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James Bird and Jane Wall

Are you interested in Data Science but lack the math background for it? Has math always been a tough subject that you tend to avoid? This course will provide an intuitive understanding of foundational integral calculus, including integration by parts, area under a curve, and integral computation. It will also cover root-finding methods, matrix decomposition, and partial derivatives.

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Are you interested in Data Science but lack the math background for it? Has math always been a tough subject that you tend to avoid? This course will provide an intuitive understanding of foundational integral calculus, including integration by parts, area under a curve, and integral computation. It will also cover root-finding methods, matrix decomposition, and partial derivatives.

This course is designed to prepare learners to successfully complete Statistical Modeling for Data Science Application, which is part of CU Boulder's Master of Science in Data Science (MS-DS) program.

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What's inside

Syllabus

Area Under The Curve
Explore the notion of area under a curve, how that relates to the integral and compute basic integrals.
Numerical Analysis Intro
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Introduction to Numerical Analysis using 2 root-finding methods.
Diagonalization & SVD
Explore general matrix decomposition, as well as a specialized and useful version called Singular Value Decomposition.
Partial Derivatives & Steepest Descent
We will learn a core calculus concept called partial derivatives, as well as delving into directional derivatives and their usefulness in higher level statistics.

Good to know

Know what's good
, what to watch for
, and possible dealbreakers
Teaches integral calculus concepts that are fundamental for data science, including integration by parts, area under a curve, and integral computation
Provides a solid foundation for the Statistical Modeling for Data Science Application course of CU Boulder's Master of Science in Data Science program
Covers essential math concepts like root-finding methods, matrix decomposition, and partial derivatives, which are crucial for data science
Assumes no prior math background, making it accessible to learners with diverse backgrounds
Course instructors, Jane Wall and James Bird, are experienced professionals in data science

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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 Integral Calculus and Numerical Analysis for Data Science with these activities:
Organize your notes, assignments, quizzes, and exams
Organizing your materials will help you prepare for the final exam review.
Show steps
  • Gather all of your notes, assignments, quizzes, and exams.
  • Organize your materials by topic.
  • Create a study schedule.
  • Review your materials regularly.
Revisit the concept of area under a curve
Practice the concept of area to better follow along with the concept of integration which heavily builds upon the idea of area.
Show steps
  • Find 2 or 3 online videos on finding area under a curve and watch them.
  • Try a few example problems without the aid of a calculator and check your work.
Practice root finding by hand
Building intuition for finding the roots of polynomials by hand can be a helpful way to understand the ideas of using computational methods like Newton's method.
Show steps
  • Find examples of a few cubic polynomials with real solutions and try to find their roots by hand.
  • Continue with a few quartic polynomials, and optionally go on to a quintic polynomial.
Four other activities
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Show all seven activities
Watch video on diagonalization and SVD
Diagonalization and SVD are very powerful linear transformations. Watching a video on these concepts can be very insightful.
Show steps
  • Find a 3Blue1Brown video on diagonalization or SVD and watch it.
  • Optionally, find videos from other sources on these topics.
Write an intuitive explanation of partial derivatives
Writing an explanation of partial derivatives in your own words can help you to more deeply understand the concept.
Show steps
  • Write out the definition of partial derivatives.
  • Explain how partial derivatives are used to find the slope of a surface.
  • Give an example of how partial derivatives are used in a real-world application.
Practice solving partial differential equations
Solving partial differential equations is a key skill in data science. This activity will give you practice with this important technique.
Show steps
  • Find a set of practice problems on partial differential equations.
  • Solve the problems using the method of separation of variables.
  • Check your answers using a computer algebra system.
Contribute to a data science open source library
Contribute to help advance the field of knowledge with a concrete deliverable.
Show steps
  • Find an open-source data science library that you are interested in contributing to.
  • Read the library's documentation and familiarize yourself with the codebase.
  • Identify a bug or feature that you would like to fix or implement.
  • Submit a pull request with your changes.
  • Respond to feedback from the library's maintainers and make changes as necessary.

