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.

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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.

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

Technology advisory board - Professor Daniel Branton
Professor Daniel Branton
Professor Daniel Branton
Harvard University
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Professor Branton is Higgins Professor of Biology Emeritus at Harvard University. His research areas include nanopore technology and single molecule probing, molecular organisation of cell membranes and cell biology. He has held positions at Harvard University in Cambridge, MA and the University of California, Berkeley.

The Harvard Nanopore Group
The Harvard Nanopore Group is led by Professor Daniel Branton and Professor Jene Golovchenko. The group has been investigating electronic methods for very rapidly detecting, characterising and sequencing single molecules of DNA. A detector consisting of a single nanopore in a thin, insulating, solid-state membrane could mimic the function of alpha hemolysin pores in lipid bilayers, while serving as a platform for integrated electronic detection devices.The group’s research has led to the development of a new ion beam based method for creating nanoscale structures in semiconductors called "ion beam sculpting".

The Group is also developing other applications that may utilize the sensitivity and speed of nanopore probing, and is investigating the physics of DNA polymer movement through the confined space of a nanopore, coordinating the application of material science tools to fabricate solid-state nanopores, and developing the associated biochemistry, molecular biology, electronics, and signal processing to effect molecular recognition.