Quantum 2.0 Conference

Keynote on Data Security and Session on Sensing Applications and Color Centers I

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1. 10:00 - 10:45
   QTu3A.1

   Keynote: Quantum Technologies for Long-term Data Security

   Presenter: Gregoire Ribordy, ID Quantique

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   Quantum computing poses a major threat to the most commonly deployed public key cryptography algorithms, which are key building blocks of our information security infrastructure. With advances in the field of quantum computing, it becomes important to upgrade this infrastructure to use approaches with a resistant to this threat. One approach is to use quantum technologies, such as quantum key distribution and quantum random number generation, in combination with traditional cryptographic techniques in order to enhance their resilience. In this presentation, we will review the current state of the art of practical quantum key distribution and quantum random number generators and discuss current areas of research. We will also present examples of applications and use cases.
   
   Authors:Gregoire Ribordy, ID Quantique

   Keynote

2. 10:45 - 11:15
   QTu3A.2

   Probing Material Properties with a Nanoscale Quantum Sensor

   Presenter: Joerg Wrachtrup, Universität Stuttgart

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   To be provided.
   
   Authors:Joerg Wrachtrup, Universität Stuttgart

   Invited

Sensing Applications and Color Centers II

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1. 11:30 - 12:00
   QTu4A.1

   Sensing with Diamond NV Centers: the Double-edged Sword of Sensitivity

   Presenter: Ania Bleszynski Jayich, University of California Santa Barbara

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   Solid state spin qubits, in particular the nitrogen vacancy (NV) center in diamond, offer a path towards truly nanoscale imaging of condensed matter and biological systems with sensitivity to single nuclear spins. Here I discuss our NV-based magnetic imaging experiments as applied to condensed matter systems, where we have imaged current flow patterns in graphene as well as skyrmions, nanoscale spin textures. A grand challenge to improving the spatial resolution and magnetic sensitivity of the NV is mitigating surface-induced quantum decoherence, which I will discuss in the second part of this talk. Decoherence at interfaces is a universal problem that affects many quantum technologies, but the microscopic origins are as yet unclear. Our studies guide the ongoing development of quantum control and materials control, pushing towards the ultimate goal of NV-based single nuclear spin imaging.
   
   Authors:Ania Bleszynski Jayich, University of California Santa Barbara

   Invited

2. 12:00 - 12:30
   QTu4A.2

   Phononic Quantum Networks of Spins in Diamond

   Presenter: Hailin Wang, University of Oregon

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   The design and experimental implementation of a phononic quantum network of spins in diamond, which can overcome the inherent scalability problem of conventional mechanical quantum networks, will be discussed.
   
   Authors:Hailin Wang, University of Oregon

   Invited

Sensing Applications and Color Centers III

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1. 13:45 - 14:15
   QTu6A.1

   SABRE-enhanced NMR Spectroscopy Using Quantum Defects in Diamond

   Presenter: Nithya Arunkumar, Harvard University

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   I will provide an overview of quantum diamond sensors and their wide-ranging applications across the physical and life sciences.
   
   Authors:Ron Walsworth, University of Maryland / Nithya Arunkumar, Harvard University

   Invited

2. 14:15 - 14:45
   QTu6A.2

   Designing and Controlling Quantum Materials for Quantum Technologies

   Presenter: Prineha Narang, Harvard University

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   In this talk I will present theoretical and computational approaches for the prediction of excitations in quantum optical materials and coupling of defects in quantum materials, and their application in quantum devices.
   
   Authors:Prineha Narang, Harvard University

   Invited

3. 14:45 - 15:15
   QTu6A.3

   Quantum Computation, Networks and Sensing with Spins in Diamond

   Presenter: Tim Taminiau, Technische Universiteit Delft

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   Spin qubits in diamond provide a promising platform for quantum sensing, networks and computation. I will discuss our latest progress with such qubits, including controlled quantum registers with 10+ qubits and coherence times exceeding a minute.
   
   Authors:Tim Taminiau, Technische Universiteit Delft

   Invited

Panel: Workforce Development in Quantum Science and Technology

Event Details

Quantum Poster Session IA

1. QTu8A.1

   New designs and noise channels in electro-optic microwave to optical up-conversion

   Presenter: Nicholas Lambert, University of Otago

    Presentation Details   Paper

   We discus noise channels in coherent electro-optic up-conversion between microwave and optical fields, in particular due to optical heating. We also report on a novel configuration, which promises to be flexible and highly efficient.
   
   Authors:Nicholas Lambert, University of Otago / Sonia Mobassem, University of Otago / Alfredo Rueda, Institute of Science and Technology / Harald Schwefel, University of Otago

2. QTu8A.2

   Integration of Superconducting Nanostripe Single-Photon Detectors with Dielectric Waveguides for Silicon Quantum Photonic Integrated Circuits

   Presenter: Marek Osinski, University of New Mexico

    Presentation Details   Paper

   We report on design, fabrication, and characterization of superconducting nanostripe single-photon detectors integrated with optical waveguides, with part of the upper cladding removed to enhance absorption of photons by superconducting nanostripes.
   
   Authors:Troy Hutchins-Delgado, University of New Mexico / Sami Nazib, University of New Mexico / Hosuk Lee, University of New Mexico / Jarrett Smalley, University of New Mexico / Nathan Withers, University of New Mexico / Avril Mesa-Olivo, University of New Mexico / John Nogan, Sandia National Laboratories / Ivan Komissarov, University of Rochester / Roman Sobolewski, University of Rochester / Arash Mafi, University of New Mexico / Marek Osinski, University of New Mexico

3. QTu8A.3

   Comb-disciplined Laser System to Operate Strontium Atoms in Magic Tweezer Arrays

   Presenter: Michele Giunta, Menlo Systems GmbH

    Presentation Details   Paper

   We present an ultra-stable-laser system for cooling, trapping and manipulating Rydberg-states in optical tweezer arrays of Sr-atoms. Some CW-lasers are phase-coherently disciplined by an ultra-low-noise comb referenced to a sub-Hz ultra-stable-laser.
   
   Authors:Michele Giunta, Menlo Systems GmbH / Remy Notermans, Atom Computing Inc. / Nikolai Lilienfein, Menlo Systems GmbH / Martin Wolferstetter, Menlo Systems GmbH / Marc Fischer, Menlo Systems GmbH / Benjamin Bloom, Atom Computing Inc. / Ronald Holzwarth, Menlo Systems GmbH

4. QTu8A.4

   Novel 'holistic' protocols for quantum-enabled classical telecommunications

   Presenter: Jabir M. V., NIST

    Presentation Details   Paper

   We experimentally demonstrate new telecommunication protocols and matching receivers designed to enhance benefits of quantum measurements. We show our protocols unconditionally outperforms the shot noise limit for various communication alphabets.
   
