Agar is natural product derived from seaweed. During the production process all impurities are carefully removed to obtain an agar with a high gel strength, excellent clarity and low mineral content. The result is an agar well suited for cell cultures.

Store dry at room temperature

Agar Granulated, Bacteriological grade is a fine granulated agar with excellent characteristics for bacteriological growth.
Due to the fine granule structure of this agar dusting while handling is very low.

Store dry at room temperature

Agarose is a highly purified linear galactan hydrocolloid isolated from seaweed Gelidium species which forms a firm gel matrix with a high strength at low concentrations making it ideal for diffusion and electrokinetic movement of biopolymers such as DNA and RNA. Our Agarose Ultrapure is recommended for electrophoresis of nucleic acids > 1000 bp. It is manufactured and quality controlled specifically to meet the stringent requirements associated with nucleic acid applications. 

Agarose forms a 3D gel matrix of helical agarose molecules in supercoiled bundles. Each bundle is held by hydrogen bonds, with channels and pores through which molecules are able to migrate. The gel structure contains uniform pore sizes, allowing for the separation of biomolecules based on their size, charge, or affinity. This makes Agarose a crucial component in gel electrophoresis, used to separate and analyse DNA, RNA, and proteins based on their size and charge.

Agarose gels are transparent in appearance, allowing for visual analysis of separated molecules in gel electrophoresis without the need for staining or additional treatment. The gels also maintain their structure, even at relatively high temperatures, making them suitable for applications that involve heat, such as PCR (polymerase chain reaction) analysis of short synthetic DNA fragments.

Agarose is also biologically compatible with living cells, making it suitable for biological applications such as tissue engineering, where it serves as a scaffold for cell growth. Their biocompatibility and ability to mimic certain aspects of the extracellular matrix make them useful for growing cells in three-dimensional environments, aiding in tissue regeneration research.