Diameter

Abstract:

The contribution is aimed on hydraulic diameter of Compact Design Tubes with the small diameter. First part of contribution is focused on calculation of the hydraulic pipe diameter by contemporary way for technical use. Second part of contribution is aimed on Compact Design Tubes with the small diameter and compared with typical smooth pipes. Results of this study confirm general fact, that the inner/outer hydraulic diameter of Compact Design Tubes is different from the hydraulic diameter of typical smooth pipe.

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Periodical:

Advanced Materials Research (Volume 1041)

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11-14

DOI:

https://doi.org/10.4028/www.scientific.net/AMR.1041.11

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Online since:

October 2014

Authors:

Milan Kubín, Jiří Hirš

Keywords:

Compact Design Tubes, Hydraulic Pipe Diameter, Smooth Pipe

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References

[1] N. V. Baranovsky, L. M. Kovalenko, A. R. Yastrebenetsky, Пластинчатые и спиральные теплообменники (Plate and Spiral Heat Exchangers), Машиностроение (Engineering), Moscow 1973 (in Russian).

Google Scholar

[2] M. Kubín, Stanovenie hydraulického priemeru potrubí v technike prostredia (Determination of Hydraulic Diameter Pipeline in Environmental Engineering), TZB Haustechnik, ISSN 1210–356X, Bratislava 2013 (in Slovak).

Google Scholar

[3] A. Macháčková , R. Kocich, Sdílení tepla a proudění (Heat Transfer and Flow), , Vysoká škola báňská – Technická univerzita (Technical University of Ostrava), ISBN 978–80–248–2576–2, Ostrava 2008 (in Czech).

DOI: 10.15584/eti.2018.4.48

Google Scholar

[4] J. A. Howard, P. A. Walsh, E. J. Walsh, Prandtl and Capillary Effects on Heat Transfer Performance within Laminar Liquid – Gas Slug Flows, Journal of Heat and Mass Transfer, Volume 54, pages 4752-4761, Elsevier (2011).

DOI: 10.1016/j.ijheatmasstransfer.2011.05.029

Google Scholar

[5] La Mont–Kessel GmbH, Company documents, Germany (2007).

Google Scholar