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Claire Mathieu

Approximation algorithms, Part I

How efficiently can you pack objects into a minimum number of boxes? How well can you cluster nodes so as to cheaply separate a network into components around a few centers? These are examples of NP-hard combinatorial optimization problems. It is most likely impossible to solve such problems efficiently, so our aim is to give an approximate solution that can be computed in polynomial time and that at the same time has provable guarantees on its cost relative to the optimum.

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Approximation algorithms, Part I

How efficiently can you pack objects into a minimum number of boxes? How well can you cluster nodes so as to cheaply separate a network into components around a few centers? These are examples of NP-hard combinatorial optimization problems. It is most likely impossible to solve such problems efficiently, so our aim is to give an approximate solution that can be computed in polynomial time and that at the same time has provable guarantees on its cost relative to the optimum.

This course assumes knowledge of a standard undergraduate Algorithms course, and particularly emphasizes algorithms that can be designed using linear programming, a favorite and amazingly successful technique in this area. By taking this course, you will be exposed to a range of problems at the foundations of theoretical computer science, and to powerful design and analysis techniques. Upon completion, you will be able to recognize, when faced with a new combinatorial optimization problem, whether it is close to one of a few known basic problems, and will be able to design linear programming relaxations and use randomized rounding to attempt to solve your own problem. The course content and in particular the homework is of a theoretical nature without any programming assignments.

This is the first of a two-part course on Approximation Algorithms.

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What's inside

Syllabus

Vertex cover and Linear Programming
We introduce the course topic by a typical example of a basic problem, called Vertex Cover, for which we will design and analyze a state-of-the-art approximation algorithm using two basic techniques, called Linear Programming Relaxation and Rounding. It is a simple, elementary application of powerful techniques.
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Knapsack and Rounding
This module shows the power of rounding by using it to design a near-optimal solution to another basic problem: the Knapsack problem.
Bin Packing, Linear Programming and Rounding
This module shows the sophistication of rounding by using a clever variant for another basic problem: bin packing. (This is a more advanced module.)
Set Cover and Randomized Rounding
This module introduces a simple and powerful variant of rounding, based on probability: randomized rounding. Its power is applied to another basic problem, the Set Cover problem.
Multiway Cut and Randomized Rounding
This module deepens the understanding of randomized rounding by developing a sophisticated variant and applying it to another basic problem, the Multiway Cut problem. (This is a more advanced module.)

Good to know

Know what's good
, what to watch for
, and possible dealbreakers
Taught by Claire Mathieu, an expert in theoretical aspects of computer science
Develops a deep understanding of approximation algorithms
Provides a strong foundation for advanced work in combinatorial optimization
Suitable for students with a strong background in algorithms and mathematics
Assumes knowledge of a standard undergraduate Algorithms course
Homework assignments are of a theoretical nature and do not involve programming

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Reviews summary

Advanced algorithms part i

Learners say this course on approximation algorithms is excellent and entertaining. The course is well received by learners. Claire, the instructor, is enthusiastic about the material. Students are challenged and adequately prepared for what lies ahead.

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 Approximation Algorithms Part I with these activities:
Review Linear Algebra Fundamentals
Review basic concepts in linear algebra to strengthen understanding of concepts in this course.
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  • Review vector spaces, subspaces, and linear independence.
  • Practice solving systems of linear equations.
  • Review concepts of matrix operations and properties.
Read 'Approximation Algorithms' by Vazirani
Gain a deeper understanding of the theoretical foundations of approximation algorithms by reading a seminal book in the field.
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  • Read the assigned chapters and take notes.
  • Summarize key concepts and algorithms in your own words.
  • Identify connections between the book's content and the course material.
Participate in Weekly Study Groups
Engage in active learning by collaborating with peers to discuss course material and solve problems collectively.
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  • Form a study group with classmates.
  • Meet regularly to review class notes and discuss concepts.
  • Work together to solve practice problems and prepare for assessments.
Four other activities
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Solve Approximation Algorithm Practice Problems
Sharpen your problem-solving skills and reinforce concepts learned in class by working through practice problems.
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  • Attempt to solve basic approximation algorithm problems.
  • Check your answers and identify areas for improvement.
  • Seek help from online resources or classmates if needed.
Create a Visual Representation of Approximation Algorithms
Enhance your understanding and retention by creating a visual representation of key concepts in approximation algorithms, such as a flowchart or infographic.
Browse courses on Approximation Algorithms
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  • Choose a specific approximation algorithm to focus on.
  • Identify the key steps and components of the algorithm.
  • Design a visual representation that clearly illustrates these elements.
  • Share your visual representation with others for feedback.
Contribute to an Open-Source Approximation Algorithm Library
Gain hands-on experience implementing and testing approximation algorithms by contributing to an open-source project.
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  • Identify an open-source approximation algorithm library.
  • Choose a specific algorithm or feature to contribute to.
  • Implement and test your code according to the project's guidelines.
  • Submit a pull request with your contribution.
Build an Approximation Algorithm for a Real-World Problem
Apply your knowledge of approximation algorithms to solve a practical problem in a field of your interest.
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  • Identify a real-world problem that can be addressed using an approximation algorithm.
  • Design an approximation algorithm to solve the problem.
  • Implement and test your algorithm using real-world data.
  • Evaluate the performance of your algorithm and compare it to other approaches.

