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91探花
Atomic and Laser Physics
Credit: Jack Hobhouse

Dr Jacob Blackmore

EPSRC Fellow

Research theme

  • Quantum information and computation
  • Quantum optics & ultra-cold matter

Sub department

  • Atomic and Laser Physics

Research groups

  • Ion trap quantum computing
jacob.blackmore@physics.ox.ac.uk
  • About
  • Publications

Coherent manipulation of the internal state of ultracold 87 Rb 133 Cs molecules with multiple microwave fields

Physical Chemistry Chemical Physics Royal Society of Chemistry (RSC) 22:47 (2020) 27529-27538

Authors:

Jacob A Blackmore, Philip D Gregory, Sarah L Bromley, Simon L Cornish

Controlling the ac Stark effect of RbCs with dc electric and magnetic fields

Physical Review A American Physical Society (APS) 102:5 (2020) 053316

Authors:

Jacob A Blackmore, Rahul Sawant, Philip D Gregory, Sarah L Bromley, Jes煤s Aldegunde, Jeremy M Hutson, Simon L Cornish

Loss of Ultracold Rb87Cs133 Molecules via Optical Excitation of Long-Lived Two-Body Collision Complexes

Physical Review Letters American Physical Society (APS) 124:16 (2020) 163402

Authors:

Philip D Gregory, Jacob A Blackmore, Sarah L Bromley, Simon L Cornish

Ultracold polar molecules as qudits

New Journal of Physics IOP Publishing 22:1 (2020) 013027

Authors:

JORDI MUR PETIT, Rahul Sawant, Jacob A Blackmore, Philip D Gregory, Jeremy M Hutson, Dieter Jaksch, Jes煤s Aldegunde, MR Tarbutt, Simon L Cornish

Abstract:

We discuss how the internal structure of ultracold molecules, trapped in the motional ground state of optical tweezers, can be used to implement qudits. We explore the rotational, fine and hyperfine structure of 40Ca19F and 87Rb133Cs, which are examples of molecules with 2危 and 1危 electronic ground states, respectively. In each case we identify a subset of levels within a single rotational manifold suitable to implement a four-level qudit. Quantum gates can be implemented using two-photon microwave transitions via levels in a neighboring rotational manifold. We discuss limitations to the usefulness of molecular qudits, arising from off-resonant excitation and decoherence. As an example, we present a protocol for using a molecular qudit of dimension d = 4 to perform the Deutsch algorithm.

Ultracold polar molecules as qudits

(2019)

Authors:

Rahul Sawant, Jacob A Blackmore, Philip D Gregory, Jordi Mur-Petit, Dieter Jaksch, Jes煤s Aldegunde, Jeremy M Hutson, MR Tarbutt, Simon L Cornish

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