Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

An Overview on IPN and its Medicinal applications

View through CrossRef
Interpenetrating polymer network (IPN) is regarded as one of the most useful novel biomaterial. The invention of IPN can be rendered biocompatible and biodegradable has far reaching and profound long‐term implications for the pharmaceutical industry and indeed medicine as a whole. The excellent biocompatibility and safety due to its physical characteristics such as impart stability of the drug in the formulations, improves solubility of hydrophobic drugs, excellent swelling capacity and its biological characteristics, like biodegradability, impart bioavailability, drug targeting in a specific tissue and very weak antigenicity, made IPN the primary resource in both pharmaceutical and medical applications IPNs, two or more networks are at least partially interlaced on a polymer scale. Base on applications, polymers and polymer networks needs to have certain properties. IPNs can be used with interpenetration of suitable polymers to have desired properties for specific applications. The potential applications of IPN as drug delivery systems specially for the controlled release drug delivery systems. It was also used for tissue engineering including bone substitutes, stationary phase and cartilage scaffolds These systems which are also termed as ‘hungry networks’ or ‘intelligent polymers’ are currently the focus of considerable scientific research due to their potential technological application in a large number of areas: medicine, industry, biology and environmental clean-up. Some of the significant applications of IPNs include artificial implants, dialysis membranes, drug-delivery systems, burn-dressings, etc Interpenetrating polymer network has scope for its use as carrier system in drug delivery system. Characteristics of rubber can be modified by using different reinforcements.
Title: An Overview on IPN and its Medicinal applications
Description:
Interpenetrating polymer network (IPN) is regarded as one of the most useful novel biomaterial.
The invention of IPN can be rendered biocompatible and biodegradable has far reaching and profound long‐term implications for the pharmaceutical industry and indeed medicine as a whole.
The excellent biocompatibility and safety due to its physical characteristics such as impart stability of the drug in the formulations, improves solubility of hydrophobic drugs, excellent swelling capacity and its biological characteristics, like biodegradability, impart bioavailability, drug targeting in a specific tissue and very weak antigenicity, made IPN the primary resource in both pharmaceutical and medical applications IPNs, two or more networks are at least partially interlaced on a polymer scale.
Base on applications, polymers and polymer networks needs to have certain properties.
IPNs can be used with interpenetration of suitable polymers to have desired properties for specific applications.
The potential applications of IPN as drug delivery systems specially for the controlled release drug delivery systems.
It was also used for tissue engineering including bone substitutes, stationary phase and cartilage scaffolds These systems which are also termed as ‘hungry networks’ or ‘intelligent polymers’ are currently the focus of considerable scientific research due to their potential technological application in a large number of areas: medicine, industry, biology and environmental clean-up.
Some of the significant applications of IPNs include artificial implants, dialysis membranes, drug-delivery systems, burn-dressings, etc Interpenetrating polymer network has scope for its use as carrier system in drug delivery system.
Characteristics of rubber can be modified by using different reinforcements.

Related Results

The influence of modified VER on PU/VER IPN
The influence of modified VER on PU/VER IPN
PurposeThe aim of the paper is to develop a method to block hydroxyl groups of epoxy acrylate (AAEP) in vinyl ester resin (VER) and to study the influence of modified VER on polyur...
The biological applications of IPN hydrogels
The biological applications of IPN hydrogels
Background and purpose: Interpenetrating polymer network (IPN) hydrogels are an adaptable category of materials, exhibiting remarkable promise for various biological applications d...
Analysis of Risk Factors Related to Carotid Artery in Patients with Acute Ischemic Stroke
Analysis of Risk Factors Related to Carotid Artery in Patients with Acute Ischemic Stroke
Objective: Studying independent risk factors for carotid artery-related Acute Ischemic Stroke (AIS) in affected patients can help guide the clinical prevention ...
Mechanisms for anesthesia, unawareness, OIRD, sleep and memory replay: MHb→IPN→ PAG + DRN + MRN→claustrum→ cortical slow-waves.
Mechanisms for anesthesia, unawareness, OIRD, sleep and memory replay: MHb→IPN→ PAG + DRN + MRN→claustrum→ cortical slow-waves.
Opiates are fast pain relievers that can cause respiratory arrest. I show new mechanisms how mu-opioids and high prenatal nicotine cause respiratory slowdown linked to slow wave sl...
The Potential of Medicinal Plants and Bioactive Compounds in the Fight Against COVID-19
The Potential of Medicinal Plants and Bioactive Compounds in the Fight Against COVID-19
Severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2), a novel coronavirus , is causing a serious worldwide COVID-19 pandemic. The emergence of strains with rapid spread and...
Microporous membrane with temperature‐sensitive breathability based on PU/PNIPAAm semi‐IPN
Microporous membrane with temperature‐sensitive breathability based on PU/PNIPAAm semi‐IPN
AbstractThe semi‐interpenetrating polymer network (semi‐IPN) of thermoplastic polyurethane (TPU) and poly(N‐isopropylacrylamide) (PNIPPAm) was synthesized and fabricated into micro...

Back to Top