Active Cancer Cells, Biochemistry & Physiology

p53 Y220C Degradation as an Anti-Cancer Strategy

In plain English

AI plain-English summary

A single drug molecule can be designed to destroy many copies of a cancer-related protein rather than simply blocking it one at a time. Most medicines work by temporarily disabling a disease-causing protein, but each drug molecule can only block one protein copy at a time. This project explores an emerging strategy called targeted protein degradation, where a drug molecule signals for the destruction of its target protein and survives to repeat the process on many copies. The researchers are applying this approach to p53, the protein most commonly mutated in cancer. Because this is early-stage fundamental science, there is no immediate practical application. The team is building on their own preliminary results to understand whether protein degradation can work effectively against p53. If successful, the approach could eventually lead to a fundamentally different class of cancer treatments that require far less drug to achieve a therapeutic effect, potentially reducing side effects and overcoming resistance that limits current therapies.

View original technical description
Most medicines work by “throwing a spanner in the works” of their target biological protein, preventing them from causing a disease. This approach has served humanity well, and contributed to rising life expectancies over many decades. A key limitation to this classical approach is that a drug molecule must have a 1:1 interaction with its protein target in order for the “spanner” to work. An emerging strategy in medicinal chemistry seeks to overcome the 1:1 drug:protein requirement by targeted protein degradation. In this model, a drug compound doesn’t stop the protein from working, it signals for the degradation of that protein. Because the drug molecule survives, a single molecule can “take out” many copies of a protein. The protein degradation strategy is new enough that it hasn’t been fully explored. This project is about studying protein degradation in the context of p53, the most commonly mutated protein in all of cancer. Our multidisciplinary team is very excited to build on our existing preliminary results to address this challenge.

View the original record at the funder ↗

Researchers

Danny Huang (Co-Investigator)David France (Principal Investigator)

Related Research

Grants with similar aims, by meaning.

Rescuing p53 Function in Cancer. Targeting the Y220C Mutation.
Rescuing Thermally Unstable p53 Mutants with Small Molecules; New Targeted Cancer Therapies.
Probing life-and-death switches using "designer" p53
Mutant p53 enhances receptor recycling to enhance invasion and chemo-resistance.
Targeted tumour suppression in an in vivo model

Original classification

Research and Innovation

Plain English summaries and category classifications on this site are generated by AI and may not perfectly reflect the original research.