   Authors:Jabir M. V., NIST / Ivan Burenkov, NIST / N. Fajar Annafianto, NIST / Abdella Battou, NIST / Sergey V. Polyakov, NIST

5. QTu8A.5

   Compressive Sensing of Photonic Qudits through Positivity Constraints.

   Presenter: Jaroslav Rehacek, Palacky University

    Presentation Details   Paper

   We present a compressed-sensing inspired method to ascertain any rank-deficient qudit state, which we experimentally encode in photonic orbital angular momentum. Our technique provides an easy and accurate way to identify quantum sources and systems.
   
   Authors:Jaroslav Rehacek, Palacky University / Zdenek Hradil, Palacky University / Dominik Koutny, Palacky University / Bohumil Stoklasa, Palacky University / Frederic Bouchard, University of Ottawa / Felix Hufnagel, University of Ottawa / Ebrahim Karimi, University of Ottawa / Yong Siah Teo, Seoul National University / Luis Sanchez-Soto, Universidad Complutense / Gerd Leuchs, Max-Planck-Institut für die Physik des Lichts

6. QTu8A.6

   Characterizing Quantum Detectors by Wigner Functions

   Presenter: Rajveer Nehra, University of Virginia

    Presentation Details   Paper

   We devise a scheme for characterizing a photodetector by directly reconstructing the Wigner functions of the detector’s Positive-Operator-Valued Measure (POVM) elements. We report our experimental progress on characterizing a transition-edge sensor.
   
   Authors:Rajveer Nehra, University of Virginia / Kevin Valson Jacob, Louisiana State University / Miller Eaton, University of Virginia / Olivier Pfister, University of Virginia

7. QTu8A.7

   Free-Space Coupled Low False Count Superconducting Nanowire Single-Photon Detector

   Presenter: Andrew Mueller, California Institute of Technology

    Presentation Details   Paper

   A free-space coupled superconducting nanowire single photon detector with high efficiency and sub-hertz false count rate is demonstrated using stacked short pass filters, a bandpass filter, and optimized cryostat design to block thermal photons.
   
   Authors:Andrew Mueller, California Institute of Technology / Boris Korzh, Jet Propulsion Laboratory / Marcus Runyan, Jet Propulsion Laboratory / Emma Wollman, Jet Propulsion Laboratory / Andrew Beyer, Jet Propulsion Laboratory / Jason Allmaras, Jet Propulsion Laboratory / Bruce Bumble, Jet Propulsion Laboratory / Ryan Briggs, California Institute of Technology / Angel Velasco, Jet Propulsion Laboratory / Lautaro Narvaez, California Institute of Technology / Matthew Shaw, Jet Propulsion Laboratory

8. QTu8A.10

   Sequential Generation of Linear Cluster States from a Single Photon Emitter

   Presenter: Daniel Istrate, The Hebrew University of Jerusalem

    Presentation Details   Paper

   We present an all-fiber compact scheme to scalably generate arbitrary number polarization entangled photons. A single solid-state quantum dot was utilized as a high-brightness single photon source. We demonstrate entanglement of up to four photons.
   
   Authors:Daniel Istrate, The Hebrew University of Jerusalem / Yehuda Pilnyak, The Hebrew University of Jerusalem / Juan Loredo, CNRS Centre for Nanoscience and Nanotechnology, Université Paris-Sud, Université Paris-Saclay / Carlos Antón, CNRS Centre for Nanoscience and Nanotechnology, Université Paris-Sud, Université Paris-Saclay / Niccolo Somaschi, Quandela / Paul Hilaire, CNRS Centre for Nanoscience and Nanotechnology, Université Paris-Sud, Université Paris-Saclay / Hélène Ollivier, CNRS Centre for Nanoscience and Nanotechnology, Université Paris-Sud, Université Paris-Saclay / Martin Esmann, CNRS Centre for Nanoscience and Nanotechnology, Université Paris-Sud, Université Paris-Saclay / Lior Cohen, The Hebrew University of Jerusalem / Leonid Vidro, The Hebrew University of Jerusalem / Clement Millet, CNRS Centre for Nanoscience and Nanotechnology, Université Paris-Sud, Université Paris-Saclay / Aristide Lamaître, CNRS Centre for Nanoscience and Nanotechnology, Université Paris-Sud, Université Paris-Saclay / Isabelle Sagnes, CNRS Centre for Nanoscience and Nanotechnology, Université Paris-Sud, Université Paris-Saclay / Abdelmounaim Harouri, CNRS Centre for Nanoscience and Nanotechnology, Université Paris-Sud, Université Paris-Saclay / Loïc Lanco, CNRS Centre for Nanoscience and Nanotechnology, Université Paris-Sud, Université Paris-Saclay / Pascale Senellart, CNRS Centre for Nanoscience and Nanotechnology, Université Paris-Sud, Université Paris-Saclay / Hagai Eisenberg, The Hebrew University of Jerusalem

9. QTu8A.11

   Direct temporal mode measurement of pulse-pumped parametric processes by stimulated emission

   Presenter: Xin Chen, Indiana Univ.-Purdue Univ. Indianapolis

    Presentation Details   Paper

   We discuss a novel method that measures directly the exact form of temporal modes in pulse-pumped parametric processes via stimulated emission. The method works for both low gain and high gain cases.
   
   Authors:Xin Chen, Indiana Univ.-Purdue Univ. Indianapolis / xiaoying li, Tianjin University / Zhe-Yu Ou, Indiana Univ.-Purdue Univ. Indianapolis

10. QTu8A.13

    Temporal Multiplexing of Heralded Single Photon Sources Using Optical Fiber Delays

    Presenter: Eunjoo Lee, Korea Research Inst of Standards & Sci

     Presentation Details   Paper

    We demonstrate time-multiplexing of heralded single-photon sources using switchable optical fiber delay lines aided by polarization-space multiplexing. Relative-multiplexing HOM interferometry tests the indistinguishability of output photons.
    
