Advance Machine Learning | 10. Causality & Domain Adaptation by Abraham | Learn Smarter
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10. Causality & Domain Adaptation

Causality and Domain Adaptation are pivotal in machine learning by enabling models to comprehend underlying mechanisms beyond mere data patterns. Causality equips models to reason about 'why' events occur, ensuring fairness and robustness, while Domain Adaptation addresses real-world shifts by transferring knowledge across different contexts. Together, they enhance the reliability and interpretability of AI systems.

Sections

  • 10

    Causality & Domain Adaptation

    This section addresses the integration of causality into machine learning and discusses domain adaptation techniques, focusing on how models can generalize across different data distributions.

  • 10.1

    Understanding Causality In Machine Learning

    This section provides an overview of causality in machine learning, highlighting the key differences between correlation and causation, the use of causal graphs, and the principles of do-calculus.

  • 10.1.1

    What Is Causality?

    This section distinguishes between correlation and causation, explaining how causal relationships are fundamentally different from mere associations.

  • 10.1.2

    Causal Graphs And Dags

    Causal graphs, specifically Directed Acyclic Graphs (DAGs), are utilized to represent causal relationships among variables in a structured way.

  • 10.1.3

    The Do-Calculus

    The Do-Calculus introduces Pearl’s Do-Operator, distinguishing between interventions and observations to analyze causal effects.

  • 10.2

    Causal Inference Techniques

    Causal inference techniques, including RCTs and observational studies, are crucial for determining causal relationships in various contexts.

  • 10.2.1

    Randomized Controlled Trials (Rcts)

    Randomized Controlled Trials (RCTs) are considered the gold standard for establishing causal relationships by utilizing random assignment to mitigate confounding variables.

  • 10.2.2

    Observational Studies

    Observational studies are research methods where the investigator observes subjects without controlling the intervention.

  • 10.2.3

    Causal Discovery

    Causal discovery involves learning the causal structure from data using different techniques.

  • 10.3

    Applications Of Causal Learning In Ml

    Causal learning in machine learning has essential applications in detecting bias, enhancing decision-making, and improving explainability across various domains.

  • 10.4

    Introduction To Domain Adaptation

    Domain adaptation addresses the challenge of model performance when training and test data are drawn from different distributions.

  • 10.4.1

    What Is Domain Adaptation?

    Domain adaptation addresses the challenges in machine learning models when training and test data are drawn from different distributions.

  • 10.4.2

    Types Of Domain Adaptation

    This section categorizes domain adaptation into four main types based on the availability of labeled data.

  • 10.5

    Techniques For Domain Adaptation

    This section introduces techniques for domain adaptation to address the mismatch between training and testing domains in machine learning.

  • 10.5.1

    Instance Re-Weighting

    Instance re-weighting is a technique used in domain adaptation to correct for distribution mismatches between training and test datasets.

  • 10.5.2

    Feature Transformation

    Feature transformation techniques aim to create domain-invariant representations in machine learning.

  • 10.5.3

    Parameter Adaptation

    This section discusses parameter adaptation techniques in domain adaptation to improve model performance on new datasets.

  • 10.6

    Causality Meets Domain Adaptation

    This section discusses how causal mechanisms can provide invariant predictions across different domains, highlighting the interplay between causality and domain adaptation.

  • 10.6.1

    Why Causality Helps

    Causality helps identify stable relationships across varying domains, providing a robust foundation for machine learning models to generalize effectively.

  • 10.6.2

    Invariant Causal Prediction (Icp)

    Invariant Causal Prediction (ICP) focuses on learning predictors that remain effective across different environments.

  • 10.6.3

    Causal Domain Adaptation Methods

    Causal Domain Adaptation Methods explore how causal representations and counterfactual reasoning can enhance domain adaptation in machine learning.

  • 10.7

    Challenges And Future Directions

    This section discusses the key challenges faced in the integration of causality and domain adaptation and outlines potential future directions for research in these areas.

  • 10.7.1

    Key Challenges

    This section discusses the principal challenges in integrating causality with domain adaptation in machine learning, highlighting issues like identifiability of causal structure and data scarcity.

  • 10.7.2

    Future Directions

    In this section, we explore potential future directions for advancements in causal discovery and domain adaptation.

References

AML ch10.pdf

Class Notes

Memorization

What we have learnt

  • Causality distinguishes bet...
  • Domain adaptation is necess...
  • Causal mechanisms are gener...

Final Test

Revision Tests