There will be two sessions for contributed posters at NACTI 2022 in the Gross Hall Energy Initiative Energy Hub Lobby.
Day | Poster Number | Presenter | Affiliation | Title |
1 | 1 | Yuhi Aikyo | Duke University | Cooling Experiment through Quadrupole Transition in Miniature Room Temperature System |
1 | 2 | David T.C. Allcock | University of Oregon | Controlling trapped-ion motional modes for precision measurement and CVQC |
1 | 3 | Matthias Bock | Institut für Quantenoptik und Quanteninformation, Österreichische Akademie der Wissenschaften, Technikerstraße 21a, 6020 Innsbruck, Austria | Correlation spectroscopy with multi-qubit-enhanced phase estimation in a planar 91-ion crystal |
1 | 4 | Sumanta Khan | Department of Physics, University of California, Berkeley, California 94720, USA | Test of Causal Non-Linear Quantum Mechanics by Ramsey Interferometry on the Vibrational Mode of a Trapped Ion |
1 | 5 | Clinton Cahall | ColdQuanta | Compact Ion Systems for Scalable and Deployable Quantum Technologies |
1 | 6 | Kyle DeBry | Massachusetts Institute of Technology | Quantum control of multi-level atoms for quantum signal processing |
1 | 7 | Neil Glikin | UC Berkeley | IonSim: A lightweight Julia package for simulating trapped-ion dynamics |
1 | 8 | Honggi Jeon | Department of Physics and Astronomy, Seoul National University | Implementation of Two Qubit Gates with Motional Modes in Multiple Directions |
1 | 9 | Junki Kim | SKKU Advanced Institute of Nano Technology and Departement of Nano Engineering, Sungkyunkwan University, Korea | Reproducible optics design for a scalable ion trap |
1 | 10 | Antonis Kyprianidis | Indiana University | Engineering spin-spin interactions with global beams |
1 | 11 | D. Luo | University of Maryland, College Park | A Monolithic Three-Dimensional Linear Ion Trap |
1 | 12 | Abhishek Menon | Department of Physics and Astronomy, Rice University, Houston, Texas, U.S.A. | Towards the Realization of a Dissipative Phase Transition using a Trapped Ion Quantum Simulator |
1 | 13 | Lu Qi | Duke University | Adiabatic control of motional states of calcium oxide ion and calcium ion chain |
1 | 14 | Alexander Quinn | University of Oregon | Raman scattering errors in metastable 40Ca+ trapped-ion qubits and implementation of Raman gates |
1 | 15 | Alexander Rasmusson | Indiana University | Optimized pulsed sideband cooling and enhanced thermometry of trapped ions |
1 | 16 | Roy Ready | University of California, Santa Barbara | Developing 3D-printed micro-traps with a cryogenic ion trapping system |
1 | 17 | Evan C. Reed | Duke University | Optimized pulsed sideband cooling vs continuous sideband cooling on an electric quadrupole transition |
1 | 18 | Vikram Sandhu | Georgia Tech Research Institute | Ion trapping at GTRI: from high-fidelity gates to mass-spec |
1 | 19 | Yotam Shapira | Weizmann Institute of Science | Quantum simulations of interacting systems with broken time-reversal symmetry |
1 | 20 | Yotam Shapira | Weizmann Institute of Science | Robust two-qubit trapped ions gates using spin-dependent squeezing |
1 | 21 | Samuel Snowden | University of Sussex, Brighton, UK, BN1 9QH | Design and fabrication of a micro-blade trap with optical cavity for a mixed species quantum network node |
1 | 22 | Midhuna Duraisamy Suganthi | Physics and astronomy, Rice University | Towards a light-shift gate with transverse momentum transfer from spatially modulated light |
1 | 23 | Ting Rei Tan | The University of Sydney | Scalable prediction of molecular vibronic spectra using time-domain analog quantum simulation |
1 | 24 | Carl Thomas | University of Washington | Progress on implementation of remote entanglement between Yb+ and ZnO defect spin |
1 | 25 | Qiming Wu | USTC | Multi-mode ground state cooling of a trapped ion chain beyond the Lamb-Dicke limit |
1 | 26 | Denton Wu | Joint Quantum Institute | Strontium ions for quantum networking and vortex field experiments |
1 | 27 | Ashlyn Burch | Sandia National Laboratory | Quantum Scientific Computing Open User Testbed (QSCOUT) Capabilities |
1 | 28 | Christopher Caron | University of Massachusetts Amherst | Trapped Ion Quantum Computing Fabrication Testbed at UMass Amherst |
1 | 31 | Creston Herold | Georgia Tech Research Institute | Quantum approximate optimization with ions in Paul and Penning traps |
1 | 32 | Megan Ivory | Sandia National Laboratory | Characterization of the AC Zeeman Effect in Microfabricated Surface Traps | 1 | 39 | Billy Robertson | National Physical Laboratory (UK) | An Yb+ optical clock for precision metrology and tests of fundamental physics |
1 | 40 | George Schwartz | Duke University | Integration of an Ultraviolet Cavity with a 171Yb+ Surface Trap |
2 | 1 | R. Berkis | Institut für Experimentalphysik, Universität Innsbruck, Technikerstraße 25, 6020 Innsbruck, Austria | Towards scalable quantum networks using fiber cavities and surface ion traps |
2 | 2 | Alejandro Bermudez | Instituto de Fisica Teorica, UAM-CSIC | Long-range Ising models: Probing the renormalization of sound in non-perturbative QFTs with crystals of trapped ions |
