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Professor
Dusan Raonic was born in 1955. He was professor at the Faculty of
Electrical Engineering at the department of applied automatic.
Professor Dusan Raonic had left Montenegro in 1994 when he went in
Canada. From 1994 to 1999 he was working in development center of
Rockwell Automation. Since 1999 he has worked in AECL - Atomic
Energy Canada Ltd., as consultant for Ontario Power Generation.
Professor
Dusan Raonic has published several references, which are listed
below.
References:
D. Raonic, SCR Self Powered Gate Driver for Medium Voltage
Application with a Capacitor as
a Storage Element, IEEE Trans on IAS, January 2000
D. Raonic, Some experience with SCR Self Powered Gate Driver for
Medium Voltage Application with
a Capacitor as a
Storage Element, IEEE IAS’98, St. Louis, October, 98
D. Raonic et al, Self Powered Gate Driver Board, U.S. Patent 5 796
599, August 18, 1998
D.
MacLennan, D. Raonic,
“Use of medium voltage solid state starters to limit peak
starting kVA demands
and increase utilization of power system capacity”, PCIM’97,
Baltimore, Sept. 97
D. Raonic, “Modeling of Medium Voltage Smart Motor Controllers (MV
SMC) in PSPICE”, CCECE’96, Calgary, May 96
D. Raonic et al, “Adaptive Control System for Power Factor
Compensation”, IECON 95, Orlando, Nov. 95, pp 423 - 428
N.
Zargari, D. Raonic. “A Current Controlled Near Unity Power Factor
Three-Phase PWM Buck Rectifier without Passive Damping
Requirements”, CCECE’95, Montreal, Sept. 95, pp 987 – 990
D. Raonic,
“Power Electronic Application in Power Delivery and Loads”,
IEEE PES Summer Meeting 95, Panel Section - Industrial Research,
Portland, Oregon, July 95
Within
the his visit to Faculty of Electrical Engineering in Podgorica,
which are realized through joint research project "Piloting
Solutions for Alleviating Brain-drain in Bosnia
and Herzegovina, Croatia, and Serbia and Montenegro" organized
through the UNESCO - Hewlett-Packard partnership, professor Dusan
Raonic has presented lectures the on the topic: "Applications
of the software in power systems and power electronics".
Lectures were divided into five days and they included theoretical
overview of FACTS solutions and practical presentations of
software (EMTP, PSpice, PSim, Power 456), which are used for
simulations. Detailed schedule is given below. About 15-20 peoples
(postgraduate and graduate students, and some professors) attended
to these lectures every day.
In
consultations and discussions with MS and PhD students professor
Dusan Raonic has proposed some ideas for researches and creation
of the joint project(s).
Schedule
of lectures
FACTS
: Course will provide FACTS overview
and how FACTS solution may benefit power system operation.
The power electronics based controllers are generally more costly
per unit of rating than similar conventional equipment, however
they offer a number of unique function which cannot be achieved
with conventional equipment. They will be justified where the
application requires one or more of the following: rapid response,
frequent variation of output or adjustable output. The most
important devices, used in power electronics controllers, with
respect to their properties, limiting parameters and measures for
protection in actual application will be discussed. Also course
will give understanding in topologies to ensure the optimum gate
drive selection. Some FACTS Pspice models and experimental results
will be presented and discussed. Familiarity with undergraduate
power system and power electronics courses is assumed
Day one
FACTS
overview: The need for FACTS in AC Systems, Shunt and series
controllers, HVDC transmission,
Computer
simulation-Pspice Introduction
FACTS
Overview, IEEE Power Engineering Society, April 95
Day two
High
Power Electronics Devices, Topology and Applications,
Device
and topology simulation in Pspice. Pspice contains models for
common circuit elements, active as well as passive. It is a
versatile program and is widely used in both industry and academic
institutions.
Independent
work on circuit simulation. Start to develop some models for
demonstrating the operations and characteristics of FACTs
topology: Switch mode Static Var Control, Sinusoidal
Current Rectifier at unity power factor,
Active
Filter
E. Remezani, J. Waldmeyer, “ Semicoductor Devices for High Power Electronics”
H.
I. Yunus, R. M. Bass, “ Comparison of VSI and CSI topologies
for Single Phase Active Power Filters”
N.
Zargari, D. Raonic. “A Current Controlled Near Unity Power Factor
Three-Phase PWM Buck
Rectifier without Passive Damping Requirements”,
CCECE’95, Montreal, Sept. 95, pp 987 – 990
D. Raonic, SCR Self Powered Gate Driver for Medium Voltage
Application with a
Capacitor as a
Storage Element, IEEE Trans on IAS, January 2000
D. Raonic et al, Self Powered Gate Driver Board, U.S. Patent 5 796
599, August 18, 1998
Day
three
Some
industrial experience: MV smart motor starter-from Pspice model to
lab prototype and commercial
device. Computer simulation/test result pro and con discussion.
Independent
work on circuit simulation.
D.
MacLennan, D. Raonic,
“Use of medium voltage solid state starters to limit peak
starting kVA demands
and increase utilization of power system capacity”, PCIM’97,
Baltimore, Sept. 97
D. Raonic, “Power Electronic Application in Power Delivery and
Loads”, IEEE PES Summer Meeting 95, Panel Section - Industrial
Research, Portland, Oregon, July 95
D. Raonic, “Power Electronic Application in Power Delivery and
Loads”, IEEE PES Summer Meeting 95, Panel Section - Industrial
Research, Portland, Oregon, July 95
Day
four
Pspice
and other software in Electrical Utility Application. Haw software
analysis provides evaluation and optimization in the design in
terms of circuit parameters.
Independent
work on circuit simulation.
D. Raonic, “Modeling of Medium Voltage Smart Motor Controllers (MV
SMC) in PSPICE”, CCECE’96, Calgary, May 96
Day five
Independent
work on simulation in group:
Switch
mode Static Var Control, Sinusoidal Current Rectifier at unity
power factor,
Active
Filter
Day six
If
necessary, Independent
work on simulation in group will continue
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