Completed Genetics & Molecular Biology Cells, Biochemistry & Physiology

Human genome synthesis

In plain English

AI plain-English summary

Scientists are learning to write the entire human genome from scratch, building chromosomes letter by chemical letter in the laboratory. The problem is a massive gap in scale. Researchers can already synthesise bacterial genomes, which are about a million letters long. A human genome is three billion letters—three thousand times larger. No existing technology can build something that big. This project aims to close that gap by developing the tools and methods needed to assemble human-scale DNA. If successful, the work will transform fundamental biology. Scientists could design custom human chromosomes to test how genes interact, how genomes evolve, and how DNA sequence influences disease—questions that are nearly impossible to answer with natural genomes alone. The team will demonstrate their approach by synthesising a single recoded human chromosome, proving the technology works. This is fundamental science. There is no immediate medical or commercial application. But the ability to build any genome on demand would open up possibilities that are hard to predict—much like the first DNA sequencing methods did decades ago, before they became essential tools in medicine, agriculture, and forensics.

View original technical description
The ability to make any human genome would transform hypothesis driven investigations in diverse areas of biology, genetic-archaeology and biotechnologies. However, there are currently no technologies for building human genomes. Moreover, there is a technological void between the state of the art in the creation of synthetic genomes and what will be required to enable the synthesis of human genomes. The current challenge is therefore to bridge this void. The goal of this proposal is to bridge the technological void between the state of the art, which has enabled the synthesis of Mbp-scale microbial genomes, and the technologies that will be required to build a human genome, which is 3 orders of magnitude larger than any synthetic genome that has been created to date. We will establish key technologies for human genome synthesis and exemplify these technologies through the synthesis of a recoded human chromosome.

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Researchers

Jason Chin (EPMC Awardee)Julian Sale (EPMC Awardee)Tom Ellis (EPMC Awardee)Yizhi Cai (EPMC Awardee)

Related Research

Grants with similar aims, by meaning.

21ENGBIO Engineering Human Artificial Chromosomes (HACs) to Encode Genome Complexity
Towards Genomes-to-Design: Building and Testing a Minimal Essential Chromosome
A DNA Synthesis and Construction Foundry for Synthetic Biology @ Imperial College
Next Generation DNA Synthesis
Streamlining synthetic genomes for designer organisms

Original classification

Strategic Support: Science

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