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UID:593e7ce54d8d5846713145@ist.ac.at
DTSTART:20180410T110000
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DESCRIPTION:Speaker: Fernando Gonzalez Zalba\nhosted by Georgios Katsaros\n
 Abstract: The silicon metal-oxide-semiconductor transistor is the workhors
 e of the microelectronics industry. It is the building block of all major 
 electronic information processing components such as microprocessors\, mem
 ory chips and telecommunications microcircuits. By shrinking its size gene
 ration after generation the computational performance\, memory capacity an
 d information processing speed has increased relentlessly. However\, the p
 rocess of miniaturization is bound to reach its fundamental physical limit
 s in the next decades.New computing paradigms are hence paramount to overc
 ome the technical limitations of silicon technology and continue increasin
 g the computation performance beyond simple multi-core approaches. Quantum
  computing  based on computing with interacting two-level quantum systems 
 or qubits- offers exponential speed-up over several classical algorithms [
 1-3] and it is hence one of the most sought-after alternatives to conventi
 onal computing. However\, finding the optimal physical system to process q
 uantum information and scale it up to the large number of qubits necessary
  to run the aforementioned algorithms remains a major challenge. Paradoxic
 ally\, we are now starting to see that silicon technology itself could off
 er an optimal platform on which to fabricate spin-based scalable quantum c
 ircuits: Quantum computing with silicon transistors fully profits from the
  most established industrial technology to fabricate large scale integrate
 d circuits while facilitating the integration with conventional electronic
 s for fast data processing of the binary outputs of the quantum processor\
 ; all this offering long electron spin coherence times [4].In this talk\, 
 I will present a series of results on fully depleted silicon-on-insulator 
 (FD-SOI) transistors at miliKelvin temperatures that show this technology 
 could provide a platform on to which implement electron-spin qubits [5-10]
 . Additionally\, I will present a set of experiments that demonstrate the 
 potential to scale FD-SOI technology to a large number of qubits and inter
 face them naturally with conventional digital electronics [11-12].
LOCATION:Big Seminar room Ground floor / Office Bldg West (I21.EG.101)\, IS
 TA
ORGANIZER:jdeanton@ist.ac.at
SUMMARY:Fernando Gonzalez Zalba: Gate-based sensing for spin qubits
URL:https://talks-calendar.ista.ac.at/events/963
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