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Entanglement is not only the resource that fuels many quantum technologiesbut also plays a key role for some of the most profound open questions offundamental physics. Experiments controlling quantum systems at the singlequantum level may shed light on these puzzles. However, measuring, or evenbounding, entanglement experimentally has proven to be an outstandingchallenge, especially when the prepared quantum states are mixed. We useentropic uncertainty relations for bipartite systems to derive measurable lowerbounds on distillable entanglement. We showcase these bounds by applying themto physical models realizable in cold-atom experiments. The derivedentanglement bounds rely on measurements in only two different bases and aregenerically applicable to any quantum simulation platform.

Experimentally accessible bounds on distillable entanglement from entropic uncertainty relations