Career center

Learners who complete Approximation Algorithms Part I will develop knowledge and skills that may be useful to these careers:
Operations Research Analyst
Operations research analysts use mathematical and statistical techniques to improve the efficiency of operations. They work in a variety of industries, including manufacturing, transportation, and healthcare. This course would be helpful for someone who wants to become an operations research analyst because it provides a strong foundation in linear programming and rounding techniques, which are essential for understanding and improving the efficiency of operations.
Quantitative Analyst
Quantitative analysts use mathematical and statistical techniques to analyze financial data. They work in a variety of industries, including investment banking, asset management, and corporate finance. This course would be helpful for someone who wants to become a quantitative analyst because it provides a strong foundation in linear programming and rounding techniques, which are essential for understanding and analyzing financial data.
Data Scientist
Data scientists use scientific methods to extract knowledge and insights from data. They work in a variety of industries, including technology, finance, and healthcare. This course would be helpful for someone who wants to become a data scientist because it provides a strong foundation in linear programming and rounding techniques, which are essential for understanding and analyzing data.
Statistician
Statisticians use mathematical and statistical techniques to collect, analyze, and interpret data. They work in a variety of industries, including healthcare, education, and government. This course would be helpful for someone who wants to become a statistician because it provides a strong foundation in linear programming and rounding techniques, which are essential for understanding and analyzing data.
Financial Analyst
Financial analysts use financial data to make investment recommendations. They work in a variety of industries, including investment banking, asset management, and corporate finance. This course would be helpful for someone who wants to become a financial analyst because it provides a strong foundation in linear programming and rounding techniques, which are essential for understanding and analyzing financial data.
Risk Analyst
Risk analysts use mathematical and statistical techniques to analyze risk. They work in a variety of industries, including insurance, finance, and healthcare. This course would be helpful for someone who wants to become a risk analyst because it provides a strong foundation in linear programming and rounding techniques, which are essential for understanding and analyzing risk.
Actuary
Actuaries use mathematical and statistical skills to analyze risk and uncertainty. They work in a variety of industries, including insurance, finance, and healthcare. This course would be helpful for someone who wants to become an actuary because it provides a strong foundation in linear programming and rounding techniques, which are essential for understanding risk and uncertainty.
Investment Analyst
Investment analysts use financial data to make investment recommendations. They work in a variety of industries, including investment banking, asset management, and corporate finance. This course would be helpful for someone who wants to become an investment analyst because it provides a strong foundation in linear programming and rounding techniques, which are essential for understanding and analyzing financial data.
Teacher
Teachers plan and deliver instruction to students in a variety of settings. They work in a variety of schools, including public schools, private schools, and charter schools. This course may be helpful for someone who wants to become a teacher because it provides a strong foundation in linear programming and rounding techniques, which can be used to solve a variety of problems in the classroom.
Financial Planner
Financial planners help people plan for their financial future. They work in a variety of settings, including banks, investment firms, and insurance companies. This course may be helpful for someone who wants to become a financial planner because it provides a strong foundation in linear programming and rounding techniques, which can be used to solve a variety of problems in financial planning.
Business Analyst
Business analysts use data to help businesses make better decisions. They work in a variety of industries, including technology, finance, and healthcare. This course may be helpful for someone who wants to become a business analyst because it provides a strong foundation in linear programming and rounding techniques, which can be used to solve a variety of problems in business analysis.
Machine Learning Engineer
Machine learning engineers design and develop machine learning models. They work in a variety of industries, including technology, finance, and healthcare. This course may be helpful for someone who wants to become a machine learning engineer because it provides a strong foundation in linear programming and rounding techniques, which can be used to solve a variety of problems in machine learning.
Software Engineer
Software engineers design, develop, and maintain software systems. They work in a variety of industries, including technology, finance, and healthcare. This course may be helpful for someone who wants to become a software engineer because it provides a strong foundation in linear programming and rounding techniques, which can be used to solve a variety of problems in software development..
Data Analyst
Data analysts use data to solve business problems. They work in a variety of industries, including technology, finance, and retail. This course may be helpful for someone who wants to become a data analyst because it provides a strong foundation in linear programming and rounding techniques, which can be used to solve a variety of problems in data analysis.
Web Developer
Web developers design, develop, and maintain websites. They work in a variety of industries, including technology, marketing, and education. This course may be helpful for someone who wants to become a web developer because it provides a strong foundation in linear programming and rounding techniques, which can be used to solve a variety of problems in web development.

