Recent progresses in bus-ducts design
Author:
Faiz J.,Ehya H.,Takbash A.M.,Shojaee S.,Hamidian M.,Ghorbani A.
Abstract
Purpose
– Electrical energy distribution systems must be low losses systems in order to enhance the system efficiency. Therefore, it is preferred to distribute electrical energy by bus-ducts in the place of cables over all energy levels and decrease the losses. The purpose of this paper is to focus on a comprehensive survey of various aspects of bus-ducts design including electromagnetic, mechanical and thermal. Advantages and disadvantages of different available design techniques are reviewed.
Design/methodology/approach
– Different works on various bus-based power transmission and distribution systems are reviewed. Generally these are done in three categories including systems modeling methods, heat transfer in the systems, short circuit and electromagnetic force. The attempt is made to provide geometrical and materials specifications in order to present the analyzed system well.
Findings
– Different types of bus-ducts from used materials, voltage level and insulation types are reviewed. Bus-duct modeling techniques are introduced which can be easily applied for bus-ducts design. Electromagnetic field distribution, thermal pattern inside and outside of the bus-duct in normal and short circuit modes and finally mechanical considerations are dominant factors which must be taken into account in the bus-ducts design. This leads to an optimal design of bus-ducts which prolong the life span of the bus-ducts fixed in the installations.
Originality/value
– This paper for the first time systematically reviews the latest state of arts in the design of bus-ducts for efficient electrical energy distribution. It summarizes a variety of design techniques applicable to bus-ducts design.
Subject
Applied Mathematics,Electrical and Electronic Engineering,Computational Theory and Mathematics,Computer Science Applications
Reference25 articles.
1. Bachorec, T.
,
Hosek, J.
and
Saska, M.
(2004), “Heat transfer simulation and experimental verification of the high-voltage air-insulated bus ducts”, International ANSY Conference, Vol. 1, Pittsburg, PA, May 24-28. 2. Canova, A.
and
Giaccone, L.
(2009), “Numerical and analytical modeling of bus bar systems”,
IEEE Transactions on Power Delivery
, Vol. 24 No. 3, pp. 1568-1578. 3. Chiampi, M.
,
Chiarabaglio, D.
and
Tartaglia, M.
(1993), “A general approach for analyzing power bus-bar under A.C. conditions”,
IEEE Transactions on Magnetics
, Vol. 29 No. 6, pp. 2473-2475. 4. Coneybeer, R.T.
,
Black, W.Z.
and
Bush, R.A.
(1994), “Steady state and transient ampacity of bus bar”,
IEEE Transactions on Power Delivery
, Vol. 9 No. 4, pp. 1822-1829. 5. Del Vecchio, R.M.
(2003), “Eddy current losses in a conducting plate due to a collection of bus bars carrying currents of different magnitudes and phases”,
IEEE Transactions on Magnetics
, Vol. 39 No. 1, pp. 549-552.
Cited by
2 articles.
订阅此论文施引文献
订阅此论文施引文献,注册后可以免费订阅5篇论文的施引文献,订阅后可以查看论文全部施引文献
1. Analytical modelling of the transient thermal field of a tubular bus in nominal rating;COMPEL - The international journal for computation and mathematics in electrical and electronic engineering;2019-03-04 2. Internal inductance of a conductor of rectangular cross-section using the proper generalized decomposition;COMPEL - The international journal for computation and mathematics in electrical and electronic engineering;2016-11-07
|
|