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Ben Langmead, PhD and Jacob Pritt

We will learn computational methods -- algorithms and data structures -- for analyzing DNA sequencing data. We will learn a little about DNA, genomics, and how DNA sequencing is used. We will use Python to implement key algorithms and data structures and to analyze real genomes and DNA sequencing datasets.

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What's inside

Syllabus

DNA sequencing, strings and matching
This module we begin our exploration of algorithms for analyzing DNA sequencing data. We'll discuss DNA sequencing technology, its past and present, and how it works.
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Traffic lights

Read about what's good
what should give you pause
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Taught by instructors who are recognized for their work in the field of bioinformatics
Explores algorithms and data structures specifically designed for analyzing DNA sequencing data, which is fundamental in the field of genomics and personalized medicine
Develops skills in Python programming, specifically for bioinformatics applications, which are valuable in both research and industry
Provides a foundation in the principles of DNA sequencing and analysis, which is essential for researchers in genetics, biotechnology, and related fields
Requires learners to have a basic understanding of Python and some familiarity with biology and molecular biology concepts, which may be a barrier for complete beginners
Focuses primarily on computational methods and does not delve deeply into the biological implications of DNA sequencing, which may be limiting for those seeking a comprehensive understanding of the field

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Reviews summary

Algorithms for dna sequencing with python

According to learners, this course provides a positive`solid foundation` in algorithms essential for DNA sequencing data analysis. Many found the explanations of complex algorithms positive`clear and easy to follow`, effectively bridging the gap between computer science and biology. The positive`hands-on Python assignments` are frequently highlighted as a major strength, offering valuable practical experience implementing the discussed methods. Some students note that a warning`strong prerequisite knowledge` in algorithms, data structures, and Python is highly recommended to keep up with the pace and assignments. Overall, the course is considered positive`highly relevant` for those in computational biology or bioinformatics, offering skills directly applicable to real-world data.
Moves quickly through topics.
"The pace is quite fast and requires dedication to keep up with the material."
"Packed with information, moves quickly through complex modules."
"Need to stay on top of lectures and assignments to avoid falling behind."
"It's dense but covers a lot of ground quickly."
Sufficient biology context provided.
"Appreciated the explanations of biological concepts alongside the algorithms."
"Enough biology is covered to understand the data context and the problems being solved."
"Successfully bridges the gap between computer science methods and biological applications."
"Helps you understand *why* these algorithms are needed for DNA data."
Coding assignments solidify understanding.
"Implementing the algorithms in Python was the most valuable part of the course for me."
"The programming assignments were challenging but essential for truly understanding the methods."
"Great practice applying theoretical algorithms to real biological data using Python."
"The hands-on coding labs solidify the concepts better than just lectures."
Concepts are explained very clearly.
"The explanations of algorithms are very clear and intuitive..."
"The way the core algorithms were explained was incredibly clear and helpful."
"Professors explain complex concepts in a way that makes them easy to understand."
"Really helped me grasp the fundamental ideas behind sequence alignment and assembly algorithms."
Directly applicable to genomics data.
"The skills learned are immediately useful for analyzing DNA sequencing data in research or industry."
"Excellent course for anyone entering the field of bioinformatics or computational biology."
"Covers essential computational methods used constantly in genomics."
"Provides practical tools and understanding for working with real genomic datasets."
Need prior CS/Python knowledge.
"Highly recommend having a solid grasp of Python and data structures before starting this course."
"Found it quite challenging without a strong prior background in algorithms."
"The stated prerequisites might be a bit understated; knowledge of Python is crucial."
"Be prepared if you're not already comfortable with algorithm analysis and coding in Python."

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 Algorithms for DNA Sequencing with these activities:
Review Python programming
Ensure a solid foundation in Python programming language for successful implementation of algorithms and data structures used to analyze DNA sequencing data
Browse courses on Python Programming
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  • Review the basics of Python syntax, such as data types, variables, and control flow.
  • Practice writing simple Python programs.
Read 'Bioinformatics Algorithms: Techniques and Applications'
Gain a comprehensive understanding of the algorithms and data structures used in bioinformatics and genomics, providing a foundational knowledge base
Show steps
  • Read the chapters relevant to the course material.
  • Work through the practice exercises in the book.
Practice DNA sequence alignment
Reinforce concepts by practicing the alignment of DNA sequences to identify regions of similarity or difference
Show steps
  • Use a sequence alignment tool, such as BLAST or ClustalW, to align two or more DNA sequences.
  • Identify the regions of similarity and difference between the sequences.
  • Interpret the results of the alignment to determine the evolutionary relationship between the sequences.
Show all three activities

