This technique eliminates 50% of unwanted interference fringes in images, crucial for understanding the quantum mechanics properties of cold atoms.
- Traditional imaging techniques suffer from interference fringes, reducing result quality and accuracy in parameters like atom number and temperature.
- The new algorithm, detailed in a recent paper in Applied Optics, significantly reduces interference fringes and improves temperature uncertainty in cold Rubidium atoms by 50%.
- This technique holds promise for the widespread application of absorption imaging in the study of ultracold atoms
- An ultracold atom is an atom with a temperature close to absolute zero.
- At these temperatures, an atom’s quantum-mechanical properties become important.
- Ultracold gases are ensembles of atoms held at a temperature close to absolute zero.
- Such systems enable the creation of exotic phenomena such as Bose–Einstein condensation.