Bioinformatics

Computational methods for biological data.


foundation tier

Bioinformatics addresses computational methods for biological data. It sits within Applied and Interdisciplinary CS and inherits that area’s core questions about correctness, scale, and tractability. This page surveys the conceptual axes of the topic and points to the references that frame ongoing research and teaching. The intent is to be useful both as an entry point for newcomers and as an index for practitioners cross-checking their mental model against the field’s primary sources.

Work on bioinformatics can be organised around a few interlocking concerns: the formal objects under study, the algorithms or systems that compute over them, the resource trade-offs (time, memory, communication, statistical efficiency), and the empirical or theoretical guarantees that practitioners rely on. The sources cited below approach the topic from a mix of these angles.

Foundational references

Durbin, Biological Sequence Analysis (1998) is a standard reference for this material and is used both as a curriculum anchor and as a long-form survey of techniques.

Supporting and complementary work

Compeau, Bioinformatics Algorithms: An Active Learning Approach (2018) provides supporting material that complements the primary references — readers comparing approaches will find useful framings, alternative notations, or extensions there.

Open methodological questions in bioinformatics cluster around how to compose the techniques above under realistic constraints — scale, adversarial inputs, partial observability, and shifting workloads. The cited references give the precise statements, proofs, and empirical evaluations that this overview only sketches; downstream topic pages drill into specific subfields.

Prerequisites

Sources

  • textbook · primary · 1998
    Biological Sequence Analysis
    durbin-1998
  • textbook · supporting · 2018
    Bioinformatics Algorithms: An Active Learning Approach
    compeau-2018

In context

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Explore

  1. 01

    Sequence Alignment

    Needleman-Wunsch, Smith-Waterman, and BLAST.

  2. 02

    Genome Assembly

    De Bruijn graph and overlap-layout-consensus assembly.

  3. 03

    Variant Calling

    Detecting SNVs, indels, and structural variants from sequencing data.

  4. 04

    Phylogenetics

    Tree inference from molecular sequences.

  5. 05

    Protein Structure Prediction

    AlphaFold, RoseTTAFold, and modern structure predictors.

  6. 06

    Single-Cell Analysis

    Computational methods for single-cell omics data.

  7. 07

    Cancer Genomics

    Computational pipelines for tumor characterization.

  8. 08

    Structural Bioinformatics

    Analysis of 3D structures of biomolecules.

  9. 09

    Biomedical NLP

    NLP over clinical notes and biomedical literature.

  10. 10

    Protein Design

    De novo and ML-driven design of proteins.

  11. 11

    ML for Drug Discovery

    Learning-based molecular property prediction and generation.


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