Career center

Learners who complete Algorithms for DNA Sequencing will develop knowledge and skills that may be useful to these careers:
Computational Biologist
In this role, you would be responsible for developing and applying computational methods to solve problems in biology. You would use your skills in computer science, biology, and mathematics to create models, algorithms, and software to analyze and interpret biological data. Taking this course would provide you with a strong foundation in the computational methods used to analyze DNA sequencing data. This knowledge would be invaluable in your work as a Computational Biologist, as you would be able to use these methods to develop new algorithms and software to solve important problems in biology.
Biostatistician
In this role, you would be involved in designing studies, collecting and analyzing data, and interpreting results. You would also be responsible for communicating your findings to a variety of audiences. Taking this course would provide you with a strong foundation in the computational methods used to analyze DNA sequencing data. This knowledge would be invaluable in your work as a Biostatistician, as you would be able to use these methods to design and conduct studies that are more efficient and accurate.
Geneticist
Geneticists study the structure and function of genes and their role in heredity and disease. Taking this course would provide you with a strong foundation in the computational methods used to analyze DNA sequencing data. This knowledge would be invaluable in your work as a Geneticist, as you would be able to use these methods to identify and characterize new genes and mutations associated with disease.
Genomics Scientist
Genomics Scientists use computational methods to analyze and interpret genomic data. Taking this course would provide you with a strong foundation in the computational methods used to analyze DNA sequencing data. This knowledge would be invaluable in your work as a Genomics Scientist, as you would be able to use these methods to develop new algorithms and software to solve important problems in genomics.
Software Engineer
Software Engineers design, develop, and test software applications. Taking this course would provide you with a strong foundation in the computational methods used to analyze DNA sequencing data. This knowledge would be invaluable in your work as a Software Engineer, as you would be able to use these methods to develop new algorithms and software to solve problems in a variety of fields.
Data Scientist
These professionals use their skills in mathematics, statistics, and computer science to extract insights from data. Taking this course would provide you with a strong foundation in the computational methods used to analyze DNA sequencing data. This knowledge would be invaluable in your work as a Data Scientist, as you would be able to use these methods to develop new algorithms and software to solve problems in a variety of fields, including healthcare, finance, and manufacturing.
Research Scientist
Research Scientists conduct research to develop new products and technologies. Taking this course would provide you with a strong foundation in the computational methods used to analyze DNA sequencing data. This knowledge would be invaluable in your work as a Research Scientist, as you would be able to use these methods to develop new algorithms and software to solve important problems in a variety of fields.
Medical Scientist
Medical Scientists conduct research to develop new treatments and cures for diseases. Taking this course would provide you with a strong foundation in the computational methods used to analyze DNA sequencing data. This knowledge would be invaluable in your work as a Medical Scientist, as you would be able to use these methods to identify new targets for drug development and to develop new diagnostic tests.
Laboratory Technician
Laboratory Technicians conduct experiments, analyze data, and maintain laboratory equipment. Taking this course would provide you with a strong foundation in the computational methods used to analyze DNA sequencing data. This knowledge would be invaluable in your work as a Laboratory Technician, as you would be able to use these methods to develop new protocols and assays for DNA sequencing.
Molecular Biologist
Molecular Biologists study the structure and function of molecules, including DNA, RNA, and proteins. Taking this course would provide you with a strong foundation in the computational methods used to analyze DNA sequencing data. This knowledge would be invaluable in your work as a Molecular Biologist, as you would be able to use these methods to identify and characterize new genes and mutations associated with disease.
Postdoctoral Researcher
Postdoctoral Researchers conduct research under the supervision of a senior scientist. Taking this course would provide you with a strong foundation in the computational methods used to analyze DNA sequencing data. This knowledge would be invaluable in your work as a Postdoctoral Researcher, as you would be able to use these methods to develop new research projects and to publish your findings in peer-reviewed journals.
Quality Control Analyst
Quality Control Analysts ensure that products and services meet quality standards. Taking this course would provide you with a strong foundation in the computational methods used to analyze DNA sequencing data. This knowledge would be invaluable in your work as a Quality Control Analyst, as you would be able to use these methods to develop new quality control procedures and to ensure that DNA sequencing data is accurate and reliable.
Research Associate
Research Associates conduct research under the supervision of a senior scientist. Taking this course would provide you with a strong foundation in the computational methods used to analyze DNA sequencing data. This knowledge would be invaluable in your work as a Research Associate, as you would be able to use these methods to develop new research projects and to publish your findings in peer-reviewed journals.
Physician
Physicians diagnose and treat diseases. They also provide preventive care and counseling to their patients. Taking this course may provide you with a better understanding of the computational methods used to analyze DNA sequencing data. This knowledge may be helpful in your work as a Physician, as you may be able to use these methods to identify and diagnose diseases more accurately.
Project Manager
Project Managers plan, execute, and close out projects. They also manage the project team and budget. Taking this course may provide you with a better understanding of the computational methods used to analyze DNA sequencing data. This knowledge may be helpful in your work as a Project Manager, as you may be able to use these methods to manage projects more effectively.

Reading list

We've selected 12 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 Algorithms for DNA Sequencing.
Provides a comprehensive overview of fundamental algorithms and approaches used in bioinformatics.
Introduces the field of computational biology from a statistical mechanics perspective.
Provides an introductory overview of bioinformatics concepts and techniques.

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