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Mathematical Foundations for Machine Learning

27h 45m 47s
English
Paid
Added to CourseFlix

Mathematical Foundations for Machine Learning is a 24-lesson 27 hours 45 minutes self-paced course by Vizuara AI Labs. The course "Mathematical Foundations of Machine Learning" is a program for those who want to systematically understand the mathematics necessary for studying machine learning, data analysis, and artificial intelligence .

Course facts

Lessons
24
Duration
27 hours 45 minutes
Language
English
Added to CourseFlix
November 2026
Instructor
Vizuara AI Labs
Price
Premium

The course "Mathematical Foundations of Machine Learning" is a program for those who want to systematically understand the mathematics necessary for studying machine learning, data analysis, and artificial intelligence. You will master the key tools of linear algebra and integral calculus, learn to understand the mathematical ideas underlying ML algorithms, and be able to more confidently transition to practical tasks in Data Science.

About the course

Mathematics in machine learning helps not only to use ready-made libraries but to understand why models work, how to interpret results, and what limitations algorithms have. This course focuses on basic topics most often encountered in the study of ML: vectors, linear transformations, eigenvalues, eigenvectors, integrals, and the relationship of integration with differentiation.

The training combines theoretical explanations, recorded lectures, practical exercises, interactive consultations, and projects. This format helps reinforce mathematical concepts with examples and see their application in machine learning tasks.

What you will learn

  • Understand the role of mathematics in machine learning and artificial intelligence.
  • Work with basic concepts of linear algebra: vectors, matrices, and linear transformations.
  • Analyze the dot product as a tool for measuring similarity and as part of linear operations.
  • Understand the meaning of eigenvalues and eigenvectors and their application in data analysis.
  • Differentiate between definite and indefinite integrals.
  • Understand the relationship between integral calculus and differentiation.
  • Apply mathematical methods in the study of machine learning algorithms.

Course program

Linear Algebra for Machine Learning

This section is dedicated to fundamental concepts of linear algebra used in machine learning models, neural networks, optimization methods, and multidimensional data analysis.

  • Vectors and operations with them.
  • Matrices and linear transformations.
  • Dot product and its geometric meaning.
  • Dot product as a linear transformation.
  • Eigenvalues and eigenvectors.
  • Practical significance of linear algebra in ML tasks.

Integral Calculus

This block covers the basics of integral calculus necessary for understanding continuous models, probabilistic distributions, loss functions, and methods of mathematical analysis.

  • Concept of an indefinite integral.
  • Concept of a definite integral.
  • Geometric interpretation of the integral.
  • Relationship between integration and differentiation.
  • Application of integrals in data analysis and machine learning tasks.

Who the course is for

  • Beginning specialists in Data Science who need a solid mathematical foundation for further learning.
  • Students of technical and natural science fields studying machine learning and artificial intelligence.
  • Developers who want to understand ML algorithms more deeply rather than just using ready-made tools.
  • Analysts planning to transition to modeling, forecasting, and working with ML models.
  • Self-learners who need a structured course on the mathematical foundations of machine learning.

Learning format

The course combines several formats to make the theory understandable and applicable in practice:

  • Recorded lectures for self-study of the material;
  • Practical exercises to reinforce topics;
  • Interactive consultations for clarifying complex questions;
  • Practical projects that help connect mathematics with machine learning tasks.

What skills you will acquire after completion

After completing the course, you will be able to more confidently study machine learning algorithms, read technical materials on ML, and better understand mathematical notations found in textbooks, articles, and documentation.

  • Strengthen your base in linear algebra and mathematical analysis.
  • Learn to see the connection between formulas and practical ML tasks.
  • Prepare for studying optimization, statistics, probability, and neural networks.
  • Be able to work more consciously with machine learning models and analyze their behavior.

Why study the mathematical foundations of machine learning

Machine learning is built on mathematical principles. Without understanding linear algebra, derivatives, integrals, and transformations, it is difficult to comprehend the operation of models, training methods, and quality assessment of algorithms. This course helps fill in the gaps and create a foundation for further development in the field of artificial intelligence.

Understanding mathematics makes studying machine learning more conscious: you begin to see not only the code but also the principles on which algorithms operate.

Conclusion

“Mathematical Foundations of Machine Learning” is a course for those who want to prepare for a serious study of ML and AI. It will help master linear algebra, integral calculus, and key mathematical ideas necessary for confident work with modern machine learning algorithms.

Who teaches Mathematical Foundations for Machine Learning? Vizuara AI Labs

Vizuara AI Labs thumbnail

Vizuara is an international educational school in the field of artificial intelligence, founded by graduates of IIT Madras, MIT, and Purdue University. The company is developing with the support of the MIT ecosystem and aims to make quality AI education accessible to students and professionals worldwide.

