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

BioXone

rethinking future

July 17, 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
  • The machinery behind auxin-mediated veins formation and regeneration

Multisystem inflammatory syndrome associated with SARS-CoV-2

Regulatory expression of Co-inhibitory receptors by Type 1 Interferon transcriptional network in human T cells

The machinery behind auxin-mediated veins formation and regeneration
  • BiotechToday
  • World

The machinery behind auxin-mediated veins formation and regeneration

bioxone November 2, 2020November 1, 2020

Sayak Banerjee, Amity University Kolkata

The human body utilizes the veins to transport nutrients and oxygen throughout the whole body. Likewise, plants also have a similar kind of vascular system consisting of highly organized veins which transport nutrients throughout the body. Scientists found that the phytohormone auxin, which has its significance in plant growth and development, not only undergoes directional cell-to-cell transport providing the cell with the positional information of the newly formed veins and their regeneration but also the plant development flexibility in the self-organization of complex patterning during leaf venation and vasculature regeneration around a wound.

The lead scientist explained that auxin decides which cells will differentiate into vascular tissue and arrange them to form complex vein patterns. Polarly localized PIN auxin transport proteins mediate auxin transport. Hence, auxin signalling coordinating the repolarization of PINs in each cell can produce PIN-expressing auxin transport channels that emerge from an artificial local auxin source, revealing that auxin is the essential and sufficient signal for channel formation. Incase cells are unable to sense auxin signal, plant forms deranged veins with separations thus limiting distribution of nutrients.

To understand how the cells, decode this chemical signal into a cellular response, the researchers identified the responsible proteins, called CAMEL (Canalization-related Auxin-regulated Malectin-type RLK) along with CANAR (Canalization-related Receptor-like kinase) which serves as auxin sensor or auxin-regulated receptor. The CAMEL/CANAR complex phosphorylates the PIN auxin transporter and perceives the auxin concentration permitting the cells to organize their orientations to form continuous veins. The auxin feedback coordinates the polarization of individual cells in the course of auxin canalization. Hence, they concluded that it is predominantly a molecular compass for cell orientation which detects auxin concentration, instead of a magnetic field.

Also read: RC-PCR technology in SARS-Cov-2: Mega-Analyzer for outbreaks

Source: Vol. 370, Issue 6516, pp. 550-557 DOI: 10.1126/scienceaba3178 https://science.sciencemag.org/content/370/6516/550

  • 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 auxin auxin transport channel CAMEL canalization CANAR cell orientation channel kinase leaf venation phytohormone PIN auxin transport PIN auxin transporter plant development polarization proteins receptor regeneration repolarization the transport channel transport proteins vascular system vasculature veins

2 thoughts on “The machinery behind auxin-mediated veins formation and regeneration”

  1. Pingback: Regulatory expression of Co-inhibitory receptors by Type 1 Interferon transcriptional network in human T cells - BioXone
  2. Pingback: Mutations in SARS-CoV-2 are making it more contagious than ever! - BioXone

Leave a Reply Cancel reply

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

Next Post
  • BiotechToday
  • World

Regulatory expression of Co-inhibitory receptors by Type 1 Interferon transcriptional network in human T cells

bioxone November 2, 2020

Rohit Bhattacharjee, Amity University Kolkata Although inhibition of T cell co-inhibitory receptors has brought about cancer therapy, mechanisms governing their expression on human T cells have not been explained. Type 1 interferon (IFN-I) regulates T cell immunity in viral infection, autoimmunity, cancer, and may enhance induction of T cell exhaustion in chronic viral infection. To […]

T cells

Related Post

  • BiotechToday
  • World

WILL COVID-19 VACCINE WORK?

bioxone October 31, 2020October 30, 2020

Chitra Roy, University of Calcutta As we are getting closer to the COVID-19 vaccine, it is exciting to think of the day when the virus will be gone. But, the COVID-19 vaccine will not be the magic bullet considering its efficacy and the challenges currently being faced in these efficacy studies. Efficacy of a vaccine […]

Share this:

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

E. coli enhancing the amount of copper in the environment

bioxone November 30, 2020November 29, 2020

PRIYANKA CHAKRABORTY, AMITY UNIVERSITY KOLKATA Heavy metal collection from industrial wastes and agriculture is a long-standing challenge. This is more dangerous for copper since pollution from copper is unsafe for both the environment and for human health. The researchers, in this study, applied a two-way approach of Darwin’s theory of natural selection with bacterial bioengineering […]

Share this:

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

A potential entry point in autophagosomes regulation

BioTech Today June 22, 2021June 21, 2021

Akash Singh, Banaras Hindu University Autophagy, often blamed for senescence, is a conserved process that promotes cellular homeostasis by degrading cytosolic components (sometimes referred to as cargo). This cargo sequestered into autophagosomes, which are double-membrane vesicles that are primarily carried in the retrograde direction to the perinuclear area, where they combine with lysosomes, ensuring cargo […]

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