Mathematics for AI & Engineering — Skills Plan

Planned skill map for Mathematics for AI & Engineering. The curriculum will be developed and released in stages.

21 planned skills October 2026
Dedicated track in progress. This map is a plan, not a claim that every lesson is published. Existing live learning tracks remain available while this path is developed.

Practice the linear algebra, calculus, probability, statistics, optimization, and numerical reasoning used to understand data and machine-learning methods.

Potential roles: AI/ML Learner · Data Scientist · Software Engineer

Before you start

  • Arithmetic and algebra
  • Functions, graphs, and notation

What you’ll build

  • Implement vector operations
  • Explore optimization behavior
  • Analyze uncertainty in a small dataset

Your request helps us prioritize this track. We’ll use your email for updates about this track only. See our privacy notice.

21skills mapped
6learning stages
0published lessons

Prerequisites

PLANNED
  • Arithmetic and algebra

    Build the Arithmetic and algebra knowledge needed to follow the Mathematics for AI & Engineering foundations.

  • Functions, graphs, and notation

    Build the Functions, graphs, and notation knowledge needed to follow the Mathematics for AI & Engineering foundations.

Foundations

PLANNED
  • Vectors, matrices, and tensors

    Explain how Vectors, matrices, and tensors works and where it fits in the Mathematics for AI & Engineering learning path.

  • Linear transformations

    Explain how Linear transformations works and where it fits in the Mathematics for AI & Engineering learning path.

  • Derivatives and gradients

    Explain how Derivatives and gradients works and where it fits in the Mathematics for AI & Engineering learning path.

  • Probability and distributions

    Explain how Probability and distributions works and where it fits in the Mathematics for AI & Engineering learning path.

Core Skills

PLANNED
  • Matrix multiplication and decompositions

    Use Matrix multiplication and decompositions to implement a working capability and verify its behavior in Mathematics for AI & Engineering.

  • Optimization and gradient descent

    Use Optimization and gradient descent to implement a working capability and verify its behavior in Mathematics for AI & Engineering.

  • Bayes theorem and conditional probability

    Use Bayes theorem and conditional probability to implement a working capability and verify its behavior in Mathematics for AI & Engineering.

  • Statistics and sampling

    Use Statistics and sampling to implement a working capability and verify its behavior in Mathematics for AI & Engineering.

  • Entropy and information theory

    Use Entropy and information theory to implement a working capability and verify its behavior in Mathematics for AI & Engineering.

Advanced / Production

PLANNED
  • Numerical stability

    Evaluate Numerical stability trade-offs against the performance, reliability, and safety needs of Mathematics for AI & Engineering systems.

  • Convexity and optimization trade-offs

    Evaluate Convexity and optimization trade-offs trade-offs against the performance, reliability, and safety needs of Mathematics for AI & Engineering systems.

  • Statistical testing and uncertainty

    Evaluate Statistical testing and uncertainty trade-offs against the performance, reliability, and safety needs of Mathematics for AI & Engineering systems.

  • Mathematical reasoning for model evaluation

    Evaluate Mathematical reasoning for model evaluation trade-offs against the performance, reliability, and safety needs of Mathematics for AI & Engineering systems.

Real-World Projects

PLANNED
  • Implement vector operations

    Deliver a working outcome with Implement vector operations, then test it against the project requirements.

  • Explore optimization behavior

    Deliver a working outcome with Explore optimization behavior, then test it against the project requirements.

  • Analyze uncertainty in a small dataset

    Deliver a working outcome with Analyze uncertainty in a small dataset, then test it against the project requirements.

Career / Interview Preparation

PLANNED
  • Linear algebra intuition

    Explain your approach to Linear algebra intuition, defend key trade-offs, and discuss what you learned.

  • Probability and statistics questions

    Explain your approach to Probability and statistics questions, defend key trade-offs, and discuss what you learned.

  • Explain model mathematics clearly

    Explain your approach to Explain model mathematics clearly, defend key trade-offs, and discuss what you learned.

← Back to all learning tracks
Share

Discussion

0

Have a better approach? Found something outdated? Share it — your knowledge helps everyone learning here.

Continue with GitHub
Loading...