Reading list

We've selected 30 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 Approximation Algorithms Part I.
Provides a comprehensive introduction to approximation algorithms and their design and analysis techniques.
Comprehensive reference on integer and combinatorial optimization, providing an in-depth coverage of the topics used in approximation algorithms. It valuable resource for further exploration and understanding of the mathematical foundations of approximation algorithms.
Classic textbook on approximation algorithms, providing a comprehensive overview of the subject. It complements the course materials by offering a broader perspective on approximation algorithms and their applications in various fields.
Provides a comprehensive introduction to the design and analysis of algorithms. It covers a wide range of topics, including linear programming, rounding, and randomized algorithms. The book is well-written and accessible, making it a valuable resource for both students and researchers.
Provides a comprehensive introduction to the design and analysis of algorithms. It covers a wide range of topics, including linear programming, rounding, and randomized algorithms. The book is well-written and accessible, making it a valuable resource for both students and researchers.
Provides an in-depth introduction to polyhedral combinatorics and integer programming, which are essential for understanding the design and analysis of approximation algorithms. It complements the course materials by offering a deeper understanding of the mathematical foundations of computer science.
Covers the complexity of combinatorial optimization problems, which provides context for understanding approximation algorithms.
Covers the fundamental concepts of linear and integer optimization, which are used in designing approximation algorithms.
Provides a comprehensive introduction to linear programming. It covers a wide range of topics, including the simplex method, duality, and sensitivity analysis. The book is well-written and accessible, making it a valuable resource for both students and researchers.
Provides a comprehensive introduction to convex optimization. It covers a wide range of topics, including linear programming, duality, and interior-point methods. The book is well-written and accessible, making it a valuable resource for both students and researchers.
Comprehensive introduction to computer algorithms. It covers a wide range of topics, from basic concepts to advanced techniques.
Comprehensive introduction to algorithms in C++. It covers a wide range of topics, from basic concepts to advanced techniques.
Provides a comprehensive introduction to randomized algorithms, which are used in approximation algorithms.
Covers a wide range of combinatorial optimization problems, including vertex cover and knapsack, which are discussed in the course.
Comprehensive introduction to optimization algorithms. It covers a wide range of topics, from basic concepts to advanced techniques.
Classic textbook on nonlinear programming. It covers a wide range of topics, from basic concepts to advanced techniques.
Comprehensive introduction to geometric algorithms and combinatorial optimization. It covers a wide range of topics, from basic concepts to advanced techniques.
Provides a comprehensive overview of graph algorithms, including many of the topics used in approximation algorithms. It complements the course materials by offering a deeper understanding of graph theory and its applications in computer science.
Comprehensive resource for understanding algorithms, providing additional background and context for the course materials. It covers both the design and analysis of algorithms, making it a useful reference for the course topics.
Introduces stochastic local search, which powerful technique used in approximation algorithms. It complements the course materials by offering a deeper understanding of the design and analysis of stochastic local search algorithms.
Introduces algorithms from a creative perspective, providing insights into the design and analysis of algorithms. It complements the course materials by offering a different approach to understanding algorithms.
Provides a general introduction to algorithm design, including approximation algorithms.
Introduces algorithms and data structures from a practical perspective, providing insights into their design and implementation. It complements the course materials by offering a different approach to understanding algorithms and their applications.
Provides a standard textbook for algorithms that covers basic concepts and techniques, including some approximation algorithms.

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