Rydberg excitation blockade effects in strongly magnetized atom clouds
POSTER
Abstract
We present progress on work towards characterizing the Rydberg blockade mechanism within a strong magnetic field (B = 3T). Either permanent quadrupole moments or induced dipole moments could provide a strong interaction between neighboring Rydberg atoms, leading to a blockade. These interactions cause deviations of the spatial Rydberg atom distribution from random ordering that can be detected in a spatially-resolved read-out of Rydberg excitations. The high magnetic field setup offers several key advantages in realizing such a measurement: Diamagnetic Rydberg states are well suited for this research because they are non-degenerate and have large oscillator strengths for photo-excitation. Further, electron imaging in strong magnetic fields lends itself to straightforward realization of imaging with considerable magnification. In this poster, we will present experimental and theoretical progress on this project.
Authors
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E. Paradis
University of Michigan, FOCUS center
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C. Hempel
University of Michigan, FOCUS center, University of Michigan, Focus Center
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B. Knuffman
University of Michigan, FOCUS center, University of Michigan, Focus Center
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R. Mhaskar
University of Michigan, FOCUS center, University of Michigan, University of Michigan, Focus Center
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M. Shah
University of Michigan, FOCUS center
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G. Raithel
University of Michigan, FOCUS Center and Department of Physics, University of Michigan, University of Michigan, FOCUS center, University of Michigan, Focus Center