In the perspective of current trends in engineering education, aiming at meeting industry requirements, especially in the field of power electronics and motion control, the article presents a way of teaching electric drive control in undergraduate engineering programmes using experimental setups with AC motors equipped with industrial frequency converters. The setups consist of two motors: induction and PMSM (each one can act as a motor or a load machine) and a number of other elements necessary in contemporary drive systems: speed sensors, temperature sensors and braking resistors. While using such setups students can learn about various issues related to AC motor control, both in terms of scalar and field-oriented control methods in all three drive operating modes: torque, velocity and position control. The laboratory setups allow students to familiarize themselves with such detailed issues as: vector control without a speed sensor, various ways of voltage control in a DC input circuit of the voltage inverter during motor braking or the influence of the type and value of load torque on drive system operation. Classes can have a classical form or they can be taught in the open-laboratory system.
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 Patel P. Where the jobs are: 2012 IEEE Spectrum 2012 49(9) 26–32.
 Agelidis V.G. The future of power electronics-power engineering education. Challenges and opportunities IEEE Workshop on Power Electronics Education Brazil 2005 1–8.
 Orłowska-Kowalska T. Application of training education systems in specialized education of electrical engineers Przegl. Elektrotechn. 1998 6 202–205 (in Polish).
 Alsmadi Y. Tsai K. Scott M.J. Xu L. Wang A. New Trends and Technologies in Power Electronics and Motor Drives Education 121st ASEE Annual Conf. Exp. Indianapolis 2014 on CD.
 Robbins W. Mohan N. Jose P. Begalke T. Henze C. Undeland T. A building-block-based power electronics instructional laboratory IEEE 33rd Annual Power Electronics Specialists Conference (PESC) Australia 2005 467–472.
 Balog R.S. Sorchini Z. Kimball J.W. Chapman P.L. Krein P.T. Sauer P.W. Modern laboratory-based education for power electronics and electric machines IEEE Trans. Power Syst. 2005 20(2) 538–547.
 Anand S. Singh R. Fernandes F.B.G. Unique Power Electronics and Drives Experimental Bench (PEDEB) to Facilitate Learning and Research
IEEE Trans. Educ. 2012 55(4) 573–579
 Hurley W.G. Lee C.K. Development Implementation and Assessment of a Web-Based Power Electronics Laboratory IEEE Trans. Educ. 2005 48(4) 567–573.
 Bauer P. Fedak V. Teaching Electrical Drives and Power Electronics: eLearning and Beyond Automatika 2010 51(2) 166–173.
 Koretsky M.D. Amatore D. Barnes C. Kimura S. Enhancement of Student Learning in Experimental Design Using a Virtual Laboratory IEEE Trans. Educ. 2008 51(1) 76–85.
 Bauer P. Fedak V. Rompelmann O. PEMCWebLab – Distance and Virtual Laboratories in Electrical Engineering. Development and Trends 13th Power Electronics and Motion Control (EPE-PEMC) Poznan 2008 2385–2390.
 Dufour C. Andrade C. Belander J. Real-time simulation technologies in education. A link to modern engineering methods and practices 11th Int. Conf. Engineering and Technology Education (INTERTECH) Brazil 2010 1–5.
 Menghal P.M. Laxmi A.J. Real time simulation: A novel approach in engineering education 3rd Int. Conf. Electronics Computer Technology (ICECT) India 2011 215–219.
 Collines E. An energy conversion laboratory using industrial-grade equipment IEEE Trans. Power Syst. 2009 24(1) 3–11.
 Heitmann G. Project-oriented study and project-organized curricula. A brief review of intentions and solutions Eur. J. Eng. Educ. 1996 21(2) 121–131.
 Kjersdam F. Tomorrow’s engineering education. The Aalborg experiment Eur. J. Eng. Educ. 1994 19(2) 197–203.
 Mills J.E. A case study of project-based learning in structural engineering The 2002 American Society for Engineering Education Ann. Conf. (ASEE) Montreal Canada 2002 511–518.
 http://www.lenze.pl official webpage of Lenze Poland.
 Lenze Topline 8400 Hardware Manual 2014.
 Orłowska-Kowalska T. Sensorless induction motor drives Ofic. Wyd. PWr. Wrocław 2003 (in Polish).