Development of a Power Systems Protection Laboratory through University-Industry Partnership

Abstract

At the 2007 National Science Foundation workshop on ‘The Future Power Engineering Workforce’ participants from US government, academia, and the private sector discussed the looming shortage of power engineering graduates to replace large numbers of projected retirees in the power engineering sector. The group identified the key drivers of this shortage and suggested a series of measures which, if implemented, would add to the ongoing renaissance in power engineering. Some of these measures have been adopted and reflected in the development of a power system protection lab at Penn State Harrisburg. With the support of local utility industry a new lab has been developed that integrates the latest devices and software in the electric utility industry into power systems courses. Instructional modules on key aspects of the new lab are developed to assist both the course instructor and future students enrolled in Power Systems Analysis courses. This paper outlines the facilitation and design process in the development of a modern power engineering laboratory.

Keywords

power engineering education power systems protection teaching laboratories

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References

Kim

C. H.

, ‘Educational use of EMTP models for the study of a distance relaying algorithm for protecting transmission lines’, IEEE Trans. Power Syst., 15(1) (2000), 9–15.

Chu

W. C.

Chen

B. K.

and Liu

M. C.

, ‘A program of computer-aided coordination analysis for an undergraduate course in protective relaying’, IEEE Trans. Power Syst., 7(4) (1992), 1543–1549.

Kezunovic

, ‘User-friendly, open-system software for teaching protective relaying application and design concepts’, IEEE Trans. Power Syst., 18(3) (2003), 986–992.

Dam

Q. B.

and Meliopoulos

A. P. S.

, ‘Relay simulation and testing software on the .NET framework environment’, in Proc. Power Engineering Society General Meeting, 2007, Tampa, FL, 24–28 June 2007 (IEEE, Piscataway, NJ, 2007), pp. 1–5.

Al-Zyoud

A. R.

and Salahat

M. A.

, ‘Modeling of distance protection using programmable logic controllers’, WSEAS Trans. Systems., 4(9) (2005), 1410–1417.

Meliopoulos

A. P.

and Cokkinides

G. J.

, ‘A virtual environment for protective relaying evaluation and testing’, IEEE Trans. Power Systems, 19(1) (2004), 104–111.

Pires

V. F.

, ‘Distance-learning power-system protection based on testing protective relays’, IEEE Trans. Industrial Electronics, 55(6) (2008), 2433–2438.

Lee

W. J.

J. C.

R. J.

and Didsayabutra

, ‘A physical laboratory for protective relay education’, IEEE Trans. Educ., 45(2) (2002), 182–186.

Oza

B. A.

and Brahma

S. M.

, ‘Development of power system protection laboratory through senior design projects’, IEEE Trans. Power Systems, 20(2) (2005), 532–537.

10.

Brahma

, ‘The education and training of future protection engineers: Challenges, opportunities, and solutions’, IEEE Trans. Power Delivery, 24(2) (2009), 538–544.

11.

Liu

C. C.

and Niebur

, Final report: National Science Foundation Workshop on the Future Power Engineering Workforce, November 29–30, 2007, Holiday Inn Arlington, Arlington, VA, USA [online]. Available at http://www.pserc.wisc.edu/documents/publications/special_interest_publications/workforce/NSF_Workshop_on_workforce_Nov2007.pdf (2011), 2 June 2014.