    Authors:Eunjoo Lee, Korea Research Inst of Standards & Sci / Sang Min Lee, Korea Research Inst of Standards & Sci / Hee Su Park, Korea Research Inst of Standards & Sci

11. QTu8A.14

    Amplifying Quantum States with a Superconducting Microstrip Kinetic Inductance Travelling-Wave Amplifier

    Presenter: Samuel Goldstein, Racah Institute of Physics

     Presentation Details   Paper

    Superconducting quantum circuits, typically operated below -100 dBm require low-noise amplifiers with large dynamic range and wide bandwidth. Our microstrip kinetic inductance amplifier answers these requirements with up to 20 dB amplification.
    
    Authors:Samuel Goldstein, Racah Institute of Physics / Naftali Kirsh, Racah Institute of Physics / Elisha Svetitsky, Racah Institute of Physics / Shimon Eliav, The Hebrew University of Jerusalem / Nadav Katz, Racah Institute of Physics

12. QTu8A.15

    A Quantum Computer Architecture Based on Silicon Donor Qubits Coupled by Photons

    Presenter: Xiruo Yan, University of British Columbia

     Presentation Details   Paper

    We describe an architecture for fault-tolerant universal quantum computation suited for donor qubits in silicon, coupled by photonic interconnects. The required quantum primitives are local measurements/unitaries, and a non-local Pauli measurement.
    
    Authors:Xiruo Yan, University of British Columbia / Warit Asavanant, University of Tokyo / Hirsh Kamakari, University of British Columbia / Jingda Wu, University of British Columbia / Jeff Young, University of British Columbia / Robert Raussendorf, University of British Columbia

13. QTu8A.16

    Encoding Qubit-Qudit States in Photon Polarization and Picosecond Time-Bins

    Presenter: Yehuda Pilnyak, The Hebrew University of Jerusalem

     Presentation Details   Paper

    We introduce a qubit-qutrit information system realized by two degrees of freedom in a single photon: polarization and picosecond time-bin. We demonstrate creation and reconstruction of states in this framework using quantum state tomography.
    
    Authors:Yehuda Pilnyak, The Hebrew University of Jerusalem / Yuval Schechter, The Hebrew University of Jerusalem / Dean Pleban, The Hebrew University of Jerusalem / Leonid Vidro, The Hebrew University of Jerusalem / Pini Zilber, The Hebrew University of Jerusalem / Lior Cohen, The Hebrew University of Jerusalem / Daniel Istrati, The Hebrew University of Jerusalem / Hagai Eisenberg, The Hebrew University of Jerusalem

14. QTu8A.17

    Large-Scale Spectral Bandwidth Modification of Quantum Light Pulses

    Presenter: Michal Karpinski, University of Warsaw

     Presentation Details   Paper

    We demonstrate and experimentally evaluate electro-optic strategies for single-photon spectral bandwidth modification by more than 2 orders of magnitude, into sub-GHz regime. The results will enable photonic quantum network interfaces.
    
    Authors:Filip Sosnicki, University of Warsaw / Michal Mikolajczyk, University of Warsaw / Ali Golestani, University of Warsaw / Adam Widomski, University of Warsaw / Michal Karpinski, University of Warsaw

15. QTu8A.18

    Bragg Interferometers with Interacting Bose-Einstein Condensates

    Presenter: Francesco Minardi, Istituto Nazionale di Ottica-CNR

     Presentation Details   Paper

    In search of non-classical correlations between momentum components, we have investigated atom interferometers of trapped and free-falling Bose-Einstein condensates, and obtained a quantitative description of the spacing of interference fringes.
    
    Authors:Francesco Minardi, Istituto Nazionale di Ottica-CNR

16. QTu8A.18

    Bragg Interferometers with Interacting Bose-Einstein Condensates

    Presenter: Francesco Minardi, Istituto Nazionale di Ottica-CNR

     Presentation Details

    In search of non-classical correlations between momentum components, we have investigated atom interferometers of trapped and free-falling Bose-Einstein condensates, and obtained a quantitative description of the spacing of interference fringes.
    
    Authors:Francesco Minardi, Istituto Nazionale di Ottica-CNR

17. QTu8A.20

    Optimal control protocols for single qubit quantum detectors

    Presenter: Paraj Titum, JHU/APL

     Presentation Details   Paper

    We identify optimal controls for a single qubit to detect the presence of a known signal over background noise. Using a combination of numeric and analytic techniques, we show that spin-locking is nearly optimal.
    
    Authors:Paraj Titum, JHU/APL / Kevin Schultz, JHU/APL / Alireza Seif, University of Maryland / Gregory Quiroz, JHU/APL / B.D. Clader, JHU/APL

18. QTu8A.20

    Optimal control protocols for single qubit quantum detectors

    Presenter: Paraj Titum, JHU/APL

     Presentation Details

    We identify optimal controls for a single qubit to detect the presence of a known signal over background noise. Using a combination of numeric and analytic techniques, we show that spin-locking is nearly optimal.
    
    Authors:Paraj Titum, JHU/APL / Kevin Schultz, JHU/APL / Alireza Seif, University of Maryland / Gregory Quiroz, JHU/APL / B.D. Clader, JHU/APL

Quantum Poster Session IB

1. QTu8B.2

   Micro-Integrated Narrow and Ultra-Narrow Linewidth Diode Lasers for QIST Applications

   Presenter: Andreas Wicht, Ferdinand-Braun-Institut

    Presentation Details   Paper

   This paper presents a GaAs-diode laser-based hybrid integration approach for the realization of very complex, though compact and robust laser modules for QIST applications in the field and in space.
   
   Authors:Bassem Arar, Ferdinand-Braun-Institut / Christian Kürbis, Ferdinand-Braun-Institut / Max Schiemangk, Ferdinand-Braun-Institut / Robert Smol, Ferdinand-Braun-Institut / Sana Amairi ep Pyka, Ferdinand-Braun-Institut / Klaus Döringshoff, Ferdinand-Braun-Institut / Evgeny Kovalchuk, Ferdinand-Braun-Institut / Achim Peters, Ferdinand-Braun-Institut / Andreas Wicht, Ferdinand-Braun-Institut

2. QTu8B.2

   Micro-Integrated Narrow and Ultra-Narrow Linewidth Diode Lasers for QIST Applications

   Presenter: Andreas Wicht, Ferdinand-Braun-Institut

    Presentation Details

   This paper presents a GaAs-diode laser-based hybrid integration approach for the realization of very complex, though compact and robust laser modules for QIST applications in the field and in space.
   
