We demonstrate the generation of highly adaptable and reproducible dark optical ring lattices, which do not require Laguerre-Gauss beams or interferometric stability. In conjunction with a magnetic trap, these scanned 2D intensity distributions will enable low-decoherence trapping and straightforward dynamic manipulation of ultracold species in annular geometries using low-intensity regions of blue-detuned light. The technique is ideal for azimuthal ratchet, Mott insulator and persistent current experiments with quantum degenerate gases
New counter propagating geometries are presented for localizing ultracold atoms in the dark regions ...
New counter propagating geometries are presented for localizing ultracold atoms in the dark regions ...
New counter propagating geometries are presented for localizing ultracold atoms in the dark regions ...
We demonstrate the generation of highly adaptable and reproducible dark optical ring lattices, which...
We demonstrate the generation of highly adaptable and reproducible dark optical ring lattices, which...
We propose a versatile optical ring lattice suitable for trapping cold and quantum degenerate atomic...
We propose a versatile optical ring lattice suitable for trapping cold and quantum degenerate atomic...
New counter propagating geometries are presented for localizing ultracold atoms in the dark regions ...
We propose a versatile optical ring lattice suitable for trapping cold and quantum degenerate atomic...
We propose a versatile optical ring lattice suitable for trapping cold and quantum degenerate atomic...
4 pages, submitted to PRAInternational audienceWe propose a new geometry of optical lattice for cold...
We propose a versatile optical ring lattice suitable for trapping cold and quantum degenerate atomic...
We propose a versatile optical ring lattice suitable for trapping cold and quantum degenerate atomic...
We propose a versatile optical ring lattice suitable for trapping cold and quantum degenerate atomic...
We propose a new geometry of optical lattice for cold atoms, namely a lattice made of a 1D stack of ...
New counter propagating geometries are presented for localizing ultracold atoms in the dark regions ...
New counter propagating geometries are presented for localizing ultracold atoms in the dark regions ...
New counter propagating geometries are presented for localizing ultracold atoms in the dark regions ...
We demonstrate the generation of highly adaptable and reproducible dark optical ring lattices, which...
We demonstrate the generation of highly adaptable and reproducible dark optical ring lattices, which...
We propose a versatile optical ring lattice suitable for trapping cold and quantum degenerate atomic...
We propose a versatile optical ring lattice suitable for trapping cold and quantum degenerate atomic...
New counter propagating geometries are presented for localizing ultracold atoms in the dark regions ...
We propose a versatile optical ring lattice suitable for trapping cold and quantum degenerate atomic...
We propose a versatile optical ring lattice suitable for trapping cold and quantum degenerate atomic...
4 pages, submitted to PRAInternational audienceWe propose a new geometry of optical lattice for cold...
We propose a versatile optical ring lattice suitable for trapping cold and quantum degenerate atomic...
We propose a versatile optical ring lattice suitable for trapping cold and quantum degenerate atomic...
We propose a versatile optical ring lattice suitable for trapping cold and quantum degenerate atomic...
We propose a new geometry of optical lattice for cold atoms, namely a lattice made of a 1D stack of ...
New counter propagating geometries are presented for localizing ultracold atoms in the dark regions ...
New counter propagating geometries are presented for localizing ultracold atoms in the dark regions ...
New counter propagating geometries are presented for localizing ultracold atoms in the dark regions ...