Bell's theorem proves that quantum theory is inconsistent with local physical models. It has
propelled research in the foundations of quantum theory and quantum information science …

In a Bell experiment, it is natural to seek a causal account of correlations wherein only a
common cause acts on the outcomes. For this causal structure, Bell inequality violations can …

Certifying quantum properties with minimal assumptions is a fundamental problem in
quantum information science. Self-testing is a method to infer the underlying physics of a …

Bell's theorem is typically understood as the proof that quantum theory is incompatible with
local-hidden-variable models. More generally, we can see the violation of a Bell inequality …

The network structure offers in principle the possibility for novel forms of quantum nonlocal
correlations, that are proper to networks and cannot be traced back to standard quantum …

Quantum networks are the center of many of the recent advances in quantum science, not
only leading to the discovery of new properties in the foundations of quantum theory but also …

Of late, there has been an upsurge of interest in studying the sequential sharing of various
forms of quantum correlations, viz., nonlocality, preparation contextuality, coherence, and …

Correlations in quantum networks with independent sources exhibit a completely novel form
of nonclassicality in the sense that the nonlocality of such correlations can be demonstrated …

Linear n-local networks are compatible with quantum-repeater-based entanglement
distribution protocols. Different sources of imperfections such as error in entanglement …

Network Bell experiments reveal a form of nonlocality conceptually different from standard
Bell nonlocality. Standard multiparty Bell experiments involve a single source shared by a …