   Authors:Bassem Arar, Ferdinand-Braun-Institut / Christian Kürbis, Ferdinand-Braun-Institut / Max Schiemangk, Ferdinand-Braun-Institut / Robert Smol, Ferdinand-Braun-Institut / Sana Amairi ep Pyka, Ferdinand-Braun-Institut / Klaus Döringshoff, Ferdinand-Braun-Institut / Evgeny Kovalchuk, Ferdinand-Braun-Institut / Achim Peters, Ferdinand-Braun-Institut / Andreas Wicht, Ferdinand-Braun-Institut

3. QTu8B.4

   Quantum Correlated Images from Four-wave Mixing

   Presenter: Meng-Chang Wu, Joint Quantum Institute, National Institute of Standards and Technology and the University of Maryland

    Presentation Details   Paper

   We demonstrated sub-10 Hz intensity-difference squeezing and eliminate 2-beam coupling effects in quantum correlated images formed using four-wave mixing. With these techniques, we are closer to taking pixel-by-pixel quantum images with a CCD camera.
   
   Authors:Meng-Chang Wu, Joint Quantum Institute, National Institute of Standards and Technology and the University of Maryland / Nicholas Brewer, Joint Quantum Institute, National Institute of Standards and Technology and the University of Maryland / Rory Speirs, Joint Quantum Institute, National Institute of Standards and Technology and the University of Maryland / Kevin Jones, Williams College / Paul Lett, Joint Quantum Institute, National Institute of Standards and Technology and the University of Maryland

4. QTu8B.4

   Quantum Correlated Images from Four-wave Mixing

   Presenter: Meng-Chang Wu, Joint Quantum Institute, National Institute of Standards and Technology and the University of Maryland

    Presentation Details

   We demonstrated sub-10 Hz intensity-difference squeezing and eliminate 2-beam coupling effects in quantum correlated images formed using four-wave mixing. With these techniques, we are closer to taking pixel-by-pixel quantum images with a CCD camera.
   
   Authors:Meng-Chang Wu, Joint Quantum Institute, National Institute of Standards and Technology and the University of Maryland / Nicholas Brewer, Joint Quantum Institute, National Institute of Standards and Technology and the University of Maryland / Rory Speirs, Joint Quantum Institute, National Institute of Standards and Technology and the University of Maryland / Kevin Jones, Williams College / Paul Lett, Joint Quantum Institute, National Institute of Standards and Technology and the University of Maryland

5. QTu8B.5

   New Host Materials for Rare Earth Ions

   Presenter: Christopher Phenicie, Princeton University

    Presentation Details   Paper

   Er³⁺ ions in crystals are promising for quantum networks. We demonstrate ion implantation of Er³⁺ into TiO₂, a potential low-noise host material, with narrow optical and spin linewidths and high implantation yield.
   
   Authors:Christopher Phenicie, Princeton University / Paul Stevenson, Princeton University / Sacha Welinski, Princeton University / Brendon Rose, Princeton University / Abraham Asfaw, Princeton University / Robert Cava, Princeton University / Stephen Lyon, Princeton University / Nathalie de Leon, Princeton University / Jeffrey Thompson, Princeton University

6. QTu8B.5

   New Host Materials for Rare Earth Ions

   Presenter: Christopher Phenicie, Princeton University

    Presentation Details

   Er³⁺ ions in crystals are promising for quantum networks. We demonstrate ion implantation of Er³⁺ into TiO₂, a potential low-noise host material, with narrow optical and spin linewidths and high implantation yield.
   
   Authors:Christopher Phenicie, Princeton University / Paul Stevenson, Princeton University / Sacha Welinski, Princeton University / Brendon Rose, Princeton University / Abraham Asfaw, Princeton University / Robert Cava, Princeton University / Stephen Lyon, Princeton University / Nathalie de Leon, Princeton University / Jeffrey Thompson, Princeton University

7. QTu8B.9

   Controlling Atomic Qubits with Optical and Microwave Vortices

   Presenter: Andrei Afanasev, George Washington University

    Presentation Details   Paper

   We predict behavior of atomic qubits in response to electromagnetic vortices, known as twisted photons: They can induce △m=±2 transitions between atomic levels and Zeeman sub-levels, while suppressing △m=±1 transitions only allowed for plane waves.
   
   Authors:Andrei Afanasev, George Washington University

8. QTu8B.9

   Controlling Atomic Qubits with Optical and Microwave Vortices

   Presenter: Andrei Afanasev, George Washington University

    Presentation Details

   We predict behavior of atomic qubits in response to electromagnetic vortices, known as twisted photons: They can induce △m=±2 transitions between atomic levels and Zeeman sub-levels, while suppressing △m=±1 transitions only allowed for plane waves.
   
   Authors:Andrei Afanasev, George Washington University

9. QTu8B.11

   Device-Independent Quantum Computing

   Presenter: Ni-Ni Huang, Department of Engineering Science, National Cheng Kung University

    Presentation Details   Paper

   We present a novel classical model through which any classical mimicry of target quantum computational processes can be ruled out, which provides a benchmark for identifying measurement-based quantum computing in a fully device-independent manner.
   
   Authors:Ni-Ni Huang, Department of Engineering Science, National Cheng Kung University / Jia-Cheng Xu, Department of Engineering Science, National Cheng Kung University / Che-Ming Li, Department of Engineering Science, National Cheng Kung University

10. QTu8B.11

    Device-Independent Quantum Computing

    Presenter: Ni-Ni Huang, Department of Engineering Science, National Cheng Kung University

     Presentation Details

    We present a novel classical model through which any classical mimicry of target quantum computational processes can be ruled out, which provides a benchmark for identifying measurement-based quantum computing in a fully device-independent manner.
    
    Authors:Ni-Ni Huang, Department of Engineering Science, National Cheng Kung University / Jia-Cheng Xu, Department of Engineering Science, National Cheng Kung University / Che-Ming Li, Department of Engineering Science, National Cheng Kung University

11. QTu8B.13

    Practical route to entanglement-enhanced communication over noisy bosonic channels

    Presenter: Haowei Shi, University of Arizona

     Presentation Details   Paper

    We report structured encoding and decoding schemes for entanglement-assisted
    classical communication in a lossy and noisy scenario. Phase encoding on the entangled
    two-mode squeezed vacuum is shown to be optimal and practical receivers are analyzed.
    