2 | 3 | Debopriyo Biswas | Duke University | Using trapped ions to simulate NMR experiments and observe measurement-induced phase transitions |
2 | 4 | Thomas Dellaert | University of California, Los Angeles | Spectroscopy of metastable trapped 173Yb+ for quantum information and fundamental science |
2 | 5 | Maya Fabrikant | Quantinuum, 303 S. Technology Ct., Broomfield, Colorado 80021, USA | Coherent Deexcitation of Multi-Species Ion Crystals |
2 | 6 | Brandon Furey | Universität Innsbruck | Quantum state characterization and coherent control of molecular ions |
2 | 7 | Lukas Gerster | Institut für Experimentalphysik, Universität Innsbruck, Technikerstraße 25/4, 6020 Innsbruck, Austria | Experimental Bayesian Calibration of Trapped-Ion Entangling Operations |
2 | 8 | Isabella Goetting | Duke University | Pulsed excitation scheme for barium ion-photon entanglement generation |
2 | 9 | Noah Greenberg | University of Waterloo | Robust optical engineering and atomic source development for a Barium ion-based quantum simulator |
2 | 10 | Jane Gunnell | University of Washington | Building a Stylus trap and Deep Parabolic Mirror to Study and Control Quantum Jumps |
2 | 11 | H. Mendpara | Institut für Quantenoptik, Leibniz Universität Hannover, Welfengarten 1, 30167 Hannover, Germany | Towards fault-tolerant quantum computing with an universal set of microwave driven quantum gates with trapped ions |
2 | 12 | Zhubing Jia | Department of Physics, Duke University | Angle-robust Two-Qubit Gates in a Linear Ion Crystal |
2 | 13 | Mingyu Kang | Duke Quantum Center, Duke University, Durham, NC 27701, USA | Mitigating Experimental Imperfections with Frequency-Modulated Pulses for High-Fidelity Two-Qubit Gates in Ion Chains |
2 | 14 | Ezra Kassa | EQuIP Unit, Okinawa Institute of Science and Technology, Okinawa, Japan | Integration of an Optical Cavity with a linear Ion Trap |
2 | 15 | Eugene Knyazev | Department of Physics and Research Laboratory of Electronics, Massachusetts Institute of Technology, Cambridge, Massachusetts 02139, USA | Fifth-force Search with Isotope-Shift Spectroscopy in Yb+ |
2 | 16 | Woojun Lee | Dept. of Computer Science and Engineering, Automation and Systems Research Institute & Institute of Computer Technology, Seoul National University | Qubit control of Yb+ ions on surface chip with Raman lasers and measurement of electric field from chip silicon-laser collision |
2 | 18 | Brian J. McMahon | Georgia Tech Research Institute, Atlanta, GA 30332 | Optical Addressing of 2D Ion Arrays for Quantum Optimization in a Compact Penning Trap |
2 | 19 | Swapnil Patel | Duke University | Sympathetic Ground State Cooling of CaH+ |
2 | 20 | Andrew Risinger | University of Maryland, College Park | Logical Qubit RF Control System using RFSoC |
2 | 21 | Sagnik Saha | Duke University | Progress towards a three-node quantum network |
2 | 22 | Chung-you (Gilbert) Shih | Institute for Quantum Computing and Department of Physics and Astronomy, University of Waterloo | Progress towards building a scalable trapped-ion QIP device with ultralow crosstalk optical control |
2 | 23 | Ke Sun | Department of Physics, Duke University | Trapped-Ion Simulators for Molecular Dynamics |
2 | 24 | C. H. Valahu | School of Physics, University of Sydney, NSW 2006, Australia | Improving trapped ion camera detection with machine learning |
2 | 25 | Samuel Vizvary | University of California, Los Angeles | Fundamental Limits on Gate-Laser Scattering Errors in Barium-133 |
2 | 26 | Yuanheng Xie | Indiana University | Building a Mobile Trap setup for severe environment study |
2 | 27 | Yichao Yu | Duke Quantum Center, Duke University, Durham, NC 27701, USA | A next-generation trapped ion quantum computing system |
2 | 28 | Daiwei Zhu | IonQ | Risk Aggregation by Quantum Generative Modeling of Copulas |
2 | 29 | Norbert Linke | Joint Quantum Institute | Analog and digital quantum simulation of para-particle oscillators |
2 | 30 | Brendan Bramman | University of Waterloo | Metastable state shelving for Barium qudit measurement |
2 | 31 | Yves Colombe | Infineon Technologies | Industrially Microfabricated Ion Traps |
2 | 32 | Connor Goham | University of Maryland, College Park | Initial characterization of a direct-telecom single-photon source based on trapped Yb+ |
2 | 33 | Brian McFarland | Sandia National Laboratory | Electric field noise in microfabricated ion traps with varied capacitor types and trap materials |
2 | 35 | Bethan Nichol | Oxford University | An elementary quantum network of optical atomic clocks |
2 | 37 | David Reens | MIT Lincoln Lab | Fabrication and development of new traps, increasing accessibility |
2 | 38 | Lucas Sletten | Quantinuum, 303 S. Technology Ct., Broomfield, Colorado 80021, USA | High-fidelity state preparation and measurement of ion qubits with I>1/2 |
2 | 40 | Susanna Todaro | Massachusetts Institute of Technology | Barium ions for quantum information experiments with metastable qubits |
2 | 41 | Joshua Wilson | Sandia National Laboratory | Detecting and Minimizing RF Breakdown on Microfabricated Surface Ion Traps |
Best Poster Prizes
4 best poster prizes will be award, 2 per poster session. Each winner will be awarded $150.