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CausAI B.V.

In this course, you'll learn the foundational components of Causal Artificial Intelligence (Causal AI).

More and more people are starting to realise that correlation-focused models are not enough to answer our most important business questions. Business decision-making is all about understanding the effect different decisions have on outcomes, and choosing the best option. We can't understand the effect decisions have on outcomes with just correlations; we must understand cause and effect.

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In this course, you'll learn the foundational components of Causal Artificial Intelligence (Causal AI).

More and more people are starting to realise that correlation-focused models are not enough to answer our most important business questions. Business decision-making is all about understanding the effect different decisions have on outcomes, and choosing the best option. We can't understand the effect decisions have on outcomes with just correlations; we must understand cause and effect.

Unfortunately, there is a huge gap of knowledge in causal techniques among people working in the data & statistics industry. This means that causal problems are often approached with correlation-focused models, which results in sub-optimal or even poor solutions.

In recent years, the field of Causality has evolved significantly, particularly due to the work of Judea Pearl. Judea Pearl has created a framework that provides clear and general methods we can use to understand causality and estimate causal effects using observational data. Combining his work with advances in AI has given rise to the field of Causal Artificial Intelligence.

Causal AI is all about using AI models to estimate causal effects (using observational data). Generally, businesses rely only on experimentation methods like Randomized Controlled Trials (RCTs) and A/B tests to determine causal effects. Causal AI now adds to this by offering tools to estimate causal effects using observational data, which is more commonly available in business settings. This is particularly valuable when experimentation is not feasible or practical, making it a powerful tool for businesses looking to use their existing data for decision-making.

This course is designed to bridge the knowledge gap in causal techniques for individuals interested in data and statistics. You will learn the foundational components of Causal AI, with a specific focus on the Pearlian Framework. Key concepts covered include The Ladder of Causation, Causal Graphs, Do-calculus, and Structural Causal Models. Additionally, the course will go into various estimation techniques, incorporating both machine learning and propensity score-based estimators. Last, you'll learn about methods we can use to obtain Causal Graphs, a process called Causal Discovery.

By the end of this course, you'll be fully equipped with all tools needed to estimate average causal effects using observational data. 

We believe that everyone working in the data and statistics field should understand causality and be equipped with causal techniques. By educating yourself early in this area, you will set yourself apart from others in the field. If you have a basic understanding of probability and statistics and are interested in learning about Causal AI, this course is perfect for you.

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What's inside

Learning objectives

  • What causality is
  • The relationship between causation and association
  • Why rct's are the golden standard for causal inference
  • Main components of pearlian framework for causality: ladder of causation, causal graphs, do-calculus, structural causal models
  • Machine learning & propensity score-based causal effect estimators
  • Causal discovery (algorithms)
  • How to estimate average causal effects using observational data (covering the entire end-to-end process)

Syllabus

What causation is, how it relates to association, and why causality is necessary. Additionally, understand what RCT's are and why they are the golden standard for Causal Inference.
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This exam will test you understanding of the most important concepts of Section 1. All questions are multiple choice and only one answer is correct per question. Good luck! 

This exam will test you understanding of the most important concepts of Section 2. All questions are multiple choice and only one answer is correct per question. Good luck! 

This exam will test you understanding of the most important concepts of Section 3. All questions are multiple choice and only one answer is correct per question. Good luck! 

This exam will test you understanding of the most important concepts of Section 4. All questions are multiple choice and only one answer is correct per question. Good luck! 

This exam will test you understanding of the most important concepts of Section 5. All questions are multiple choice and only one answer is correct per question. Good luck! 

This exam will test you understanding of the most important concepts of Section 6. All questions are multiple choice and only one answer is correct per question. Good luck! 

