Skip to content
Tagged COVID-19 Biotechnology SARS-CoV-2 Life Science cancer CORONAVIRUS pandemic
BioXone

BioXone

rethinking future

August 7, 2026
  • About
  • BiotechTodayNews
    • IndiaWeekly Biotech News of India
    • WorldWeekly Biotech News of The World
  • DNA-TalesArticles
    • BiotechnopediaInteresting articles written by BioXone members and associates.
    • Scientists’ CornerArticles from the pioneers of Biotechnology.
    • Cellular CommunicationInterview of greatest researchers’ in the field.
  • Myth-LysisFact Check
  • Signalling PathwayCareer related updates
    • ExaminationsExamination related articles.
    • Job and InternshipJobs and Internship related articles.
  • Courses
  • Contact

Most Viewed This Week

July 13, 2026July 13, 2026

Why Do We Age? The Biology Of Ageing Explained

1
October 17, 2023October 16, 2023

The Corrosion Prediction from the Corrosion Product Performance

2
October 1, 2023September 30, 2023

Nitrogen Resilience in Waterlogged Soybean plants

3
September 28, 2023September 28, 2023

Cell Senescence in Type II Diabetes: Therapeutic Potential

4
September 26, 2023September 25, 2023

Transgene-Free Canker-Resistant Citrus sinensis with Cas12/RNP

5
September 25, 2023September 25, 2023

AI Literacy in Early Childhood Education: Challenges and Opportunities

6

Search Field

Subscribe Now

  • Home
  • BiotechToday
  • Autophagy, a way to combat viral infections

Human Brain Evolution Making ‘em Unique From Other Apes

Why COVID-19 infects only some animals and not others?

Autophagy, a way to combat viral infections
  • BiotechToday
  • World

Autophagy, a way to combat viral infections

bioxone December 23, 2020December 23, 2020

Shrayana Ghosh, Amity University Kolkata

A research team from UT Southwestern has recognised a key gene necessary for cells to consume and destroy viruses. The findings which were reported in Nature could lead to ways that could manipulate this process to improve the immune system’s ability to combat viral infections.

The key gene essential for cells to consume and destroy viruses was recently identified by a research team from UT Southwestern. The findings showed the approach could lead to ways of manipulating this mechanism to boost the capacity of the immune system to battle viral infections, such as the current COVID-19 pandemic. Scientists have long understood that to rid themselves of unnecessary material, cells use a mechanism called autophagy. In double-layered vesicles called autophagosomes, autophagy, which translates as “self-eating,” involves isolating cellular waste, which is then fused with single-layered vesicles known as lysosomes to dissolve the materials inside and turn them into building blocks for other purposes. Cells discard old or defective organelles and protein complexes, bacteria, and viral invaders through this process. Researchers have identified clear pathways by which cells initiate and regulate autophagy for a variety of cellular refusal tasks.

Dong and his colleagues for their research, manipulated human cells infected by various viruses in this latest research to deplete more than 18,000 different genes individually, analyzing their effects on autophagy.

The researchers infected cells with the herpes simplex virus type 1(HSV-1) as their initial models. 216 genes that appeared to play a role in viral autophagy were identified by the team’s study. The researchers used bioinformatics to examine biological processes that control these genes to narrow their search for the main players. They soon honed in on a gene named nexin 5 (SNX5) sorting, which generates a protein that allows endosomes recycle plasma membrane-anchored proteins, sorting organelles into cells that often within their cells ferry materials isolated outside cells. When scientists shut down SNX5 in human cells, the capacity of the cells to conduct autophagy on HSV-1 decreased dramatically, but their ability to enable autophagy remained intact as part of regular cell cleaning or bacteria removal, implying that this gene is used exclusively for viral autophagy.

Further studies have shown that deletion of SNX5 has significantly increased vulnerability to infection in laboratory cells as well as in adult and juvenile animals. Nevertheless, they were largely spared when these cells were invaded by viruses manipulated to inhibit their capacity to cause autophagy. The findings indicate that cells have a special viral autophagy pathway that possibly has SNX5 at the helm. This discovery not only solves a long-standing mystery, but it could potentially lead to new ways of combating viral infections.

