High-resolution in situ imaging and manipulation of ultracold fermionic atoms in optical lattices are achieved experimentally for ${}^{40}$ K with single-atom sensitivity. The tomographic imaging technique provides a promising tool to explore the physics of intriguing quantum many-body quantum phenomena in fermionic systems, such as unconventional superfluidity, transport and nonequilibrium dynamics, and the formation of magnetic domains.High-resolution in situ imaging and manipulation of ultracold fermionic atoms in optical lattices are achieved experimentally for ${}^{40}$K with single-atom sensitivity. The tomographic imaging technique provides a promising tool to explore the physics of intriguing quantum many-body quantum phenomena in fermionic systems, such as unconventional superfluidity, transport and nonequilibrium dynamics, and the formation of magnetic domains.

arXiv:1510.04744Physical Review ADec 8, 2015179 citations

Mixtures of fermionic atoms in an optical lattice

K. Ziegler

arXiv:cond-mat/0611010Nuclear Physics AJun 1, 200710 citations

High-resolution in situ imaging and manipulation of ultracold fermionic atoms in optical lattices are achieved experimentally for

{}^{40}

K with single-atom sensitivity. The tomographic imaging technique provides a promising tool to explore the physics of intriguing quantum many-body quantum phenomena in fermionic systems, such as unconventional superfluidity, transport and nonequilibrium dynamics, and the formation of magnetic domains.