news

CRISPR-Cas used to edit cystic fibrosis gene mutations

A research team have used genome editing to correct two of the mutations that cause cystic fibrosis.

This is the research team @Cibio with Giulia Maule and p.i. Anna Cereseto (credit: Alessio Coser @UniTrento).

Led by Anna Cereseto, a research team from the University of Trento have used genome editing to permanently correct two of the mutations that cause cystic fibrosis which opens new perspectives in the treatment for the disease.

The research team (in collaboration with KU Leuven) adapted the CRISPR-Cas system to permanently edit at least two types of the mutation that cause cystic fibrosis. The technique is called ‘SpliceFix’ because it fixes the gene and restores the protein production mechanism at the same time.

“We have devised a genome editing strategy based on CRISPR-Cas to permanently remove two different mutations that cause the disease,” said Giulia Maule, a doctoral student in Biomolecular sciences at the University of Trento and first author of the article. “CRISPR-Cas works like a genomic scalpel to cut out the mutated elements with extreme accuracy. We demonstrated that our repair strategy works on patient-derived organoids and with a high level of precision: it targets only the mutated sequences, leaving non-mutated DNA untouched.”

 

Reserve your FREE place

 


Are low affinity or poor TCR yields slowing you down?

Explore how CHO expression of soluble TCRs and TCR affinity maturation workflows via phage, serving as essential building blocks for early-stage TCR-TCE candidate generation.

22 October 2025 | 16:00 PM BST | FREE Webinar

Join Jiansheng Wu, Ph.D. to explore two integrated strategies:

  • High-titer CHO-based expression of sTCRs (~100 mg/L), enabling scalable and high-throughput production
  • Optimized phage display affinity maturation, improving TCR binding by up to ~10,000-fold

Whether you’re starting a new TCR program or optimizing an existing platform, this session will offer actionable strategies to accelerate discovery and improve candidate quality.

Register Now – It’s Free!

 

“Instead of animal models, we have used organoids that we developed from the patients’ cells, a choice that allowed us to verify the efficacy of the molecular strategy in a context that is very similar to that of the patients with cystic fibrosis,” Maule underlined.

The results of the study were published in Nature Communications.

Leave a Reply

Your email address will not be published. Required fields are marked *