Merck, A9918-25G, Agarose

Application

Porous Agarose Layered Magnetic Graphene Oxide Nanocomposite for Virus RNA Monitoring in Wastewater.: This innovative study showcases the use of agarose in the creation of a nanocomposite material for environmental monitoring, specifically for tracking viral RNA in wastewater (He et al., 2024).

Detection method for reverse transcription recombinase-aided amplification of avian influenza virus subtypes H5, H7, and H9.: Demonstrates the application of agarose in the development of diagnostic tools for detecting and monitoring avian influenza, emphasizing its critical role in enhancing bioanalytical methods (Zhang et al., 2024).

Evaluating Nanoparticles Penetration by a New Microfluidic Hydrogel-Based Approach.: This research utilizes agarose-based hydrogels in a microfluidic system to study nanoparticle penetration, offering insights into cellular interactions and nanoparticle dynamics that are essential for pharmaceutical development and nanotechnology (Goodarzi et al., 2024).

Antibacterial efficacy of copper-based metal-organic frameworks against Escherichia coli and Lactobacillus.: Agarose has been used to perform agarose gel electrophoresis for the synthesis of copper-based metal-organic frameworks, enhancing the antimicrobial properties of these compounds. This application points to the expanding role of agarose in antimicrobial research, relevant for both clinical and agricultural settings (Elmehrath et al., 2024).

Analysis Note
The following is a list of properties associated with our agaroses:
Sulfate content - used as an indicator of purity, since sulfate is the major ionic group present.
Gel strength - the force that must be applied to a gel to cause it to fracture.
Gel point - the temperature at which an aqueous agarose solution forms a gel as it cools. Agarose solutions exhibit hysteresis in the liquid-to-gel transition - that is, their gel point is not the same as their melting temperature.
Electroendosmosis (EEO) - a movement of liquid through the gel. Anionic groups in an agarose gel are affixed to the matrix and cannot move, but dissociable counter cations can migrate toward the cathode in the matrix, giving rise to EEO. Since electrophoretic movement of biopolymers is usually toward the anode, EEO can disrupt separations because of internal convection.