Oxford Nanopore Technologies Ltd

MinION is a pocket-sized portable device used for real-time biological analysis. It is adaptable to the analysis of DNA, RNA, or proteins. MinION's simple workflow allows end-to-end experiments in many environments.

Start using MinION

PromethION combines MinION's simplicity of use with greater workflow flexibility through scale and a modular design. Increase throughput by analysing the same sample simultaneously in multiple flow cells, or run different samples concurrently.

The GridION system, currently in development, is a scalable real-time analysis system designed to analyse single molecules such as DNA, RNA and proteins.

Metrichor provides a cloud-based platform for real time analysis of data from nanopore devices. Applications available through Metrichor will expand with the ultimate goal of enabling the analysis of any living thing, by any user, in any environment.

Start using MinION

Register to join the MinION Access Programme (MAP) to use MinION – our portable, real-time molecular analysis tool.

Technology advisory board - Professor Mark Akeson
Professor Mark Akeson
Professor Mark Akeson
University of California, Santa Cruz (UCSC)
go back

Professor Mark Akeson is Co-Director, UCSC Nanopore Laboratory and Adjunct Professor, Biomolecular Engineering – University of California, Santa Cruz.

Professor Akeson joined the Nanopore Laboratory at the University of California, Santa Cruz, in 1996. He led a joint research effort between UCSC and Harvard University showing that sequence identity could be read along individual RNA molecules at thirty nucleotide resolution. Professor Akeson and his colleagues pioneered the use of nanopores to examine sequence-specific binding of DNA polymerases to individual DNA templates.
Currently, Professor Akeson and his collaborators focus on two research areas: firstly, the use of feedback control to analyse DNA/protein interactions at the single molecule level; and secondly, coupling of processive DNA-modifying enzymes to biological nanopores at millisecond temporal resolution.