    Authors:Haowei Shi, University of Arizona / Zheshen Zhang, University of Arizona / Quntao Zhuang, University of Arizona

12. QTu8B.13

    Practical route to entanglement-enhanced communication over noisy bosonic channels

    Presenter: Haowei Shi, University of Arizona

     Presentation Details

    We report structured encoding and decoding schemes for entanglement-assisted
    classical communication in a lossy and noisy scenario. Phase encoding on the entangled
    two-mode squeezed vacuum is shown to be optimal and practical receivers are analyzed.
    
    Authors:Haowei Shi, University of Arizona / Zheshen Zhang, University of Arizona / Quntao Zhuang, University of Arizona

13. QTu8B.14

    ARTIQ and Sinara: Open Software and Hardware Stacks for Quantum Physics

    Presenter: Grzegorz Kasprowicz, Warsaw University of Technology

     Presentation Details   Paper

    The Sinara is a control system dedicated to quantum applications. It is based on industrial standards and consists of over 50 modules. The hardware is controlled by ARTIQ which provides a high-level programming language.
    
    Authors:Grzegorz Kasprowicz, Warsaw University of Technology / Pawel Kulik, Warsaw University of Technology / Michal Gaska, Warsaw University of Technology / Tomasz Przywozki, Warsaw University of Technology / Jakub Jarosinski, Warsaw University of Technology / Joe Britton, University of Maryland / Thomas Harty, Oxford University / Christopher Ballance, Oxford University / Weida Zhang, Oxford University / David Nadlinger, Oxford University / Daniel Slichter, NIST / David Allcock, University of Oregon / Sebastien Bourdeauducq, M-Labs / Robert Jordens, QUARTIQ / Mikolaj Sowinski, Warsaw University of Technology / Krzysztof Pozniak, Warsaw University of Technology

14. QTu8B.14

    ARTIQ and Sinara: Open Software and Hardware Stacks for Quantum Physics

    Presenter: Grzegorz Kasprowicz, Warsaw University of Technology

     Presentation Details

    The Sinara is a control system dedicated to quantum applications. It is based on industrial standards and consists of over 50 modules. The hardware is controlled by ARTIQ which provides a high-level programming language.
    
    Authors:Grzegorz Kasprowicz, Warsaw University of Technology / Pawel Kulik, Warsaw University of Technology / Michal Gaska, Warsaw University of Technology / Tomasz Przywozki, Warsaw University of Technology / Jakub Jarosinski, Warsaw University of Technology / Joe Britton, University of Maryland / Thomas Harty, Oxford University / Christopher Ballance, Oxford University / Weida Zhang, Oxford University / David Nadlinger, Oxford University / Daniel Slichter, NIST / David Allcock, University of Oregon / Sebastien Bourdeauducq, M-Labs / Robert Jordens, QUARTIQ / Mikolaj Sowinski, Warsaw University of Technology / Krzysztof Pozniak, Warsaw University of Technology

15. QTu8B.15

    NV^- Center Magnetometry Speed Up by an Order of Magnitude Using Optimal Bayesian Experimental Design

    Presenter: Sergey Dushenko, University of Maryland College Park

     Presentation Details   Paper

    In magnetometry using quantum defects in diamond (NV^- centers), we demonstrate order-of-magnitude speedup with optimal Bayesian experimental design as compared with conventional frequency-swept measurements.
    
    Authors:Sergey Dushenko, University of Maryland College Park / Kapildeb Ambal, University of Maryland College Park / Robert McMichael, National Institute of Standards and Technology

16. QTu8B.15

    NV^- Center Magnetometry Speed Up by an Order of Magnitude Using Optimal Bayesian Experimental Design

    Presenter: Sergey Dushenko, University of Maryland College Park

     Presentation Details

    In magnetometry using quantum defects in diamond (NV^- centers), we demonstrate order-of-magnitude speedup with optimal Bayesian experimental design as compared with conventional frequency-swept measurements.
    
    Authors:Sergey Dushenko, University of Maryland College Park / Kapildeb Ambal, University of Maryland College Park / Robert McMichael, National Institute of Standards and Technology

17. QTu8B.16

    Towards a Quantum Memory: Effects of Hyperfine Structure on Atomic Frequency Combs in Pr:YSO

    Presenter: Aditya Sharma, University of Maryland

     Presentation Details   Paper

    We experimentally prepare 120 MHz-bandwidth atomic frequency combs. High-quality comb formation – and thus high-efficiency retrieval of stored pulses – only occurs for certain tooth spacings, due to the hyperfine energy-level spacings
    
    Authors:Aditya Sharma, University of Maryland / Martin Ritter, University of Maryland / Robinjeet Singh, National Institute of Standards and Technology / Elizabeth Goldschmidt, University of Illinois at Urbana-Champaign / Alan Migdall, National Institute of Standards and Technology

18. QTu8B.16

    Towards a Quantum Memory: Effects of Hyperfine Structure on Atomic Frequency Combs in Pr:YSO

    Presenter: Aditya Sharma, University of Maryland

     Presentation Details

    We experimentally prepare 120 MHz-bandwidth atomic frequency combs. High-quality comb formation – and thus high-efficiency retrieval of stored pulses – only occurs for certain tooth spacings, due to the hyperfine energy-level spacings
    
    Authors:Aditya Sharma, University of Maryland / Martin Ritter, University of Maryland / Robinjeet Singh, National Institute of Standards and Technology / Elizabeth Goldschmidt, University of Illinois at Urbana-Champaign / Alan Migdall, National Institute of Standards and Technology

19. QTu8B.17

    Coincidence Detection based Quantum Key Distribution Protocol

    Presenter: Anindya Banerji, Physical Research Laboratory

     Presentation Details   Paper

    We exploit inherent randomness in photon number distribution of weak coherent pulses coupled with coincidence detection to perform quantum key distribution. This results in higher key rate over longer distance compared to decoy state protocol.
    
    Authors:Ayan Biswas, Physical Research Laboratory / Anindya Banerji, Physical Research Laboratory / NIJIL LAL, Physical Research Laboratory / Pooja Chandravanshi, Physical Research Laboratory / Rupesh Kumar, University of York / Ravindra Singh, Physical Research Laboratory

20. QTu8B.17

    Coincidence Detection based Quantum Key Distribution Protocol

    Presenter: Anindya Banerji, Physical Research Laboratory

     Presentation Details

    We exploit inherent randomness in photon number distribution of weak coherent pulses coupled with coincidence detection to perform quantum key distribution. This results in higher key rate over longer distance compared to decoy state protocol.
    
