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Prof. Dr. Bastian Leibe and Christian Schmidt M.Sc.

"Basics of Machine Learning" is designed to provide participants with a comprehensive understanding of the fundamental concepts and tools of machine learning. The course covers key topics such as probability density estimation, linear regression, classification techniques like linear discriminants, logistic regression, and support vector machines, as well as ensemble methods such as bagging and boosting. Additionally, the course introduces the basics of deep neural networks, laying the groundwork for more advanced learning techniques.

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"Basics of Machine Learning" is designed to provide participants with a comprehensive understanding of the fundamental concepts and tools of machine learning. The course covers key topics such as probability density estimation, linear regression, classification techniques like linear discriminants, logistic regression, and support vector machines, as well as ensemble methods such as bagging and boosting. Additionally, the course introduces the basics of deep neural networks, laying the groundwork for more advanced learning techniques.

Throughout the course, students will gain a solid foundation in the fundamental approaches of machine learning. By working on practical exercises, participants will cement their understanding of the techniques covered and gain valuable hands-on experience.

By the end of the course, students will have the knowledge and skills required to confidently utilize machine learning tools and techniques in their own projects, providing a strong foundation for further study or professional development in this rapidly evolving field.

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What's inside

Learning objectives

  • Definition of statistical machine learning
  • Probability density estimation
  • Definition and behavior of linear discriminant models
  • Linear regression
  • Logistic regression
  • Support vector machines
  • Ensemble methods
  • Basics of neural networks

Syllabus

Week 1: Introduction, Definitions, and Core Principles
In the first week, we will provide an overview of the course and introduce the fundamental concepts of machine learning. Students will learn about the different types of learning, such as supervised, unsupervised, and reinforcement learning, as well as the key steps involved in developing a machine learning model, from data preprocessing to model evaluation and optimization.
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Week 2: Probability Density Estimation
In week two, students will delve into probability density estimation, an essential technique for understanding the underlying structure of data. We will cover various methods, such as parametric and non-parametric approaches, and how they can be used for building machine learning models.
Week 3: Linear Discriminants
During the third week, we will focus on linear discriminants and their use in classifying data points. Students will learn about the concept of decision boundaries and how to derive them using linear discriminant functions. We will also discuss how to solve decision problems by minimizing a least-squares objective, the limitations of the resulting linear classifiers, and introduce strategies for handling non-linearly separable data.
Week 4: Linear Regression
In week four, students will be introduced to linear regression, a fundamental technique for modeling continuous data. We will cover the basics of simple and multiple linear regression, discuss the concept of least squares estimation, and explore regularization as a measure against overfitting.
Week 5: Logistic Regression
The fifth week will be dedicated to logistic regression, a powerful technique for binary classification tasks. Students will learn how to derive the logistic regression model, perform iterative optimization using first- and second-order methods, apply regularization, and explore the relations between generative and discriminative methods.
Week 6: Support Vector Machines
In week six, we will explore support vector machines (SVMs), a versatile and very robust algorithm for classification tasks. Students will learn about the key concepts behind SVMs, such as maximum margin and kernel functions, and gain hands-on experience implementing SVMs using popular machine learning libraries.
Week 7: Ensembling Methods
During the seventh week, we will delve into ensemble methods, which combine multiple models to improve the overall performance of a machine learning system. Students will explore popular techniques such as bagging and boosting, and learn how to implement the AdaBoost algorithm.
Week 8: Neural Network Basics
In the final week, students will be introduced to the foundations of deep learning and neural networks. We will cover the basics of artificial neurons, feedforward networks, and backpropagation. This week will provide the groundwork for more advanced topics in deep learning, preparing students for further study or simple practical applications in the field.

Good to know

Know what's good
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Develops core techniques such as linear regression, logistic regression, SVM, and neural networks
Provides hands-on experience through practical exercises
Introduces the basics of deep neural networks
Requires basic knowledge of mathematics and programming
May require additional software or tools not readily available