Traffic lights

Read about what's good
what should give you pause
and possible dealbreakers
Focuses on the Pearlian Framework, which provides clear methods to understand causality and estimate causal effects using observational data
Explores causal discovery algorithms, which can be used to generate causal graphs from data and expert knowledge
Covers machine learning and propensity score-based estimators, which are essential tools for causal effect estimation
Requires a basic understanding of probability and statistics, which may exclude learners without a quantitative background
Examines the positivity/unconfoundedness trade-off, which is a key consideration in causal inference
Teaches do-calculus, which is a mathematical framework for reasoning about interventions and causal effects

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Reviews summary

Foundational causal ai with pearl's framework

According to learners, this course provides a positive, deep dive into the foundational components of Causal AI, particularly focusing on Judea Pearl's framework. Many found the lectures and explanations to be clear and insightful, covering essential concepts like Causal DAGs, Do-calculus, and estimators effectively. However, a significant number of reviewers note that the course is quite theoretical and challenging, strongly recommending a solid background in statistics, probability, and potentially machine learning as a prerequisite. While praised for its depth in theory, some wished for more practical hands-on examples or coding exercises.
Complex ideas explained clearly by instructor.
"The lectures are clear, building complexity step by step. Found the sections on Do-calculus and DAGs particularly insightful."
"The instructor explains complex ideas clearly. The structure is logical."
"I found the explanations of complex topics like d-separation and backdoor criterion particularly easy to follow."
"The concepts, although advanced, were broken down effectively in the video lessons."
Provides a deep dive into core causal theory.
"Excellent deep dive into the Pearlian framework. The lectures are clear, building complexity step by step."
"Fantastic course! Bridge the gap between ML and causality effectively. The structure is logical."
"Good introduction, covers the key concepts well. The theory is solid."
"This course helped solidify my understanding of the fundamental principles of causal inference using DAGs."
Focus is theoretical, less hands-on.
"The course is okay, but very theoretical. It's hard to see the practical application without more code or case studies."
"Would have liked a bit more hands-on coding examples throughout, but the theory is solid."
"While the theory is excellent, I was hoping for more practical coding assignments to reinforce learning."
"It felt a bit disconnected from real-world implementation without more practical demonstrations."
Material can be difficult and fast-paced.
"Some parts were quite dense, especially the math. The exams were fair but challenging."
"The lectures move too fast through complex material. Felt lost after the first few sections."
"The material is challenging, requiring significant time investment outside of lectures to fully grasp."
"I found certain modules to be very dense and difficult to process without re-watching multiple times."
Demanding course requiring solid stats/math.
"Requires a solid stats/prob background, as stated. Highly recommend for anyone serious..."
"Too difficult. The lectures move too fast through complex material. Prerequisites weren't emphasized enough."
"Assumes more math background than I had. Found myself struggling in the later sections."
"Not for beginners or those without a strong grasp of probability and statistics."

Activities

Be better prepared before your course. Deepen your understanding during and after it. Supplement your coursework and achieve mastery of the topics covered in Causal AI: An Extensive Introduction with these activities:
Review 'Causal Inference: What If'
Solidify your understanding of causal inference by studying a foundational text.
View Causal Inference on Amazon
Show steps
  • Obtain a copy of 'Causal Inference: What If'.
  • Read the chapters relevant to the course syllabus.
  • Work through the examples and exercises in the book.
Review Probability and Statistics Fundamentals
Strengthen your understanding of probability and statistics, which are essential for grasping causal inference concepts.
Browse courses on Conditional Probability
Show steps
  • Review key concepts in probability and statistics.
  • Work through practice problems to reinforce understanding.
  • Identify areas where you need further review.
Implement a Causal Inference Technique on a Real-World Dataset
Apply your knowledge of causal inference by implementing a technique on a real-world dataset.
Show steps
  • Formulate a causal question you want to answer.
  • Select a real-world dataset with potential causal relationships.
  • Implement a causal inference technique learned in the course.
  • Interpret the results and draw conclusions.
Four other activities
Expand to see all activities and additional details
Show all seven activities
Write a Blog Post Explaining Simpson's Paradox
Deepen your understanding of Simpson's Paradox by explaining it in a blog post.
Show steps
  • Research Simpson's Paradox and its implications.
  • Write a clear and concise explanation of the paradox.
  • Provide examples to illustrate the paradox.
  • Publish the blog post on a platform like Medium or your personal website.
Practice Identifying Backdoor Paths in Causal DAGs
Improve your ability to identify backdoor paths in causal DAGs through practice exercises.
Show steps
  • Find causal DAG examples online or in textbooks.
  • Identify all backdoor paths for a given causal effect.
  • Verify your answers with solutions or explanations.
Review 'Elements of Causal Inference'
Expand your knowledge of causal inference by studying a mathematically rigorous text.
Show steps
  • Obtain a copy of 'Elements of Causal Inference'.
  • Focus on chapters related to causal discovery and identifiability.
  • Work through the mathematical derivations and proofs.
Contribute to a Causal Inference Library
Deepen your understanding of causal inference by contributing to an open-source library.
Show steps
  • Identify an open-source causal inference library (e.g., DoWhy, CausalML).
  • Explore the library's codebase and documentation.
  • Contribute by fixing bugs, adding new features, or improving documentation.

