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

BioXone

rethinking future

October 8, 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
  • MIP- a way for selective recognition of microorganisms

Novartis Life Sciences Clinical Programmer Job Opening

SAlign - A System to connect global PPI network alignment

MIP- a way for selective recognition of microorganisms
  • BiotechToday
  • World

MIP- a way for selective recognition of microorganisms

bioxone November 7, 2020November 7, 2020

Ayooshi Mitra, Amity University Kolkata

Molecularly imprinted polymers, also known as MIPs, were first developed about half a century ago. It uses the technique of molecular imprinting that leaves cavities with an affinity for a selected “template” molecule within the polymer matrix. In the presence of a template molecule that is extracted afterwards, the process usually involves initiating the polymerization of monomers, leaving behind complementary cavities.

Recently, this has attracted attention as artificial receptors or plastic antibodies. Even though the MIP targeting molecules, peptides, or even protein preparation is simple and well-developed, it is still a big challenge to carry out the molecular imprinting of microorganisms. A study was conducted by some researchers in Beijing to prepare MIPs and find biomimetic specificity and selectivity towards microorganisms by producing definite cell recognition sites. Advanced strategies for the speedy synthesis of MIPs targeting microorganisms were presented, which included surface components imprinting, cell-mediated lithography, and microbial stamping.

Molecular imprinting, enlightened by molecular recognition in nature, is regarded as a prominent strategy for creating receptor-like synthetic materials (i.e. MIPs). MIPs have inherent qualities of low cost, and high stability and versatility compared to natural receptors. MIPs are thus widely used in a variety of areas, including separation, pre-treatment of samples, sensors, catalysis, and delivery of drugs, etc. The study additionally showed three main specialized applications of MIPs regarding microbial activation, microbial fuel cells, and detection and sensing of microorganisms.

Also read: GLUTEN-FREE PRODUCTS MORE HEALTHY?

References:

  1. Dar, K. K., Shao, S., Tan, T., & Lv, Y. (2020). Molecularly imprinted polymers for the selective recognition of microorganisms. Biotechnology Advances, 107640.

Link for the article: https://www.sciencedirect.com/science/article/pii/S0734975020301427

  • 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 Antibodies Beijing biomimetic specificity biomimicry microbial cells microorganisms molecularly imprinted polymers polymer polymerization Protein receptors sensor synthetic materials the template molecule

One thought on “MIP- a way for selective recognition of microorganisms”

  1. Pingback: SAlign - A System to connect global PPI network alignment - BioXone

Leave a Reply Cancel reply

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

Next Post
  • BiotechToday
  • World

SAlign - A System to connect global PPI network alignment

bioxone November 8, 2020

SHRESTHA DUTTA, AMITY UNIVERSITY KOLKATA Proteins are enormous biomolecules that carry out their work by interacting with different biomolecules. In recent times, the quantity of protein interaction information has been augmented significantly because of the advancement in high throughput tests. PPI systems of two species can be contrasted to identify evolutionary preserved interactions. It can […]

SAlign

Related Post

  • BiotechToday
  • World

Network structure alone can predict gene synchronization!

BioTech Today July 10, 2021July 9, 2021

Shrestha Dutta, Amity University Kolkata Gene regulation: Gene regulation in microorganisms has been examined since the time of the operon model of Jacob and Monod. Knowing the controllers and robotic analysis of gene expression has extraordinarily worked the comprehension of the cell signal process and has led to different applications in systems and life sciences. […]

Share this:

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

X10-23 reagent improves the activity of DNAzymes!

bioxone April 3, 2021April 3, 2021

Devyani Goswami, Amity University Kolkata DNAzymes area type of DNA catalysts. DNAzymes are known for their specialty in catalyzing site-specific cleavage of any RNA substrate. RNA-cleaving DNA enzyme has a catalytic core and two short binding arms which form Watson and Crick base pairs with the RNA targets. RNA cleavage is possible with the assistance […]

Share this:

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

TINY platform uses HDA to detect Tuberculosis rapidly

BioTech Today June 21, 2021June 20, 2021

Souradip Mallick, National Institute of Technology, Rourkela Tuberculosis Disease (TB) is a major infectious disease with a high rate of morbidity and mortality. TB is one of the tenth leading causes of death worldwide ranking above HIV/AIDS. The World Health Organization (WHO) estimated that about 1.66 million people died from TB in 2020. Thus, various […]

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