Javascript must be enabled to continue!
A novel and efficient method for synthesizing magnetic PS-PMMA@Fe3O4 microspheres for protein separation and detection
View through CrossRef
Abstract
Immunoassay is the most widely used detection technique in clinical testing.Compared with the traditional enzyme-linked immunoassay, the chemiluminescence immunoassay system based on carboxylated magnetic beads as the separation tool is more advantageous, which can rapidly separate proteins and achieve the purpose of quantitative detection of proteins.Separation tools in chemiluminescence immunoassay techniques are key and the focus of research.However, the domestic technology of preparing carboxylated magnetic beads is still immature, and the market is monopolized by imported products, which is not conducive to the development of domestic chemiluminescence immunoassay technology.Based on this, we propose a simple and convenient new method for the preparation of magnetic microbeads.Firstly, styrene-methyl methacrylate microspheres were polymerized by dispersion polymerization and hydrolyzed to form carboxylated microspheres, then carboxylated microspheres were introduced in the process of classical co-precipitation reaction to synthesize magnetic microbeads, and magnetic microbeads with different magnetic contents were prepared and characterized.The separation effect was then tested by a fully automated chemiluminescence immunoassay analyzer, and it was found that carboxylated magnetic beads with a magnetic content of 20% were the most effective in separating proteins, and the coefficient of variation was as low as 3.41%, with a stable and reproducible performance.The chemiluminescence immunoassay technique can separate proteins in a short period of time with a very small amount of carboxylated magnetic microbeads, which is fast and efficient and will help in the early diagnosis of diseases in healthcare facilities and may be a better point-of-care assay.
Research Square Platform LLC
Title: A novel and efficient method for synthesizing magnetic PS-PMMA@Fe3O4 microspheres for protein separation and detection
Description:
Abstract
Immunoassay is the most widely used detection technique in clinical testing.
Compared with the traditional enzyme-linked immunoassay, the chemiluminescence immunoassay system based on carboxylated magnetic beads as the separation tool is more advantageous, which can rapidly separate proteins and achieve the purpose of quantitative detection of proteins.
Separation tools in chemiluminescence immunoassay techniques are key and the focus of research.
However, the domestic technology of preparing carboxylated magnetic beads is still immature, and the market is monopolized by imported products, which is not conducive to the development of domestic chemiluminescence immunoassay technology.
Based on this, we propose a simple and convenient new method for the preparation of magnetic microbeads.
Firstly, styrene-methyl methacrylate microspheres were polymerized by dispersion polymerization and hydrolyzed to form carboxylated microspheres, then carboxylated microspheres were introduced in the process of classical co-precipitation reaction to synthesize magnetic microbeads, and magnetic microbeads with different magnetic contents were prepared and characterized.
The separation effect was then tested by a fully automated chemiluminescence immunoassay analyzer, and it was found that carboxylated magnetic beads with a magnetic content of 20% were the most effective in separating proteins, and the coefficient of variation was as low as 3.
41%, with a stable and reproducible performance.
The chemiluminescence immunoassay technique can separate proteins in a short period of time with a very small amount of carboxylated magnetic microbeads, which is fast and efficient and will help in the early diagnosis of diseases in healthcare facilities and may be a better point-of-care assay.
Related Results
7
th
International Symposium on Enabling Technologies for Life Sciences (ETP)
7
th
International Symposium on Enabling Technologies for Life Sciences (ETP)
The seventh in the series of ETP Symposia (see
Rapid Communications in Mass Spectrometry
2012,
26
, ...
Sintesis dan Karakterisasi Nanokomposit Fe3O4@PEG:ZnO
Sintesis dan Karakterisasi Nanokomposit Fe3O4@PEG:ZnO
Telah dilakukan penelitian tentang sintesis dan karakterisasi sifat optik pada nanokomposit Fe3O4@PEG:ZnO. Sampel yang digunakan adalah Fe3O4, Fe3O4@ZnO (1:1), Fe3O4@ZnO (1:2), Fe3...
Pengaruh Fe3O4 terhadap Elektro Optik dan Magneto Elektrik pada PANI/Ag/Fe3O4
Pengaruh Fe3O4 terhadap Elektro Optik dan Magneto Elektrik pada PANI/Ag/Fe3O4
Tujuan penelitian untuk mengetahui (1) pengaruh penambahan Fe3O4 terhadap mikrostruktur pada PANI/Ag/Fe3O4 (2) pengaruh Fe3O4 terhadap konduktivitas film PANI/Ag-Fe3O4 (3) pengaruh...
Photoremoval of Ibuprophenin and Oxytetracycline and some microorganisms from a pharmaceutical wastewater via Ag-Fe3O4 nanocomposites
Photoremoval of Ibuprophenin and Oxytetracycline and some microorganisms from a pharmaceutical wastewater via Ag-Fe3O4 nanocomposites
In İzmir Turkey, a pharmaceutical industry wastewater produces drugs and antibiotics. The removals of these parameters were not sufficient with the conventional activated sludge pr...
Mechanical and thermal properties of polylactic acid blended with recycled polymethyl methacrylate
Mechanical and thermal properties of polylactic acid blended with recycled polymethyl methacrylate
AbstractThis study investigates the effect of incorporating recycled polymethyl methacrylate (r‐PMMA) into polylactic acid (PLA) and further modifications with a bio‐based compatib...
Research of Synergetic Reversal in Adriamycin - Resistance by the Application of Magnetic Nanoparticle of Fe3O4 and Tetrandrine in K562/A02 Leukemic Cells.
Research of Synergetic Reversal in Adriamycin - Resistance by the Application of Magnetic Nanoparticle of Fe3O4 and Tetrandrine in K562/A02 Leukemic Cells.
Objective: To prepare functionalized Fe3O4-magnetic nanoparticles(Fe3O4-MNPs) loaded with adriamycin(ADM) or Fe3O4-MNPs co-polymerized with ADM and tetrandrine(Tet) to investigate ...
Properties Comparison of Fe3O4 Particles with Different Morphologies as Mimetic Enzyme
Properties Comparison of Fe3O4 Particles with Different Morphologies as Mimetic Enzyme
In this work, four different magnetic Fe3O4 nanoparticles are prepared via solvothermal method. According to the morphology, the products can be divided into flower-like Fe3O4 (F-F...
Construction of Magnetic Nanochains to Achieve Magnetic Energy Coupling in Scaffold
Construction of Magnetic Nanochains to Achieve Magnetic Energy Coupling in Scaffold
Abstract
Background: Fe3O4 nanoparticles are highly desired for constructing endogenous magnetic microenvironment in scaffold to accelerate bone regeneration due to their s...

