Sort by Date
Sort by Title
Standard Format
Show Abstracts
As Citations (APA)
Skip to search filters
Maunz, Peter L. ; Lobser, Daniel L. ; Haltli, Raymond A. ; Hogle, Craig W. ; Hollowell, Andrew E. ; Revelle, Melissa R. ; Stick, Daniel L. ; Yale, Christopher G. ; Blain, Matthew G.
Maunz, Peter L. ; Blain, Matthew G. ; Lobser, Daniel L. ; Revelle, Melissa R. ; Yale, Christopher G. ; Haltli, Raymond A. ; Hogle, Craig W. ; Hollowell, Andrew E. ; Stick, Daniel L.
Revelle, Melissa R. ; Blain, Matthew G. ; Haltli, Raymond A. ; Hogle, Craig W. ; Hollowell, Andrew E. ; Lobser, Daniel L. ; Nordquist, Christopher N. ; Rembetski, John F. ; Resnick, Paul J. ; Yale, Christopher G. ; Maunz, Peter L.
Lobser, Daniel L. ; Blain, Matthew G. ; Hogle, Craig W. ; Revelle, Melissa R. ; Stick, Daniel L. ; Yale, Christopher G. ; Maunz, Peter L.
Blain, Matthew G. ; Haltli, Raymond A. ; Hogle, Craig W. ; Hollowell, Andrew E. ; Nordquist, Christopher N. ; Lepkowski, Stefan M. ; Lobser, Daniel L. ; Yale, Christopher G. ; Maunz, Peter L.
Lobser, Daniel L. ; Blain, Matthew G. ; Haltli, Raymond A. ; Hogle, Craig W. ; Hollowell, Andrew E. ; Revelle, Melissa R. ; Stick, Daniel L. ; Yale, Christopher G. ; Maunz, Peter L.
Revelle, Melissa R. ; Blain, Matthew G. ; Haltli, Raymond A. ; Hogle, Craig W. ; Hollowell, Andrew E. ; Lobser, Daniel L. ; Nordquist, Christopher N. ; Rembetski, John F. ; Resnick, Paul J. ; Yale, Christopher G. ; Maunz, Peter L.
Hogle, Craig W. ; Blain, Matthew G. ; Hollowell, Andrew E. ; Lobser, Daniel L. ; Revelle, Melissa R. ; Yale, Christopher G. ; Haltli, Raymond A. ; Maunz, Peter L. ; Leibfried, Dietrich L.; Todaro, Susanna T.; McCormick, Katherine M.; Slichter, Daniel S.; wilson, andrew w.; Wineland, David W.
Maunz, Peter L.
Maunz, Peter L.
Maunz, Peter L.
Qubits can be encoded in clock states of trapped ions. These states are well isolated from the environment resulting in long coherence times [1] while enabling efficient high-fidelity qubit interactions mediated by the Coulomb coupled motion of the ions in the trap. Quantum states can be prepared with high fidelity and measured efficiently using fluorescence detection. State preparation and detection with 99.93% fidelity have been realized in multiple systems [1,2]. Single qubit gates have been demonstrated below rigorous fault-tolerance thresholds [1,3]. Two qubit gates have been realized with more than 99.9% fidelity [4,5]. Quantum algorithms have been demonstrated on systems of 5 to 15 qubits [6–8].
Maunz, Peter L.
Rudinger, Kenneth M. ; Kimmel, Shelby H.; Lobser, Daniel L. ; Maunz, Peter L.
Maunz, Peter L. ; Haltli, Raymond A. ; Hollowell, Andrew E. ; Lepkowski, Stefan M. ; Lobser, Daniel L. ; Nordquist, Christopher N. ; Rembetski, John F. ; Revelle, Melissa R. ; Yale, Christopher G. ; Blain, Matthew G.
Lobser, Daniel L. ; Blain, Matthew G. ; Haltli, Raymond A. ; Hogle, Craig W. ; Hollowell, Andrew E. ; Revelle, Melissa R. ; Stick, Daniel L. ; Yale, Christopher G. ; Maunz, Peter L.
Rudinger, Kenneth M. ; Kimmel, Shelby H.; Lobser, Daniel L. ; Maunz, Peter L.
Maunz, Peter L.
Maunz, Peter L.
Maunz, Peter L.
Maunz, Peter L.
Maunz, Peter L.
Maunz, Peter L.
Maunz, Peter L. ; Lobser, Daniel L. ; Blume-Kohout, Robin J. ; Fortier, Kevin M. ; Mizrahi, Jonathan M.; Nielsen, Erik N. ; Rudinger, Kenneth M. ; Stick, Daniel L. ; Blain, Matthew G.
Lobser, Daniel L. ; Blain, Matthew G. ; Fortier, Kevin M. ; Haltli, Raymond A. ; Hollowell, Andrew E. ; Mizrahi, Jonathan M.; Sterk, Jonathan D. ; Maunz, Peter L.
Lobser, Daniel L. ; Blain, Matthew G. ; Fortier, Kevin M. ; Haltli, Raymond A. ; Hollowell, Andrew E. ; Mizrahi, Jonathan M.; Sterk, Jonathan D. ; Maunz, Peter L.
Results 26–50 of 96
25 Results per page
50 Results per page
100 Results per page
200 Results per page