Also read:Human Brain Evolution Making ‘em Unique From Other Apes

Sources- 

https://www.news-medical.net/news/20201217/Researchers-identify-key-gene-necessary-for-cells-to-consume-and-destroy-viruses.aspx

  • Why Do We Age? The Biology Of Ageing Explained
  • The Corrosion Prediction from the Corrosion Product Performance
  • Nitrogen Resilience in Waterlogged Soybean plants
  • Cell Senescence in Type II Diabetes: Therapeutic Potential
  • Transgene-Free Canker-Resistant Citrus sinensis with Cas12/RNP

Share this:

  • Share on Facebook (Opens in new window) Facebook
  • Share on X (Opens in new window) X

Related

Tagged autophagosomes Autophagy COVID-19 endosomes herpes simplex virus type 1(HSV-1) immune system lysosomes nixen 5 viral infections VLPs

One thought on “Autophagy, a way to combat viral infections”

  1. Pingback: Why COVID-19 infects only some animals and not others? - BioXone

Leave a Reply Cancel reply

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

Next Post
  • BiotechToday
  • World

Why COVID-19 infects only some animals and not others?

bioxone December 23, 2020

Anannya Roy, Amity University Kolkata 3-Dimensional modeling of Protein structure can provide us with lots of insights on its functions and interactions. Researchers from Stanford University, California utilized this technique to study the receptor-binding domain of SARS-coV-2. This discovery could help in drug development and the prediction of future outbreaks. Coronavirus disease (COVID-19) has changed […]

animals

Related Post

  • BiotechToday
  • World

Study reveals SARS-CoV-2 prevents the formation of new red blood cells

bioxone November 4, 2020November 3, 2020

Sumedha Guha, Techno India University In a recent study conducted on lung samples obtained from 79 patients who died of COVID-19, researchers from the Far Eastern Federal University in Russia discovered the SARS-CoV-2 virus can not only damage red blood cells (RBCs) but also prevent the new formation of key red blood cells (namely, Erythrocytes).  […]

Share this:

  • Share on Facebook (Opens in new window) Facebook
  • Share on X (Opens in new window) X
  • BiotechToday
  • India
  • World

Can a Nose Swab Test For COVID-19 Pierce through your Brain? – It’s NO.

bioxone October 3, 2020October 3, 2020

RUCHITA KARMAKAR, AMITY UNIVERSITY KOLKATA A recently reported case was taken where a 40-year-old US women’s brain lining was punctured after her nasal swab test for COVID-19 which ultimately lead to the leakage of the brain fluid through her nose, and eventually putting her at risk of life-threatening infection. The patient had an undetected scarce […]

Share this:

  • Share on Facebook (Opens in new window) Facebook
  • Share on X (Opens in new window) X
  • BiotechToday
  • World

Can medical devices cause antibiotic resistance?

BioTech Today August 25, 2021August 25, 2021

Shenade Annie Kerketta, Amity University Kolkata Medical devices (MD) such as Venous catheter (CVC), abdominal drain tube, and Foley’s catheter tip are used in patients to transfer fluids. These devices tend to harbour certain microbial strains that produce biofilm. Biofilm is a polymeric matrix that conceals several bacterial strains into a single unit and provides antibiotic resistance. The […]

Share this:

  • Share on Facebook (Opens in new window) Facebook
  • Share on X (Opens in new window) X

Breaking News

Why Do We Age? The Biology Of Ageing Explained

The Corrosion Prediction from the Corrosion Product Performance

Nitrogen Resilience in Waterlogged Soybean plants

Cell Senescence in Type II Diabetes: Therapeutic Potential

Transgene-Free Canker-Resistant Citrus sinensis with Cas12/RNP

AI Literacy in Early Childhood Education: Challenges and Opportunities

Sustainable Methanol Vapor Sensor Made with Molecularly Imprinted Polymer

Terms and Conditions
Shipping and Delivery Policy
Cancellation and Refund Policy
Contact Us
Privacy Policy