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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 Basics of Machine Learning with these activities:
Practice Probability Density Estimation Problems
Solving practice problems will help solidify the concepts of probability density estimation and improve your ability to apply these techniques.
Show steps
  • Find practice problems online or in textbooks and complete them.
  • Review your solutions and make sure you understand the concepts involved.
Participate in discussion forums
Engage in discussions with peers to exchange ideas, clarify concepts, and reinforce learning through active recall.
Show steps
  • Read through course materials and identify topics for discussion
  • Post questions, insights, or examples to the discussion forum
  • Respond to threads started by peers, providing your perspectives and insights
  • Review and reflect on the discussions to reinforce understanding
Build a support vector machine (SVM) classifier using TensorFlow
Create a support vector machine classifier using TensorFlow to gain hands-on experience with implementing ML algorithms.
Browse courses on Support Vector Machines
Show steps
  • Install TensorFlow and the required dependencies
  • Load and process a dataset appropriate for binary classification
  • Build a SVM model using TensorFlow's tf.keras.models.Sequential class
  • Train and evaluate the SVM model
  • Visualize the decision boundary of the SVM model
One other activity
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Show all four activities
Practice linear regression with Python
Practice the implementation of linear regression in Python to gain a better understanding of the technique.
Browse courses on Linear Regression
Show steps
  • Install necessary Python libraries (e.g., scikit-learn)
  • Load and explore a dataset suitable for linear regression
  • Implement linear regression using scikit-learn's LinearRegression class
  • Evaluate the performance of the linear regression model

Career center

Learners who complete Basics of Machine Learning will develop knowledge and skills that may be useful to these careers:
Data Analyst
Data Analysts leverage knowledge of statistics and programming to collect, clean, analyze, and transform complex datasets into information that can be used to inform decision-making. This course provides a solid foundation in the fundamental principles and tools of machine learning, a key skill for Data Analysts. By learning about probability density estimation, linear regression models, and ensemble methods, individuals can develop expertise in extracting meaningful insights from data, a crucial aspect of success in this role.
Data Scientist
Data Scientists use machine learning and statistical methods to extract meaningful insights from data, often to solve complex business problems. As machine learning is a core skill for Data Scientists, this course provides a solid foundation in the fundamentals of machine learning. Through hands-on exercises, learners can gain proficiency in various machine learning techniques, such as probability density estimation, linear regression, and ensemble methods. This course can help individuals build a strong foundation for a successful career in Data Science.
Machine Learning Engineer
Machine Learning Engineers design, develop, and maintain machine learning models and systems. A strong foundation in machine learning concepts and tools is crucial for success in this role. This course covers a wide range of topics essential for Machine Learning Engineers, including supervised learning techniques, unsupervised learning methods, and deep learning basics. By completing this course, individuals can build a strong foundation for a career in this rapidly growing field.
Quantitative Analyst
Quantitative Analysts use sophisticated mathematical and statistical methods to analyze financial data and make informed investment decisions. This course provides a solid foundation in the fundamental concepts and tools of machine learning, which is increasingly used in quantitative finance. By gaining proficiency in techniques such as probability density estimation, linear regression, and support vector machines, individuals can enhance their analytical capabilities and increase their potential for success in this competitive field.
Statistician
Statisticians use statistical methods to collect, analyze, interpret, and present data. Machine learning is a powerful tool that has revolutionized the field of statistics. This course provides a solid foundation in the fundamental principles and tools of machine learning, enabling statisticians to enhance their analytical capabilities and expertise in data analysis. By gaining proficiency in techniques such as probability density estimation, linear regression, and ensemble methods, individuals can stay at the forefront of statistical research and practice.
Software Engineer
Software Engineers design, develop, and maintain software systems. Machine learning is increasingly used in software development to enhance the capabilities of applications. This course provides a solid foundation in the fundamental principles and tools of machine learning, enabling Software Engineers to integrate machine learning into their software solutions. By gaining proficiency in techniques such as probability density estimation, linear regression, and neural networks, individuals can expand their skillset and increase their value in the job market.
Financial Analyst
Financial Analysts use financial data and analytical techniques to make investment recommendations and advise clients on financial matters. Machine learning is increasingly used in financial analysis to identify trends, predict outcomes, and make informed decisions. This course provides a solid foundation in the fundamental principles and tools of machine learning, enabling Financial Analysts to enhance their analytical capabilities and stay at the forefront of financial analysis.
Business Analyst
Business Analysts use data and analytical techniques to solve business problems and improve operational efficiency. Machine learning is a powerful tool for extracting meaningful insights from data, which can greatly benefit Business Analysts. This course provides a solid foundation in the fundamental concepts and tools of machine learning, enabling Business Analysts to leverage machine learning techniques to enhance their analytical capabilities and deliver impactful solutions.
Operations Research Analyst
Operations Research Analysts use mathematical and analytical techniques to optimize complex systems and processes. Machine learning is increasingly used in operations research to enhance decision-making and improve outcomes. This course provides a solid foundation in the fundamental principles and tools of machine learning, enabling Operations Research Analysts to integrate machine learning into their optimization models and improve the efficiency and effectiveness of their solutions.
Actuary
Actuaries use mathematical and statistical techniques to assess and manage risk. Machine learning is increasingly used in actuarial science to improve risk assessment and pricing models. This course provides a solid foundation in the fundamental principles and tools of machine learning, enabling Actuaries to integrate machine learning into their risk assessment and management practices.
Risk Manager
Risk Managers identify, assess, and manage risks that may impact an organization. Machine learning is increasingly used in risk management to identify potential risks and develop mitigation strategies. This course provides a solid foundation in the fundamental principles and tools of machine learning, enabling Risk Managers to enhance their analytical capabilities and improve the effectiveness of their risk management strategies.
Customer Success Manager
Customer Success Managers are responsible for ensuring that customers are satisfied with their products or services. Machine learning is increasingly used in customer success management to identify customer pain points, predict customer churn, and provide personalized support. This course provides a solid foundation in the fundamental principles and tools of machine learning, enabling Customer Success Managers to enhance their analytical capabilities and improve the effectiveness of their customer support strategies.
Sales Analyst
Sales Analysts use data and analytical techniques to understand sales patterns and optimize sales strategies. Machine learning is increasingly used in sales analytics to identify sales opportunities, predict customer churn, and personalize sales pitches. This course provides a solid foundation in the fundamental principles and tools of machine learning, enabling Sales Analysts to enhance their analytical capabilities and improve the effectiveness of their sales strategies.
Product Manager
Product Managers are responsible for the development and management of products. Machine learning is increasingly used in product development to improve product features and user experience. This course provides a solid foundation in the fundamental principles and tools of machine learning, enabling Product Managers to collaborate with engineering teams to integrate machine learning into their products and enhance their value to customers.
Marketing Analyst
Marketing Analysts use data and analytical techniques to understand customer behavior and optimize marketing campaigns. Machine learning is increasingly used in marketing analytics to identify customer segments, predict customer behavior, and personalize marketing messages. This course provides a solid foundation in the fundamental principles and tools of machine learning, enabling Marketing Analysts to enhance their analytical capabilities and improve the effectiveness of their marketing campaigns.

