# [SCI] Genomics & Computational Biology

**Genomics** is the large-scale study of entire genomes — their sequencing, structure, function, and evolution — made possible by the convergence of molecular biology, chemistry, and computational methods.

## Overview

Watson and Crick's DNA double helix (1953) revealed the information storage mechanism. Sanger's chain-termination sequencing (1977) enabled reading DNA sequences. The Human Genome Project (1990–2003) sequenced the complete human genome for \$USD 3 billion. Illumina's short-read sequencing (2007) reduced the cost to ~\$USD 1,000 per genome by 2013. CRISPR-Cas9 (Doudna & Charpentier, 2012) enables precise genome editing. Bioinformatics — the application of information theory, statistics, and ML to genomic data — is now a major discipline.

## Key Figures & Recognition

- **Watson, Crick, Franklin, Wilkins**: DNA structure. **Nobel Prize 1962** (Watson, Crick, Wilkins; Franklin died 1958).
- **Frederick Sanger** (1918–2013): DNA sequencing. **Nobel Prize 1980** (his second Nobel).
- **Jennifer Doudna** (1964–) & **Emmanuelle Charpentier** (1968–): CRISPR-Cas9. **Nobel Prize 2020**.

## Seminal Papers

- Watson, J. & Crick, F. "A Structure for Deoxyribose Nucleic Acid." *Nature* 171 (1953).
- [Sanger, F. et al. "DNA sequencing with chain-terminating inhibitors." *PNAS* 74 (1977)](https://doi.org/10.1073/pnas.74.12.5463)

## What This Enables

- **[TECH] AI & Large Language Models** — Protein language models (ESMFold, AlphaFold) are transformer LLMs trained on protein sequence databases; genomics is a core AI application domain.
- **[TECH] Medical Imaging (X-ray, CT, PET)** — Genomic biomarkers are increasingly correlated with imaging phenotypes, driving AI-assisted radiogenomics.

# Parents

* [TECH] Digital Computing
* [SCI] Information Theory
* [TECH] Digital Computing
* [SCI] Machine Learning Theory
* [SCI] Molecular Biology & Biochemistry
* [SCI] Deep Learning