Środowiskowe Seminarium z Informacji i Technologii Kwantowych
2012/2013 | 2013/2014 | 2014/2015 | 2015/2016 | 2016/2017 | 2017/2018 | 2018/2019 | 2019/2020 | 2020/2021 | 2021/2022 | 2022/2023 | 2023/2024 | 2024/2025 | kanał YouTube
do roku 2023/2024 Seminarium Kwantowa Informacja | kanał YouTube
2017-06-08 (Czwartek)
Roberto Pierini (IFT UW)
Do ideal clocks exist ?
2017-06-01 (Czwartek)
Krzysztof Kaczmarczyk (Oxford)
A room-temperature noise-free quantum memory for broadband light
2017-05-25 (Czwartek)
Konrad Banaszek (CENT UW)
Superresolution imaging at an uncertain location
2017-05-18 (Czwartek)
Emilia Witkowska (IFPAN)
Metrologically useful states of spin-1 Bose condensates with macroscopic magnetization
2017-05-11 (Czwartek)
Krzysztof Chabuda (IFT UW)
Introduction to Matrix Product States
2017-04-27 (Czwartek)
Marcin Jarzyna (CENT UW)
Classical capacity per unit cost for quantum channels
2017-04-20 (Czwartek)
Audrius Alkauskas (Center for Physical Sciences and Technology, Wilno, Litwa)
A room-temperature quantum bus in diamond based on electron photo-ionization, transport, and capture
Diamond is a proven solid-state platform for spin-based quantum technology. The nitrogen-vacancy center in diamond has been used to realize small-scale quantum information processing and quantum sensing under ambient conditions. A major barrier in the development of large-scale quantum information processing in diamond is the connection of nitrogen-vacancy spin registers by a quantum bus at room temperature. Given that diamond is expected to be an ideal spin transport material, the coherent transport of spin directly between the spin registers offers a potential solution. Yet, there has been no demonstration of spin transport in diamond due to difficulties in achieving spin injection and detection via conventional methods. In this talk we will discuss novel mechanisms to photoionize, transport, and capture spin-polarized electrons in diamond at room temperature [1]. Having identified these mechanisms, we will explore how they may be combined to realize an on-chip spin quantum bus. Recent experiments to test some of the ideas along the outlined path will be also presented [2].[1] M. W. Doherty, C. A. Meriles, A. Alkauskas, H. Fedder, M. J. Sellars, and N. B. Manson, Phys. Rev. X 6, 041035 (2016).[2] S. Dhomkar, P. R. Zangara, J. Henshaw, N. B. Manson, M. W. Doherty, A. Alkauskas, and C. A. Meriles, submitted (2017).
2017-04-06 (Czwartek)
Michał Parniak (IFD UW)
Spatial entanglement in atomic and optical systems
2017-03-30 (Czwartek)
Jan Chwedenczuk (IFT UW)
Violation of Bell inequalities in a many-body system of massive particles
2017-03-23 (Czwartek)
Ludwig Kunz (CENT UW)
Quantum noise in a lossy optical channel with Kerr nonlinearity
Stron 1 z 3