BEGIN:VCALENDAR VERSION:2.0 PRODID:IEEE vTools.Events//EN CALSCALE:GREGORIAN BEGIN:VTIMEZONE TZID:Australia/Sydney BEGIN:DAYLIGHT DTSTART:20201004T030000 TZOFFSETFROM:+1000 TZOFFSETTO:+1100 RRULE:FREQ=YEARLY;BYDAY=1SU;BYMONTH=10 TZNAME:AEDT END:DAYLIGHT BEGIN:STANDARD DTSTART:20200405T020000 TZOFFSETFROM:+1100 TZOFFSETTO:+1000 RRULE:FREQ=YEARLY;BYDAY=1SU;BYMONTH=4 TZNAME:AEST END:STANDARD END:VTIMEZONE BEGIN:VEVENT DTSTAMP:20200803T090126Z UID:866EFDDE-6031-45E6-864A-2DF4C1419462 DTSTART;TZID=Australia/Sydney:20200721T113000 DTEND;TZID=Australia/Sydney:20200721T123000 DESCRIPTION:Over the last decade\, electronics industry has seen many comme rcial versions of electrical double layer capacitors (EDLC)\, which are al so known as ultra-capacitors and supercapacitors. The usual application sc ope of EDLCs is replacing the electrochemical batteries with their higher power density and moderately high energy density. An EDLC gives an approxi mately one million times larger capacitance compared to an electrolytic. I n the current component markets\, EDLCs come in capacitances vary from 0.2 to 7500 farads\, with the limitation of very low DC voltage ratings from 0.7 V to 4 V. Recently some SC manufacturers have introduced a novel famil y of supercap- batteries where capacitance has gone up to 70\,000 F. Joint work of power electronics research groups at the University of Waikato an d AUT established the early scientific clues of using supercapacitors in t he non-traditional application domain to develop novel power electronic ci rcuit topologies. The success of the early projects was able to achieve th e unique SCALoM theory in which the losses in the RC loop can be theoretic ally minimized by two combined steps namely\; (i) adding a power electroni cs building block (PEBB) into RC the loop\, and (ii) replacing the capacit or with a several orders larger device. Based on this concept\, numerous s upercapacitor- assisted (SCA) power converter circuit topologies have been investigated over the last 10 years of research work.\n\nIn this webinar\ , the SCALoM Theory and the examples of successful SCA applications will b e discussed including many patented or patent pending such as SCA low drop out regulator (SCALDO)\, SCA surge absorber (SCASA)\, SCA wide input PV in verter (SCAWI-PV Inverter) and SCA light emitting diodes (SCALED). With re newable energy resources proliferating with DC loads such as data centres\ , variable speed drives and other internally DC driven domestic and indust rial loads\, SCA techniques’ wide scope in the potential applications in DC Microgrid area will also be discussed.\n\nSpeaker(s): Dr Kosala Gunawa rdane\, A/Prof Nihal Kularatna \n\nvia Zoom\, link at bottom of page\, New South Wales\, Australia LOCATION:via Zoom\, link at bottom of page\, New South Wales\, Australia ORGANIZER:dylandclu@ieee.org SEQUENCE:10 SUMMARY:Supercapacitor-assisted novel power electronic circuit topologies f or DC Microgrid Applications URL;VALUE=URI:https://events.vtools.ieee.org/m/234367 X-ALT-DESC:Description: <br /><p>Over the last decade\, electronics industr y has seen many commercial versions of electrical double layer capacitors (EDLC)\, which are also known as ultra-capacitors and supercapacitors. The usual application scope of EDLCs is replacing the electrochemical batteri es with their higher power density and moderately high energy density. An EDLC gives an approximately one million times larger capacitance compared to an electrolytic. In the current component markets\, EDLCs come in capac itances vary from 0.2 to 7500 farads\, with the limitation of very low DC voltage ratings from 0.7 V to 4 V. Recently some SC manufacturers have int roduced a novel family of supercap- batteries where capacitance has gone u p to 70\,000 F. Joint work of power electronics research groups at the Uni versity of Waikato and AUT established the early scientific clues of using supercapacitors in the non-traditional application domain to develop nove l power electronic circuit topologies. The success of the early projects w as able to achieve the unique SCALoM theory in which the losses in the RC loop can be theoretically minimized by two combined steps namely\; (i) add ing a power electronics building block (PEBB) into RC the loop\, and (ii) replacing the capacitor with a several orders larger device. Based on this concept\, numerous supercapacitor- assisted (SCA) power converter circuit topologies have been investigated over the last 10 years of research work .</p>\n<p>In this webinar\, the SCALoM Theory and the examples of successf ul SCA applications will be discussed including many patented or patent pe nding such as SCA low dropout regulator (SCALDO)\, SCA surge absorber (SCA SA)\, SCA wide input PV inverter (SCAWI-PV Inverter) and SCA light emittin g diodes (SCALED). With renewable energy resources proliferating with DC l oads such as data centres\, variable speed drives and other internally DC driven domestic and industrial loads\, SCA techniques&rsquo\; wide scope i n the potential applications in DC Microgrid area will also be discussed.< /p> END:VEVENT END:VCALENDAR