By using this site, you agree to the Privacy Policy and Terms of Use.
Accept
blog.sciencebriefing.com
  • Medicine
  • Biology
  • Engineering
  • Environment
  • More
    • Chemistry
    • Physics
    • Agriculture
    • Business
    • Computer Science
    • Energy
    • Materials Science
    • Mathematics
    • Politics
    • Social Sciences
Notification
  • Home
  • My Feed
  • SubscribeNow
  • My Interests
  • My Saves
  • History
  • SurveysNew
Personalize
blog.sciencebriefing.comblog.sciencebriefing.com
Font ResizerAa
  • Home
  • My Feed
  • SubscribeNow
  • My Interests
  • My Saves
  • History
  • SurveysNew
Search
  • Quick Access
    • Home
    • Contact Us
    • Blog Index
    • History
    • My Saves
    • My Interests
    • My Feed
  • Categories
    • Business
    • Politics
    • Medicine
    • Biology

Top Stories

Explore the latest updated news!

Auditing the Cloud: A New Blueprint for Multi-Copy Data Integrity

A Unified Framework for Unsupervised Model Selection

A New Textbook Maps the Unstructured Data Frontier

Stay Connected

Find us on socials
248.1KFollowersLike
61.1KFollowersFollow
165KSubscribersSubscribe
Made by ThemeRuby using the Foxiz theme. Powered by WordPress

Home - Biology - A new molecular axis for tumour suppression emerges from the ER

Biology

A new molecular axis for tumour suppression emerges from the ER

Last updated: February 20, 2026 1:03 pm
By
Science Briefing
ByScience Briefing
Science Communicator
Instant, tailored science briefings — personalized and easy to understand. Try 30 days free.
Follow:
No Comments
Share
SHARE

A new molecular axis for tumour suppression emerges from the ER

Researchers have identified a novel, noncanonical pathway for ferroptosis—a form of iron-dependent cell death—that is critical for suppressing tumour growth in living organisms. This pathway is driven by reactive oxygen species that cause peroxidation of phosphatidic acid at the endoplasmic reticulum, and its activity is governed by a signalling axis involving the proteins GPX1 and OSBPL8. The discovery, published in *Cell*, reveals a previously unknown in vivo mechanism by which cells can be pushed into a lethal state, offering a fresh target for cancer therapies.

Why it might matter to you:
This work defines a fundamental immune-evasion bypass, showing how tumours can be suppressed by manipulating a specific cell-death pathway. For your work in host-pathogen interactions and vaccine adjuvants, understanding these noncanonical immune-related death mechanisms could inform strategies to enhance anti-tumour immunity or modulate inflammatory responses. It also presents a potential intersection with cell-free therapeutic approaches aimed at controlling pathological cell growth.


Source →


Stay curious. Stay informed — with
Science Briefing.

Always double check the original article for accuracy.


Feedback

Share This Article
Facebook Flipboard Pinterest Whatsapp Whatsapp LinkedIn Tumblr Reddit Telegram Threads Bluesky Email Copy Link Print
Share
ByScience Briefing
Science Communicator
Follow:
Instant, tailored science briefings — personalized and easy to understand. Try 30 days free.
Previous Article The hidden cost of the emergency room for the frail
Next Article Why women pay a higher cognitive price for Alzheimer’s tau
Leave a Comment Leave a Comment

Leave a Reply Cancel reply

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

Related Stories

Uncover the stories that related to the post!

How a common pathogen hijacks our mucosal defenses to persist

Correction: The Evolutionary Consequences of Plasticity in Turtle Ants

A New AI Pipeline Unlocks the Silent Data of Insect Collections

The genetic constraints of a beetle’s southern march

A new computational lens for the genome’s 3D architecture

The AIC’s Blind Spot: Why Comparing Phylogenetic Models Is Harder Than It Looks

How a lysosomal checkpoint governs the body’s antiviral alarm

A Cautionary Tale for Genome Editing: C-to-G Edits Can Cause Genomic Chaos

Show More

Science Briefing delivers personalized, reliable summaries of new scientific papers—tailored to your field and interests—so you can stay informed without doing the heavy reading.

blog.sciencebriefing.com
  • Categories:
  • Medicine
  • Biology
  • Social Sciences
  • Chemistry
  • Engineering
  • Gastroenterology
  • Surgery
  • Cell Biology
  • Genetics
  • Energy

Quick Links

  • My Feed
  • My Interests
  • History
  • My Saves

About US

  • Adverts
  • Our Jobs
  • Term of Use

ScienceBriefing.com, All rights reserved.

Welcome Back!

Sign in to your account

Username or Email Address
Password

Lost your password?