Reading list

We've selected 14 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 Basics of Machine Learning.
This classic textbook provides a comprehensive and accessible introduction to statistical learning, covering a wide range of topics including supervised and unsupervised learning, model selection, and regularization. It is an excellent resource for learners who are interested in gaining a strong foundation in the field.
This classic textbook provides a broad and rigorous treatment of pattern recognition and machine learning, covering a wide range of topics including supervised and unsupervised learning, neural networks, and Bayesian inference. It is an essential resource for anyone interested in a comprehensive understanding of the field.
Provides a comprehensive and mathematically rigorous introduction to machine learning algorithms, with a focus on supervised learning. It is an excellent resource for learners who are interested in gaining a deep understanding of the mathematical foundations of machine learning.
Provides a comprehensive and up-to-date overview of deep learning, covering the latest advances in the field. It is an essential resource for anyone interested in learning about the theory and practice of deep learning.
This practical guide provides a comprehensive overview of deep learning techniques, with a focus on hands-on implementation using the Python programming language and the Keras library. It is an excellent resource for learners who are interested in applying deep learning techniques to real-world problems using Python.
Provides a comprehensive overview of the theory and foundations of machine learning, with a focus on probabilistic modeling and inference. It is an excellent resource for gaining a deeper understanding of the mathematical principles underlying machine learning algorithms.
This practical guide provides a comprehensive overview of predictive modeling techniques, with a focus on hands-on implementation. It is an excellent resource for learners who are interested in applying predictive modeling techniques to real-world problems.
This practical guide provides a comprehensive overview of machine learning techniques, with a focus on hands-on implementation using popular Python libraries. It is an excellent resource for learners who are interested in applying machine learning techniques to real-world problems.
This practical guide provides a comprehensive overview of machine learning techniques, with a focus on hands-on implementation using the Python programming language. It is an excellent resource for learners who are interested in applying machine learning techniques to real-world problems using Python.
Provides a comprehensive treatment of sparse statistical learning methods, including the lasso and its generalizations. It is an excellent resource for learners who are interested in understanding the theory and application of sparse learning techniques.
This practical guide provides a comprehensive overview of machine learning techniques, with a focus on hands-on implementation. It is an excellent resource for learners who are interested in applying machine learning techniques to real-world problems.
This accessible guide provides a comprehensive overview of machine learning concepts and techniques, with a focus on making them easy to understand. It is an excellent resource for learners who are new to the field or who are looking for a gentle introduction.
This accessible guide provides a comprehensive overview of machine learning concepts and techniques, with a focus on making them easy to understand. It is an excellent resource for learners who are new to the field or who are looking for a gentle introduction.

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