Learning at Vizuara is based on the principle of "learn by creating": instead of studying theory alone, students work on real projects in the fields of artificial intelligence, machine learning, and generative AI. The programs combine fundamental knowledge, practical assignments, individual mentoring, and constant feedback, helping to quickly acquire in-demand skills.

In addition to technical courses, the school supports the development of academic and professional profiles: it assists with preparing portfolios, research papers, capstone projects, applying to foreign universities, as well as interview preparation and starting a career in AI.

The mission of Vizuara is to democratize access to modern education in the field of artificial intelligence by providing structured programs, practical experience, and mentorship. The school aims to become one of the most reliable educational platforms in emerging markets, where students not only gain knowledge but also create projects, build strong portfolios, and receive real career opportunities.

The philosophy of Vizuara is based on high-quality standards, a practical approach to learning, transparency, honest feedback, and a focus on the success of each student.

What lessons are included in Mathematical Foundations for Machine Learning?

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#1: Lecture 01
All Course Lessons (24)
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Lecture 01 Demo
01:50:55
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Lecture 02
01:54:45
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Lecture 03
01:12:18
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Lecture 04
01:52:26
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Lecture 05
01:41:17
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Lecture 06
01:44:35
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Lecture 07
01:22:18
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Lecture 08
01:41:02
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Lecture 09
01:05:22
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Lecture 11
01:21:26
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Lecture 12
01:23:44
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Lecture 13
01:41:09
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Lecture 14
01:19:08
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Lecture 15
34:18
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Lecture 16
46:49
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Lecture 17
30:31
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Lecture 18
16:08
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Adam Optimizer
34:27
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Dot Product as Linear Transformation
28:42
20
Eigenvalues and Eigenvectors
33:25
21
EXTRA Unknown Video Week6
10:16
22
Neural Network From Scratch
02:19:05
23
Office Hour Video
39:54
24
RMSProp
41:47
Watch the other 23 lessons

One payment unlocks this course and every other premium course. No auto-renew.

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Frequently asked questions

How much maths should I know before starting?
You'll be working with vectors, matrices, linear transformations, and calculus, so some familiarity with mathematical notation would help. The course explains foundational ideas, but it doesn't specify an entry requirement or promise a refresher on school-level algebra. If equations already feel unfamiliar, reviewing basic algebra and functions first would be sensible. Expect to work through mathematical exercises rather than only watch explanations of how machine learning works.
Is this a good fit if I want to understand ML rather than just use libraries?
Yes—that's the main reason to consider it. The focus is on the mathematics behind machine learning: how vectors and transformations behave, what eigenvalues mean, and how calculus connects to the subject. You'll also encounter optimization methods such as Adam and RMSProp. It's aimed at building the understanding behind practical work, rather than treating a library's output as something you simply accept without knowing why it behaves that way.
Will I actually apply the maths, or is it all lectures?
You won't be limited to watching lectures. The course combines recorded explanations with practical exercises, projects, and interactive consultations. There's also a neural-network-from-scratch component, which gives you a concrete connection between mathematical ideas and machine learning. The exact project briefs and deliverables aren't specified, though, so don't assume you'll finish with a particular application, dataset analysis, or portfolio-ready model. Expect mathematical practice alongside the explanations.
How does this differ from a course focused on building ML models?
The emphasis here is on understanding the mathematical machinery, rather than moving straight into an end-to-end model-building workflow. You'll spend time on ideas such as the dot product as a linear transformation and the meaning of eigenvalues and eigenvectors. Neural networks and optimizers provide connections to machine learning, but you shouldn't treat this as a substitute for a separate course on data preparation, model evaluation, or deployment.
Do I need Python or a particular machine learning framework?
No particular programming language, framework, or software setup is specified, so there's no confirmed Python or library requirement to prepare for. There is a neural-network-from-scratch component, but that alone doesn't establish which tools you'll use or how much coding is expected. If your decision depends on working in a particular environment, check that before enrolling. The clearest commitment here is to mathematical foundations, not training in a named software stack.
How much time should I set aside?
Expect 27 hours and 45 minutes of recorded content across 24 lessons. That's the viewing time, not a reliable estimate of your total study time: you'll also need room for exercises, projects, and revisiting explanations that take more than one pass. No overall completion schedule is specified. If you're studying alongside work or university, plan separate blocks for watching and solving problems rather than treating the runtime as the whole commitment.
What will this help me understand when I study machine learning afterward?
You'll have a stronger basis for following explanations that use vectors, matrices, dot products, eigenvalues, and calculus. For example, understanding the dot product can help you follow how similarity is represented mathematically, while eigenvectors connect to ideas used in data analysis. The work on Adam and RMSProp also gives you a starting point for understanding optimization. These foundations can support later study, but they aren't the same as experience completing an entire data science workflow.