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 identifying causal mechanism shift


iSCAN: Identifying Causal Mechanism Shifts among Nonlinear Additive Noise Models

Neural Information Processing Systems

Structural causal models (SCMs) are widely used in various disciplines to represent causal relationships among variables in complex systems.Unfortunately, the underlying causal structure is often unknown, and estimating it from data remains a challenging task. In many situations, however, the end goal is to localize the changes (shifts) in the causal mechanisms between related datasets instead of learning the full causal structure of the individual datasets. Some applications include root cause analysis, analyzing gene regulatory network structure changes between healthy and cancerous individuals, or explaining distribution shifts.


iSCAN: Identifying Causal Mechanism Shifts among Nonlinear Additive Noise Models

Neural Information Processing Systems

Structural causal models (SCMs) are widely used in various disciplines to represent causal relationships among variables in complex systems.Unfortunately, the underlying causal structure is often unknown, and estimating it from data remains a challenging task. In many situations, however, the end goal is to localize the changes (shifts) in the causal mechanisms between related datasets instead of learning the full causal structure of the individual datasets. Some applications include root cause analysis, analyzing gene regulatory network structure changes between healthy and cancerous individuals, or explaining distribution shifts.


iSCAN: Identifying Causal Mechanism Shifts among Nonlinear Additive Noise Models

Neural Information Processing Systems

Structural causal models (SCMs) are widely used in various disciplines to represent causal relationships among variables in complex systems.Unfortunately, the underlying causal structure is often unknown, and estimating it from data remains a challenging task. In many situations, however, the end goal is to localize the changes (shifts) in the causal mechanisms between related datasets instead of learning the full causal structure of the individual datasets. Some applications include root cause analysis, analyzing gene regulatory network structure changes between healthy and cancerous individuals, or explaining distribution shifts.