Career center

Learners who complete Causal AI: An Extensive Introduction will develop knowledge and skills that may be useful to these careers:
Causal Inference Specialist
A Causal Inference Specialist focuses specifically on identifying and quantifying causal relationships in data, often consulting across various departments or organizations. This course provides a comprehensive introduction to Causal Artificial Intelligence, equipping you with the tools to excel in this specialized role. The course covers the Pearlian Framework, Causal Graphs, Do-calculus, and various estimation techniques, providing a solid foundation for causal analysis. Furthermore, the course's focus on causal discovery will help you identify causal structures from observational data, a critical skill for any causal inference specialist.
Data Scientist
As a Data Scientist, you will explore complex datasets to extract actionable insights and develop predictive models. This course will enhance your ability to go beyond mere correlations and delve into causal relationships, a critical skill for making informed business recommendations. With its focus on the Pearlian Framework, the Ladder of Causation, and Causal Graphs, this course helps you build a foundation in Causal Artificial Intelligence. You can use the techniques learned in the course to estimate causal effects from observational data, particularly when experimental methods are not feasible. You can also leverage your new skills in causal discovery to build more reliable and robust models, setting you apart in the data science field.
Machine Learning Engineer
Machine Learning Engineers build and deploy machine learning models, and understanding the underlying causal relationships is crucial for creating robust and reliable systems. This course provides an introduction to Causal Artificial Intelligence, focusing on using machine learning techniques to estimate causal effects. The course's coverage of Structural Causal Models and various estimation techniques, including machine learning based and propensity score based estimators, may give you the skills to develop models that can make better predictions and decisions. The exploration of Causal Discovery will further help in building models that are less prone to biases and confounding factors.
Decision Scientist
Decision Scientists apply data analysis and causal inference to improve decision-making processes within organizations. This course may be especially beneficial, as it focuses on the foundational components of Causal Artificial Intelligence, which is directly relevant to the core responsibilities of a decision scientist. You can learn about the Pearlian Framework, Causal Graphs, and Do-calculus, which are essential for understanding and quantifying causal effects. This knowledge may lead to better informed and more effective business decisions.
Research Scientist
Research Scientists design and conduct experiments and analyze data to advance scientific knowledge. Often, they require a doctoral degree. This course will provide you with the necessary tools to conduct more rigorous and impactful research. With its comprehensive coverage of the Pearlian Framework, the Ladder of Causation, and Causal Graphs, the course can help you understand and address confounding factors in your research designs. You can also leverage the estimation techniques taught in the course to quantify causal effects, ensuring that your research findings are both reliable and valid.
Marketing Analyst
Marketing Analysts measure and analyze the performance of marketing campaigns to optimize strategies and maximize return on investment. This course may enhance a marketing analyst's ability to determine the true impact of marketing efforts. With its focus on Causal Artificial Intelligence and the Pearlian Framework, the course helps you distinguish between correlation and causation, which is critical for accurate marketing analysis. By learning about Causal Graphs and Do-calculus, you can better understand how different marketing interventions causally affect consumer behavior and sales outcomes. You can then use this knowledge to develop more effective and targeted marketing strategies.
Econometrician
Econometricians use statistical methods to analyze economic data and test economic theories. This course may provide you with a solid foundation in causal inference, which is central to modern econometrics. The course introduces the Pearlian Framework, Causal Graphs, and Do-calculus, covering essential tools for identifying and estimating causal effects. By learning these techniques, you can strengthen your ability to analyze economic phenomena and provide more reliable policy recommendations. The course's emphasis on causal discovery is also highly relevant for building robust economic models.
Statistician
Statisticians collect, analyze, and interpret quantitative data to inform decision-making. This course may enhance your ability to discern causal relationships within complex datasets. With its comprehensive coverage of the Pearlian Framework, the Ladder of Causation, and Causal Graphs, the course helps statisticians develop a deeper understanding of the data they analyze. You can use the estimation techniques taught in the course to quantify causal effects, which is crucial for making accurate predictions and informed recommendations. The course's focus on causal discovery can also help build more reliable statistical models.
Business Intelligence Analyst