    Authors:Ayan Biswas, Physical Research Laboratory / Anindya Banerji, Physical Research Laboratory / Nijil Lal, Physical Research Laboratory / Pooja Chandravanshi, Physical Research Laboratory / Rupesh Kumar, University of York / Ravindra Singh, Physical Research Laboratory

21. QTu8B.18

    Molecular Vibration Spectroscopy with Undetected Photons

    Presenter: Tai Hyun Yoon, Center for Molecular Spectroscopy and Dynamics

     Presentation Details   Paper

    We present novel spectroscopy technique with undetected photons with dual stimulated parametric down-conversion crystals. A rovibrational spectrum of HCN molecule at 1550 nm is measured by single-photon interferometry of signal photons at 807 nm.
    
    Authors:Tai Hyun Yoon, Center for Molecular Spectroscopy and Dynamics / Sun Kyung Lee, Center for Molecular Spectroscopy and Dynamics / Minhaeng Cho, Center for Molecular Spectroscopy and Dynamics

22. QTu8B.18

    Molecular Vibration Spectroscopy with Undetected Photons

    Presenter: Tai Hyun Yoon, Center for Molecular Spectroscopy and Dynamics

     Presentation Details

    We present novel spectroscopy technique with undetected photons with dual stimulated parametric down-conversion crystals. A rovibrational spectrum of HCN molecule at 1550 nm is measured by single-photon interferometry of signal photons at 807 nm.
    
    Authors:Tai Hyun Yoon, Center for Molecular Spectroscopy and Dynamics / Sun Kyung Lee, Center for Molecular Spectroscopy and Dynamics / Minhaeng Cho, Center for Molecular Spectroscopy and Dynamics

23. QTu8B.19

    Scaling-up quantum technologies with solid-state single-photon sources

    Presenter: Niccolo Somaschi, Quandela

     Presentation Details   Paper

    We benchmark the performance of 15 solid-state based quantum light sources with high brightness and quantum purity, demonstrating reproducibility of top-performances for their large-scale implementation in optical quantum technologies.
    
    Authors:Niccolo Somaschi, Quandela

24. QTu8B.19

    Scaling-up quantum technologies with solid-state single-photon sources

    Presenter: Niccolo Somaschi, Quandela

     Presentation Details

    We benchmark the performance of 15 solid-state based quantum light sources with high brightness and quantum purity, demonstrating reproducibility of top-performances for their large-scale implementation in optical quantum technologies.
    
    Authors:Niccolo Somaschi, Quandela

Quantum Poster Session IB

1. QTu8B.2

   Micro-Integrated Narrow and Ultra-Narrow Linewidth Diode Lasers for QIST Applications

   Presenter: Andreas Wicht, Ferdinand-Braun-Institut

    Presentation Details   Paper

   This paper presents a GaAs-diode laser-based hybrid integration approach for the realization of very complex, though compact and robust laser modules for QIST applications in the field and in space.
   
   Authors:Bassem Arar, Ferdinand-Braun-Institut / Christian Kürbis, Ferdinand-Braun-Institut / Max Schiemangk, Ferdinand-Braun-Institut / Robert Smol, Ferdinand-Braun-Institut / Sana Amairi ep Pyka, Ferdinand-Braun-Institut / Klaus Döringshoff, Ferdinand-Braun-Institut / Evgeny Kovalchuk, Ferdinand-Braun-Institut / Achim Peters, Ferdinand-Braun-Institut / Andreas Wicht, Ferdinand-Braun-Institut

2. QTu8B.2

   Micro-Integrated Narrow and Ultra-Narrow Linewidth Diode Lasers for QIST Applications

   Presenter: Andreas Wicht, Ferdinand-Braun-Institut

    Presentation Details

   This paper presents a GaAs-diode laser-based hybrid integration approach for the realization of very complex, though compact and robust laser modules for QIST applications in the field and in space.
   
   Authors:Bassem Arar, Ferdinand-Braun-Institut / Christian Kürbis, Ferdinand-Braun-Institut / Max Schiemangk, Ferdinand-Braun-Institut / Robert Smol, Ferdinand-Braun-Institut / Sana Amairi ep Pyka, Ferdinand-Braun-Institut / Klaus Döringshoff, Ferdinand-Braun-Institut / Evgeny Kovalchuk, Ferdinand-Braun-Institut / Achim Peters, Ferdinand-Braun-Institut / Andreas Wicht, Ferdinand-Braun-Institut

3. QTu8B.4

   Quantum Correlated Images from Four-wave Mixing

   Presenter: Meng-Chang Wu, Joint Quantum Institute, National Institute of Standards and Technology and the University of Maryland

    Presentation Details   Paper

   We demonstrated sub-10 Hz intensity-difference squeezing and eliminate 2-beam coupling effects in quantum correlated images formed using four-wave mixing. With these techniques, we are closer to taking pixel-by-pixel quantum images with a CCD camera.
   
   Authors:Meng-Chang Wu, Joint Quantum Institute, National Institute of Standards and Technology and the University of Maryland / Nicholas Brewer, Joint Quantum Institute, National Institute of Standards and Technology and the University of Maryland / Rory Speirs, Joint Quantum Institute, National Institute of Standards and Technology and the University of Maryland / Kevin Jones, Williams College / Paul Lett, Joint Quantum Institute, National Institute of Standards and Technology and the University of Maryland

4. QTu8B.4

   Quantum Correlated Images from Four-wave Mixing

   Presenter: Meng-Chang Wu, Joint Quantum Institute, National Institute of Standards and Technology and the University of Maryland

    Presentation Details

   We demonstrated sub-10 Hz intensity-difference squeezing and eliminate 2-beam coupling effects in quantum correlated images formed using four-wave mixing. With these techniques, we are closer to taking pixel-by-pixel quantum images with a CCD camera.
   
   Authors:Meng-Chang Wu, Joint Quantum Institute, National Institute of Standards and Technology and the University of Maryland / Nicholas Brewer, Joint Quantum Institute, National Institute of Standards and Technology and the University of Maryland / Rory Speirs, Joint Quantum Institute, National Institute of Standards and Technology and the University of Maryland / Kevin Jones, Williams College / Paul Lett, Joint Quantum Institute, National Institute of Standards and Technology and the University of Maryland

5. QTu8B.5

   New Host Materials for Rare Earth Ions

   Presenter: Christopher Phenicie, Princeton University

    Presentation Details   Paper

   Er³⁺ ions in crystals are promising for quantum networks. We demonstrate ion implantation of Er³⁺ into TiO₂, a potential low-noise host material, with narrow optical and spin linewidths and high implantation yield.
   
