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Technology · Large-cargo editing

Recombinases and integrases

Enzymes that cut and rejoin DNA at defined sites, able to insert whole genes rather than edit single letters.

Preclinical DNAlarge insertionsno double-strand break
Preclinical research Tested in cells and animals only. Most preclinical programmes never reach people, and animal results often do not carry over.

Penjelasan sederhana

Every editor described so far changes small amounts of text. Recombinases move paragraphs. They are enzymes that recognise a specific short sequence and swap the DNA around it — so if you first mark a safe spot in the genome, a recombinase can drop an entire working gene into that spot in one go.

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Site-specific recombinases (Cre, Flp) and serine integrases (Bxb1, PhiC31) catalyse strand exchange between defined recognition sites, integrating, excising or inverting sequence without producing free double-strand breaks or depending on host repair pathways. Because natural recognition sites are rare in human genomes, therapeutic strategies pair a programmable editor that writes a landing site with an integrase that then inserts the cargo — the approach behind PASTE and related methods, which can integrate sequences of many kilobases.

Why large insertions matter

Some diseases cannot be treated by tweaking sequence because the gene is enormous or the mutations are scattered across it in hundreds of different places. Duchenne muscular dystrophy is the canonical example: the dystrophin gene is the largest in the human genome, and a per-mutation editing strategy would mean a different medicine for almost every family. Inserting one working copy at a defined location would be a single solution for everyone — which is why integrase approaches attract so much interest despite being preclinical.

Why large insertions matter
A recombinase exchanging a block of sequence between two DNA strands. Illustration generated for The CRISPR Atlas — a visual aid, not a photograph or a literal depiction of molecular structure.

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