Advanced Mathematics for Machine Learning Course Overview

Advanced Mathematics for Machine Learning Course Overview

Delve into the Advanced Mathematics for Machine Learning course at Koenig Solutions, designed for professionals keen on mastering the mathematical foundations essential for machine learning. Over five days (40 hours), this course covers key topics such as analytic geometry, matrix decompositions, backpropagation, and dimensionality reduction with Principal Component Analysis. Participants will also explore Gaussian Mixture Models and Support Vector Machines. By the end of the course, you will be equipped to apply these concepts to real-world machine learning problems, ensuring a robust understanding of how mathematics underpins advanced algorithms and optimizations.

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1,700

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Course Fee 1,700
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1,700 (USD)
  • Live Training (Duration : 40 Hours)
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  • Live Training (Duration : 40 Hours)
  • Per Participant
  • Classroom Training fee on request

♱ Excluding VAT/GST

You can request classroom training in any city on any date by Requesting More Information

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Course Prerequisites

Prerequisites for the Advanced Mathematics for Machine Learning Course

To ensure that you can successfully undertake and benefit from the Advanced Mathematics for Machine Learning course, we recommend that you meet the following minimum prerequisites:


  • Basic Understanding of Linear Algebra: Familiarity with concepts such as vectors, matrices, and basic matrix operations.
  • Fundamentals of Calculus: Knowledge of derivatives, integrals, and basic optimization techniques.
  • Basic Probability and Statistics: Understanding of probability distributions, mean, variance, and common statistical measures.
  • Programming Skills: Proficiency in at least one programming language, preferably Python, to implement mathematical concepts and algorithms.
  • Introductory Knowledge of Machine Learning: Basic awareness of machine learning principles and commonly used algorithms.

Meeting these prerequisites will ensure that you have the foundational knowledge necessary to grasp the advanced mathematical concepts covered in this course.


Target Audience for Advanced Mathematics for Machine Learning

Advanced Mathematics for Machine Learning is a comprehensive 5-day course designed for professionals seeking to deepen their mathematical understanding essential for advanced machine learning applications and algorithms.


Target Audience and Job Roles:


  • Data Scientists
  • Machine Learning Engineers
  • AI Researchers
  • Statisticians
  • Quantitative Analysts
  • Software Engineers specializing in AI/ML
  • PhD Students in Computer Science or Data Science
  • Research Scientists
  • Algorithm Engineers
  • Mathematical Modelers
  • Academicians in Mathematics, Statistics, or Machine Learning
  • Operations Research Analysts
  • Business Intelligence Analysts
  • Computer Vision Engineers
  • Natural Language Processing Engineers


Learning Objectives - What you will Learn in this Advanced Mathematics for Machine Learning?

Introduction: The Advanced Mathematics for Machine Learning course at Koenig Solutions is a comprehensive 5-day training program designed to equip students with essential mathematical tools and techniques for advanced machine learning applications, covering topics from analytic geometry to support vector machines.

Learning Objectives and Outcomes:

  • Understand and apply norms, inner products, and orthogonality in analytic geometry.
  • Perform and interpret various matrix decompositions, including Cholesky, eigen, and singular value decompositions.
  • Gain proficiency in backpropagation and automatic differentiation for neural networks.
  • Explore advanced optimization techniques, including constrained optimization, convex optimization, and optimization in high dimensions.
  • Conduct dimensionality reduction using Principal Component Analysis (PCA) from multiple perspectives.
  • Master density estimation using Gaussian Mixture Models (GMM) and EM algorithms.
  • Classify data with support vector machines (SVM) and understand the use of kernels and numerical solutions.

This structured approach ensures a strong mathematical foundation for students, enabling them to tackle complex machine learning problems efficiently.

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