   Authors:Christopher Phenicie, Princeton University / Paul Stevenson, Princeton University / Sacha Welinski, Princeton University / Brendon Rose, Princeton University / Abraham Asfaw, Princeton University / Robert Cava, Princeton University / Stephen Lyon, Princeton University / Nathalie de Leon, Princeton University / Jeffrey Thompson, Princeton University

6. QTu8B.5

   New Host Materials for Rare Earth Ions

   Presenter: Christopher Phenicie, Princeton University

    Presentation Details

   Er³⁺ ions in crystals are promising for quantum networks. We demonstrate ion implantation of Er³⁺ into TiO₂, a potential low-noise host material, with narrow optical and spin linewidths and high implantation yield.
   
   Authors:Christopher Phenicie, Princeton University / Paul Stevenson, Princeton University / Sacha Welinski, Princeton University / Brendon Rose, Princeton University / Abraham Asfaw, Princeton University / Robert Cava, Princeton University / Stephen Lyon, Princeton University / Nathalie de Leon, Princeton University / Jeffrey Thompson, Princeton University

7. QTu8B.9

   Controlling Atomic Qubits with Optical and Microwave Vortices

   Presenter: Andrei Afanasev, George Washington University

    Presentation Details   Paper

   We predict behavior of atomic qubits in response to electromagnetic vortices, known as twisted photons: They can induce △m=±2 transitions between atomic levels and Zeeman sub-levels, while suppressing △m=±1 transitions only allowed for plane waves.
   
   Authors:Andrei Afanasev, George Washington University

8. QTu8B.9

   Controlling Atomic Qubits with Optical and Microwave Vortices

   Presenter: Andrei Afanasev, George Washington University

    Presentation Details

   We predict behavior of atomic qubits in response to electromagnetic vortices, known as twisted photons: They can induce △m=±2 transitions between atomic levels and Zeeman sub-levels, while suppressing △m=±1 transitions only allowed for plane waves.
   
   Authors:Andrei Afanasev, George Washington University

9. QTu8B.11

   Device-Independent Quantum Computing

   Presenter: Ni-Ni Huang, Department of Engineering Science, National Cheng Kung University

    Presentation Details   Paper

   We present a novel classical model through which any classical mimicry of target quantum computational processes can be ruled out, which provides a benchmark for identifying measurement-based quantum computing in a fully device-independent manner.
   
   Authors:Ni-Ni Huang, Department of Engineering Science, National Cheng Kung University / Jia-Cheng Xu, Department of Engineering Science, National Cheng Kung University / Che-Ming Li, Department of Engineering Science, National Cheng Kung University

10. QTu8B.11

    Device-Independent Quantum Computing

    Presenter: Ni-Ni Huang, Department of Engineering Science, National Cheng Kung University

     Presentation Details

    We present a novel classical model through which any classical mimicry of target quantum computational processes can be ruled out, which provides a benchmark for identifying measurement-based quantum computing in a fully device-independent manner.
    
    Authors:Ni-Ni Huang, Department of Engineering Science, National Cheng Kung University / Jia-Cheng Xu, Department of Engineering Science, National Cheng Kung University / Che-Ming Li, Department of Engineering Science, National Cheng Kung University

11. QTu8B.13

    Practical route to entanglement-enhanced communication over noisy bosonic channels

    Presenter: Haowei Shi, University of Arizona

     Presentation Details   Paper

    We report structured encoding and decoding schemes for entanglement-assisted
    classical communication in a lossy and noisy scenario. Phase encoding on the entangled
    two-mode squeezed vacuum is shown to be optimal and practical receivers are analyzed.
    
    Authors:Haowei Shi, University of Arizona / Zheshen Zhang, University of Arizona / Quntao Zhuang, University of Arizona

12. QTu8B.13

    Practical route to entanglement-enhanced communication over noisy bosonic channels

    Presenter: Haowei Shi, University of Arizona

     Presentation Details

    We report structured encoding and decoding schemes for entanglement-assisted
    classical communication in a lossy and noisy scenario. Phase encoding on the entangled
    two-mode squeezed vacuum is shown to be optimal and practical receivers are analyzed.
    
    Authors:Haowei Shi, University of Arizona / Zheshen Zhang, University of Arizona / Quntao Zhuang, University of Arizona

13. QTu8B.14

    ARTIQ and Sinara: Open Software and Hardware Stacks for Quantum Physics

    Presenter: Grzegorz Kasprowicz, Warsaw University of Technology

     Presentation Details   Paper

    The Sinara is a control system dedicated to quantum applications. It is based on industrial standards and consists of over 50 modules. The hardware is controlled by ARTIQ which provides a high-level programming language.
    
    Authors:Grzegorz Kasprowicz, Warsaw University of Technology / Pawel Kulik, Warsaw University of Technology / Michal Gaska, Warsaw University of Technology / Tomasz Przywozki, Warsaw University of Technology / Jakub Jarosinski, Warsaw University of Technology / Joe Britton, University of Maryland / Thomas Harty, Oxford University / Christopher Ballance, Oxford University / Weida Zhang, Oxford University / David Nadlinger, Oxford University / Daniel Slichter, NIST / David Allcock, University of Oregon / Sebastien Bourdeauducq, M-Labs / Robert Jordens, QUARTIQ / Mikolaj Sowinski, Warsaw University of Technology / Krzysztof Pozniak, Warsaw University of Technology

14. QTu8B.14

    ARTIQ and Sinara: Open Software and Hardware Stacks for Quantum Physics

    Presenter: Grzegorz Kasprowicz, Warsaw University of Technology

     Presentation Details

    The Sinara is a control system dedicated to quantum applications. It is based on industrial standards and consists of over 50 modules. The hardware is controlled by ARTIQ which provides a high-level programming language.
    
