We demonstrate the use of an optical frequency comb to coherently control and entangle atomic qubits. A train of off-resonant ultrafast laser pulses is used to efficiently and coherently transfer population between electronic and vibrational states of trapped atomic ions and implement an entangling quantum logic gate with high fidelity. This technique can be extended to the high field regime where operations can be performed faster than the trap frequency. This general approach can be applied to more complex quantum systems, such as large collections of interacting atoms or molecules
Quantum bits (qubits) based on individual trapped atomic ions are a promising technology for buildin...
We introduce a fully coherent way for directed transport of localized atoms in optical lattices by r...
Quantum trapping and shuffling Programmable arrays of atoms or ions trapped...
The scaling of controlled quantum systems to large numbers of degrees of freedom is one of the long ...
Pulsed lasers offer significant advantages over continuous wave (CW) lasers in the coherent control ...
Optical manipulation of entanglement harnessing the frequency degree of freedom is important for enc...
We experimentally demonstrate time-frequency entangled photons with comb-like spectra via both bulk ...
Optical manipulation of entanglement harnessing the frequency degree of freedom is important for enc...
The coherent interaction between a laser-driven single trapped atom and an optical high-finesse cavi...
Trapped atomic ions are a promising medium for quantum computing, due to their long coherence times ...
We show that a single, trapped, laser-driven atom in a high-finesse optical cavity allows for the qu...
We present a method for the generation and coherent manipulation of pulsed quantum frequency combs. ...
The ability to generate optical frequency combs in which the output light is made up of millions of ...
Building a quantum computer is one of the outstanding contemporary goals in physics. Trapped-ion qub...
Quantum information processing combines information theory with laws of quantum mechanics to provide...
Quantum bits (qubits) based on individual trapped atomic ions are a promising technology for buildin...
We introduce a fully coherent way for directed transport of localized atoms in optical lattices by r...
Quantum trapping and shuffling Programmable arrays of atoms or ions trapped...
The scaling of controlled quantum systems to large numbers of degrees of freedom is one of the long ...
Pulsed lasers offer significant advantages over continuous wave (CW) lasers in the coherent control ...
Optical manipulation of entanglement harnessing the frequency degree of freedom is important for enc...
We experimentally demonstrate time-frequency entangled photons with comb-like spectra via both bulk ...
Optical manipulation of entanglement harnessing the frequency degree of freedom is important for enc...
The coherent interaction between a laser-driven single trapped atom and an optical high-finesse cavi...
Trapped atomic ions are a promising medium for quantum computing, due to their long coherence times ...
We show that a single, trapped, laser-driven atom in a high-finesse optical cavity allows for the qu...
We present a method for the generation and coherent manipulation of pulsed quantum frequency combs. ...
The ability to generate optical frequency combs in which the output light is made up of millions of ...
Building a quantum computer is one of the outstanding contemporary goals in physics. Trapped-ion qub...
Quantum information processing combines information theory with laws of quantum mechanics to provide...
Quantum bits (qubits) based on individual trapped atomic ions are a promising technology for buildin...
We introduce a fully coherent way for directed transport of localized atoms in optical lattices by r...
Quantum trapping and shuffling Programmable arrays of atoms or ions trapped...