As a Business Intelligence Analyst, you transform data into actionable insights to guide strategic decisions. This course may enhance your analytical capabilities by introducing you to causal inference techniques. The course emphasizes the distinction between correlation and causation, a critical concept for accurate business analysis. Through learning about the Ladder of Causation and Causal Graphs, you can develop a deeper understanding of the relationships within business data. You can use these techniques to identify causal effects and provide more effective recommendations, especially when dealing with complex observational data.
Policy Analyst
Policy Analysts research and analyze policies and programs to assess their effectiveness and impact. This course may strengthen your ability to evaluate the causal effects of policy interventions. With its introduction to the Pearlian Framework, the Ladder of Causation, and Causal Graphs, the course helps you develop a rigorous approach to policy analysis. You can learn to use the estimation techniques covered in the course to quantify the causal impact of policies, even when experimental data is limited. This skill is invaluable for making evidence-based policy recommendations and improving policy outcomes.
Risk Analyst
Risk Analysts identify and assess potential risks for organizations and develop strategies to mitigate them. This course may enhance your analytical capabilities by introducing you to causal inference techniques. The course emphasizes the distinction between correlation and causation, a critical concept for accurate risk assessment. Through learning about the Ladder of Causation and Causal Graphs, you may develop a deeper understanding of the relationships within business data. You can use these techniques to identify causal effects and provide more effective recommendations, especially when dealing with complex observational data.
Data Analyst
Data Analysts interpret data, analyze results using statistical techniques, and provide ongoing reports. This course, with its focus on causal inference, may improve your ability to provide more meaningful insights. By understanding causal relationships, you can move beyond identifying correlations and start uncovering the underlying drivers of business outcomes. The course covers key concepts such as the Ladder of Causation and Causal Graphs. You can also leverage the course's teachings on estimation techniques to quantify causal effects, which can be invaluable for making data-driven recommendations.
Quantitative Analyst
Quantitative Analysts, often working in the finance industry, develop and implement complex models for pricing, risk management, and trading strategies. This course may provide you with the tools to incorporate causal reasoning into these models. The course covers key concepts like Structural Causal Models and Do-calculus, which are essential for understanding and mitigating biases in financial data. This course can help you build more robust and reliable quantitative models, particularly when dealing with observational data where experimentation is limited.
Bioinformatician
Bioinformaticians analyze biological data using computational tools and statistical methods to understand complex biological processes. This course may enhance your ability to uncover causal relationships within biological systems. With its coverage of the Pearlian Framework and Causal Graphs, the course helps you develop a structured approach to causal inference. You can employ the estimation techniques taught in the course to quantify causal effects, particularly when dealing with observational data from biological studies. The course's focus on causal discovery can also assist in building more accurate models of biological networks and regulatory processes.
AI Ethicist
AI Ethicists address the ethical implications of artificial intelligence technologies, including issues of bias, fairness, and transparency. This course may provide you with a valuable perspective on the causal effects of AI systems and algorithms. By learning about Causal Artificial Intelligence, you can better understand how AI decisions impact individuals and society. The course's coverage of Causal Graphs and Do-calculus can help you identify and mitigate potential sources of bias in AI systems. This deeper understanding of causality is essential for promoting responsible and ethical AI development and deployment.

Reading list

We've selected two books that we think will supplement your learning. Use these to develop background knowledge, enrich your coursework, and gain a deeper understanding of the topics covered in Causal AI: An Extensive Introduction.
Provides a comprehensive and rigorous treatment of causal inference, covering potential outcomes, causal diagrams, and estimation methods. It valuable resource for those interested in a deep understanding of the theoretical foundations of causal inference. This book is often used as a textbook in advanced courses.
Provides a rigorous introduction to causal inference, covering both theoretical foundations and practical algorithms. It discusses causal discovery methods, causal effect estimation, and the challenges of causal inference in complex systems. It valuable resource for those interested in the mathematical and computational aspects of causality. This book adds more depth to the causal discovery portion of the course.

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