Career center

Learners who complete Integral Calculus and Numerical Analysis for Data Science will develop knowledge and skills that may be useful to these careers:
Quantitative Analyst
A Quantitative Analyst develops and implements mathematical and statistical models to analyze financial data. This course will provide you with the foundational skills necessary for success in this role, including integral calculus, numerical analysis, root-finding methods, matrix decomposition, and partial derivatives, which can help you develop models to predict financial outcomes.
Data Analyst
A Data Analyst collects, analyzes, and interprets data to help businesses make informed decisions. This course will provide you with the foundational skills necessary for success in this role, including integral calculus, numerical analysis, root-finding methods, matrix decomposition, and partial derivatives. This course can help you build a foundation in the mathematical concepts and techniques that are essential for data analysis.
Data Scientist
A Data Scientist collects, analyzes, and interprets data to extract meaningful insights and knowledge. This course will provide you with the foundational skills necessary for success in this role, including integral calculus, numerical analysis, root-finding methods, matrix decomposition, and partial derivatives. This course can help you build a foundation in the mathematical concepts and techniques that are essential for data science.
Machine Learning Engineer
A Machine Learning Engineer designs, develops, and maintains machine learning models. This course will provide you with the foundational skills necessary for success in this role, including integral calculus, numerical analysis, root-finding methods, matrix decomposition, and partial derivatives.This course can help you build a foundation in the mathematical concepts and techniques that are essential for machine learning.
Statistician
A Statistician collects, analyzes, and interprets data to help businesses and organizations make informed decisions. This course will provide you with the necessary foundation to be successful as a Statistician, including integral calculus, numerical analysis, root-finding methods, matrix decomposition, and partial derivatives. These concepts will form the basis of the statistical models that you will use in your work.
Financial Analyst
A Financial Analyst analyzes financial data to make recommendations and inform investment decisions. This course will provide you with the foundational skills in integral calculus, numerical analysis, root finding methods, matrix decomposition, and partial derivatives. Using these concepts you will be better equipped to understand the financial markets and make sound investment decisions.
Business Analyst
A Business Analyst analyzes data and identifies opportunities to improve business processes. This course will provide you with the foundational skills necessary for success in this role, including integral calculus, numerical analysis, root-finding methods, matrix decomposition, and partial derivatives. These concepts are used to analyze data and develop insights to improve business outcomes.
Operations Research Analyst
An Operations Research Analyst uses mathematical and analytical methods to improve the efficiency of business processes. This course will provide you with the foundational skills necessary for success in this role, including integral calculus, numerical analysis, root-finding methods, matrix decomposition, and partial derivatives. These concepts are used to model and analyze business processes to make them more efficient.
Consultant
A Consultant provides advice and guidance to businesses on how to improve their operations. This course will provide you with the foundational skills necessary for success in this role, including integral calculus, numerical analysis, root-finding methods, matrix decomposition, and partial derivatives. These concepts are used to analyze data and develop recommendations to improve business outcomes.
Actuary
An Actuary analyzes and evaluates risk in order to develop insurance policies and financial plans. This course will provide you with the necessary foundation to be successful as an Actuary. Integral calculus, numerical analysis, root-finding methods, matrix decomposition, and partial derivatives are core concepts in actuarial science, and are essential for understanding and quantifying risk.
Software Engineer
A Software Engineer designs, develops, and maintains software applications. This course will provide you with the foundational skills necessary for success in this role, including integral calculus, numerical analysis, root-finding methods, matrix decomposition, and partial derivatives. These concepts are used to develop efficient algorithms and optimize software performance.
Physicist
A Physicist conducts research in physics and applies physics principles to solve problems in a variety of fields. This course will provide you with the foundational skills necessary for success in this role, including integral calculus, numerical analysis, root-finding methods, matrix decomposition, and partial derivatives. These concepts are essential for developing and applying physical theories and models.
Mathematician
A Mathematician conducts research in mathematics and applies mathematical principles to solve problems in various fields. This course will provide you with the foundational skills necessary for success in this role, including integral calculus, numerical analysis, root-finding methods, matrix decomposition, and partial derivatives. These concepts are essential for developing and applying mathematical theories and models.
Economist
An Economist analyzes economic data and develops economic models to explain economic phenomena and make predictions. This course will provide you with the foundational skills necessary for success in this role, including integral calculus, numerical analysis, root-finding methods, matrix decomposition, and partial derivatives. These concepts are used to develop economic models and analyze economic data to understand how economies work.
Data Engineer
A Data Engineer designs, builds, and maintains data pipelines and databases. This course will provide you with the foundational skills necessary for success in this role, including integral calculus, numerical analysis, root-finding methods, matrix decomposition, and partial derivatives. These concepts are used to design and optimize data pipelines and databases, as well as to analyze data to improve data quality.

Reading list

We've selected ten 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 Integral Calculus and Numerical Analysis for Data Science.
This textbook is an introduction to linear algebra for students in the data sciences. It covers a wide range of topics, including matrix operations, eigenvalues and eigenvectors, and singular value decomposition.
This textbook is an introduction to convex optimization for students in the data sciences. It covers a wide range of topics, including linear programming, nonlinear programming, and semidefinite programming.
Acts as a comprehensive guide to understanding and approaching partial differential equations and is useful as a supplemental reference guide to the course.
Acts as a comprehensive guide to matrix analysis and applied linear algebra and is useful as a supplemental reference guide to the course.
Acts as a comprehensive introduction to numerical analysis and is useful as background knowledge for this course.
Comprehensive introduction to calculus and is useful as background knowledge for this course.
Comprehensive introduction to calculus and is useful as background knowledge for this course.
Classic reference on numerical methods and is useful as a supplemental reference guide to the course.
Is an introduction to partial differential equations with MATLAB and is useful as a supplemental reference guide to the course.

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