    Authors:Grzegorz Kasprowicz, Warsaw University of Technology / Pawel Kulik, Warsaw University of Technology / Michal Gaska, Warsaw University of Technology / Tomasz Przywozki, Warsaw University of Technology / Jakub Jarosinski, Warsaw University of Technology / Joe Britton, University of Maryland / Thomas Harty, Oxford University / Christopher Ballance, Oxford University / Weida Zhang, Oxford University / David Nadlinger, Oxford University / Daniel Slichter, NIST / David Allcock, University of Oregon / Sebastien Bourdeauducq, M-Labs / Robert Jordens, QUARTIQ / Mikolaj Sowinski, Warsaw University of Technology / Krzysztof Pozniak, Warsaw University of Technology

15. QTu8B.15

    NV^- Center Magnetometry Speed Up by an Order of Magnitude Using Optimal Bayesian Experimental Design

    Presenter: Sergey Dushenko, University of Maryland College Park

     Presentation Details   Paper

    In magnetometry using quantum defects in diamond (NV^- centers), we demonstrate order-of-magnitude speedup with optimal Bayesian experimental design as compared with conventional frequency-swept measurements.
    
    Authors:Sergey Dushenko, University of Maryland College Park / Kapildeb Ambal, University of Maryland College Park / Robert McMichael, National Institute of Standards and Technology

16. QTu8B.15

    NV^- Center Magnetometry Speed Up by an Order of Magnitude Using Optimal Bayesian Experimental Design

    Presenter: Sergey Dushenko, University of Maryland College Park

     Presentation Details

    In magnetometry using quantum defects in diamond (NV^- centers), we demonstrate order-of-magnitude speedup with optimal Bayesian experimental design as compared with conventional frequency-swept measurements.
    
    Authors:Sergey Dushenko, University of Maryland College Park / Kapildeb Ambal, University of Maryland College Park / Robert McMichael, National Institute of Standards and Technology

17. QTu8B.16

    Towards a Quantum Memory: Effects of Hyperfine Structure on Atomic Frequency Combs in Pr:YSO

    Presenter: Aditya Sharma, University of Maryland

     Presentation Details   Paper

    We experimentally prepare 120 MHz-bandwidth atomic frequency combs. High-quality comb formation – and thus high-efficiency retrieval of stored pulses – only occurs for certain tooth spacings, due to the hyperfine energy-level spacings
    
    Authors:Aditya Sharma, University of Maryland / Martin Ritter, University of Maryland / Robinjeet Singh, National Institute of Standards and Technology / Elizabeth Goldschmidt, University of Illinois at Urbana-Champaign / Alan Migdall, National Institute of Standards and Technology

18. QTu8B.16

    Towards a Quantum Memory: Effects of Hyperfine Structure on Atomic Frequency Combs in Pr:YSO

    Presenter: Aditya Sharma, University of Maryland

     Presentation Details

    We experimentally prepare 120 MHz-bandwidth atomic frequency combs. High-quality comb formation – and thus high-efficiency retrieval of stored pulses – only occurs for certain tooth spacings, due to the hyperfine energy-level spacings
    
    Authors:Aditya Sharma, University of Maryland / Martin Ritter, University of Maryland / Robinjeet Singh, National Institute of Standards and Technology / Elizabeth Goldschmidt, University of Illinois at Urbana-Champaign / Alan Migdall, National Institute of Standards and Technology

19. QTu8B.17

    Coincidence Detection based Quantum Key Distribution Protocol

    Presenter: Anindya Banerji, Physical Research Laboratory

     Presentation Details   Paper

    We exploit inherent randomness in photon number distribution of weak coherent pulses coupled with coincidence detection to perform quantum key distribution. This results in higher key rate over longer distance compared to decoy state protocol.
    
    Authors:Ayan Biswas, Physical Research Laboratory / Anindya Banerji, Physical Research Laboratory / NIJIL LAL, Physical Research Laboratory / Pooja Chandravanshi, Physical Research Laboratory / Rupesh Kumar, University of York / Ravindra Singh, Physical Research Laboratory

20. QTu8B.17

    Coincidence Detection based Quantum Key Distribution Protocol

    Presenter: Anindya Banerji, Physical Research Laboratory

     Presentation Details

    We exploit inherent randomness in photon number distribution of weak coherent pulses coupled with coincidence detection to perform quantum key distribution. This results in higher key rate over longer distance compared to decoy state protocol.
    
    Authors:Ayan Biswas, Physical Research Laboratory / Anindya Banerji, Physical Research Laboratory / Nijil Lal, Physical Research Laboratory / Pooja Chandravanshi, Physical Research Laboratory / Rupesh Kumar, University of York / Ravindra Singh, Physical Research Laboratory

21. QTu8B.18

    Molecular Vibration Spectroscopy with Undetected Photons

    Presenter: Tai Hyun Yoon, Center for Molecular Spectroscopy and Dynamics

     Presentation Details   Paper

    We present novel spectroscopy technique with undetected photons with dual stimulated parametric down-conversion crystals. A rovibrational spectrum of HCN molecule at 1550 nm is measured by single-photon interferometry of signal photons at 807 nm.
    
    Authors:Tai Hyun Yoon, Center for Molecular Spectroscopy and Dynamics / Sun Kyung Lee, Center for Molecular Spectroscopy and Dynamics / Minhaeng Cho, Center for Molecular Spectroscopy and Dynamics

22. QTu8B.18

    Molecular Vibration Spectroscopy with Undetected Photons

    Presenter: Tai Hyun Yoon, Center for Molecular Spectroscopy and Dynamics

     Presentation Details

    We present novel spectroscopy technique with undetected photons with dual stimulated parametric down-conversion crystals. A rovibrational spectrum of HCN molecule at 1550 nm is measured by single-photon interferometry of signal photons at 807 nm.
    
    Authors:Tai Hyun Yoon, Center for Molecular Spectroscopy and Dynamics / Sun Kyung Lee, Center for Molecular Spectroscopy and Dynamics / Minhaeng Cho, Center for Molecular Spectroscopy and Dynamics

23. QTu8B.19

    Scaling-up quantum technologies with solid-state single-photon sources

    Presenter: Niccolo Somaschi, Quandela

     Presentation Details   Paper

    We benchmark the performance of 15 solid-state based quantum light sources with high brightness and quantum purity, demonstrating reproducibility of top-performances for their large-scale implementation in optical quantum technologies.
    
    Authors:Niccolo Somaschi, Quandela

24. QTu8B.19

    Scaling-up quantum technologies with solid-state single-photon sources

    Presenter: Niccolo Somaschi, Quandela

     Presentation Details

    We benchmark the performance of 15 solid-state based quantum light sources with high brightness and quantum purity, demonstrating reproducibility of top-performances for their large-scale implementation in optical quantum technologies.
    
    Authors:Niccolo Somaschi, Quandela