BEGIN:VCALENDAR VERSION:2.0 PRODID:IEEE vTools.Events//EN CALSCALE:GREGORIAN BEGIN:VTIMEZONE TZID:Europe/Warsaw BEGIN:DAYLIGHT DTSTART:20220327T030000 TZOFFSETFROM:+0100 TZOFFSETTO:+0200 RRULE:FREQ=YEARLY;BYDAY=-1SU;BYMONTH=3 TZNAME:CEST END:DAYLIGHT BEGIN:STANDARD DTSTART:20221030T020000 TZOFFSETFROM:+0200 TZOFFSETTO:+0100 RRULE:FREQ=YEARLY;BYDAY=-1SU;BYMONTH=10 TZNAME:CET END:STANDARD END:VTIMEZONE BEGIN:VEVENT DTSTAMP:20220407T070812Z UID:822E46A1-ACB1-4E72-92FA-8AEDF954538A DTSTART;TZID=Europe/Warsaw:20220406T170000 DTEND;TZID=Europe/Warsaw:20220406T180000 DESCRIPTION:Abstract: Quantum computing is a new paradigm that exploits fun damental principles of quantum mechanics\, such as superposition and entan glement\, to tackle problems in mathematics\, chemistry and material scien ce that are well beyond the reach of supercomputers. Despite the intensive worldwide race to build a useful quantum computer\, it is projected to ta ke decades before reaching the state of useful quantum supremacy. The main challenge is that qubits operate at the atomic level\, thus are extremely fragile\, and difficult to control and read out. The current state-of-art implements a few dozen magnetic-spin based qubits in a highly specialized technology and cools them down to a few tens of millikelvin. The high cos t of cryogenic cooling prevents its widespread use. A companion classical electronic controller\, needed to control and read out the qubits\, is mos tly realized with room-temperature laboratory instrumentation. This makes it bulky and nearly impossible to scale up to the thousands or millions of qubits needed for practical quantum algorithms. We propose a new quantum computer paradigm that exploits the wonderful scaling achievements of main stream integrated circuits (IC) technology which underpins personal comput ers and mobile phones. Just like with a small IC chip\, where a single nan ometer-sized CMOS transistor can be reliably replicated millions of times to build a digital processor\, we propose a new structure of a qubit reali zed as a CMOS-compatible charge-based quantum dot that can be reliably rep licated thousands of times to construct a quantum processor. Combined with an on-chip CMOS controller\, it will realize a useful quantum computer wh ich can operate at a much higher temperature of 4 kelvin.\n\nSpekaer's Bio : R. Bogdan Staszewski received his PhD from University of Texas at Dallas \, USA in 2002. He joined Texas Instruments in Dallas\, Texas in 1995. In 1999 he co-started a Digital RF Processor (DRP) group in TI with a mission to invent new digitally intensive approaches to traditional RF functions. Dr. Staszewski served as a CTO of the DRP group between 2007 and 2009. In July 2009 he joined Delft University of Technology in the Netherlands. Si nce Sept. 2014 he has been a Full Professor at University College Dublin ( UCD) in Ireland. He has co-authored over 150 journal and 200 conference pu blications\, and holds over 200 issued US patents. His research interests include nanoscale CMOS architectures and circuits for frequency synthesize rs\, transmitters and receivers\, as well as quantum computers. He is a co -founder of a startup company Equal1 Labs aiming at building the first pra ctical CMOS quantum computer. He is an IEEE Fellow and a recipient of IEEE Circuits and Systems Industrial Pioneer Award.\n\nVirtual: https://events .vtools.ieee.org/m/311006 LOCATION:Virtual: https://events.vtools.ieee.org/m/311006 ORGANIZER:kasinski@agh.edu.pl SEQUENCE:1 SUMMARY:Quantum Computing in Nanoscale CMOS - Bogdan Staszewski URL;VALUE=URI:https://events.vtools.ieee.org/m/311006 X-ALT-DESC:Description: <br /><div><strong>Abstract:&nbsp\;</strong>Quantum computing is a new paradigm that exploits fundamental principles of quant um mechanics\, such as superposition and entanglement\, to tackle problems in mathematics\, chemistry and material science that are well beyond the reach of supercomputers. Despite the intensive worldwide race to build a u seful quantum computer\, it is projected to take decades before reaching t he state of useful quantum supremacy. The main challenge is that qubits op erate at the atomic level\, thus are extremely fragile\, and difficult to control and read out. The current state-of-art implements a few dozen magn etic-spin based qubits in a highly specialized technology and cools them d own to a few tens of millikelvin. The high cost of cryogenic cooling preve nts its widespread use. A companion classical electronic controller\, need ed to control and read out the qubits\, is mostly realized with room-tempe rature laboratory instrumentation. This makes it bulky and nearly impossib le to scale up to the thousands or millions of qubits needed for practical quantum algorithms. We propose a new quantum computer paradigm that explo its the wonderful scaling achievements of mainstream integrated circuits ( IC) technology which underpins personal computers and mobile phones. Just like with a small IC chip\, where a single nanometer-sized CMOS transistor can be reliably replicated millions of times to build a digital processor \, we propose a new structure of a qubit realized as a CMOS-compatible cha rge-based quantum dot that can be reliably replicated thousands of times t o construct a quantum processor. Combined with an on-chip CMOS controller\ , it will realize a useful quantum computer which can operate at a much hi gher temperature of 4 kelvin.</div>\n<div>\n<div class="ui-flex bm dg df c s ct cu cv dh cw">\n<div class="ui-flex bm bp di dj db dc cw dk dl dm" dat a-tid="registration-page-view-mode-info-wrapper">\n<div class="ui-flex bm bp dq dr ds dt du">\n<div class="ui-flex bm" data-tid="speaker-info-0">\n< div class="ui-flex bm bp">&nbsp\;</div>\n<div class="ui-flex bm bp"><span class="ui-text eo ep ei ej eq" dir="auto"><strong>Spekaer's Bio: </strong> R. Bogdan Staszewski received his PhD from University of Texas at Dallas\, USA in 2002. He joined Texas Instruments in Dallas\, Texas in 1995. In 19 99 he co-started a Digital RF Processor (DRP) group in TI with a mission t o invent new digitally intensive approaches to traditional RF functions. D r. Staszewski served as a CTO of the DRP group between 2007 and 2009. In J uly 2009 he joined Delft University of Technology in the Netherlands. Sinc e Sept. 2014 he has been a Full Professor at University College Dublin (UC D) in Ireland. He has co-authored over 150 journal and 200 conference publ ications\, and holds over 200 issued US patents. His research interests in clude nanoscale CMOS architectures and circuits for frequency synthesizers \, transmitters and receivers\, as well as quantum computers. He is a co-f ounder of a startup company Equal1 Labs aiming at building the first pract ical CMOS quantum computer. He is an IEEE Fellow and a recipient of IEEE C ircuits and Systems Industrial Pioneer Award.</span></div>\n</div>\n</div> \n</div>\n</div>\n</div>\n<div>&nbsp\;</div> END:VEVENT END:VCALENDAR