Uploaded May 2015 | Updated September 2026, 1 day ago
A talk by Professor David Cardwell, head of the Department of Engineering at the University of Cambridge.
The discovery of the so-called High Temperature Superconductors in 1987, which are able to conduct very high electrical currents and hence generate extremely high magnetic fields at liquid nitrogen temperatures, was heralded as the most significant scientific breakthrough since the discovery of the transistor. This talk describes in a substantially non-mathematical way the properties of these remarkable materials, their manufacture and their potential for engineering applications, which include frictionless bearings, energy storage systems, MRI and high field permanent magnets.
David Cardwell studied Physics at the University of Warwick between 1980 and 1986, graduating with a BSc in 1983 and a PhD in 1987. He joined Plessey Research (Caswell) on completing his PhD prior to moving to Cambridge in 1992. He is currently Professor of Superconducting Engineering in the Department of Engineering, University of Cambridge, where he leads the Bulk Superconductivity Research Group.
His research focuses on superconductors - materials which, when cooled, can carry an electrical current without losing energy, unlike standard conductors such as copper wire. At the moment up to 10% of electrical energy is lost in transit before it reaches the user. Recently, Dr Cardwell and his team has made a breakthrough in the manufacture of high-temperature superconducting materials. This could be used to protect the National Grid as well as revolutionise the production of MRI scanners.
Video courtesy of the Institute of Continuing Education (ICE).
A talk by Professor David Cardwell, head of the Department of Engineering at the University of Cambridge.
The discovery of the so-called High Temperature Superconductors in 1987, which are able to conduct very high electrical currents and hence generate extremely high magnetic fields at liquid nitrogen temperatures, was heralded as the most significant scientific breakthrough since the discovery of the transistor. This talk describes in a substantially non-mathematical way the properties of these remarkable materials, their manufacture and their potential for engineering applications, which include frictionless bearings, energy storage systems, MRI and high field permanent magnets.
David Cardwell studied Physics at the University of Warwick between 1980 and 1986, graduating with a BSc in 1983 and a PhD in 1987. He joined Plessey Research (Caswell) on completing his PhD prior to moving to Cambridge in 1992. He is currently Professor of Superconducting Engineering in the Department of Engineering, University of Cambridge, where he leads the Bulk Superconductivity Research Group.
His research focuses on superconductors - materials which, when cooled, can carry an electrical current without losing energy, unlike standard conductors such as copper wire. At the moment up to 10% of electrical energy is lost in transit before it reaches the user. Recently, Dr Cardwell and his team has made a breakthrough in the manufacture of high-temperature superconducting materials. This could be used to protect the National Grid as well as revolutionise the production of MRI scanners.
Video courtesy of the Institute of Continuing Education (ICE).










![Richard Marques Monteiro: Breaking the wall of AI language learning
PhD student Richard Marques Monteiro, from the Department of #Engineering’s Machine Intelligence Laboratory, pitched his project, which involves the introduction of a new control technology to replace the time-demanding role of the user in AI #technologies.
Richard was one of 11 presenters who was challenged to pitch his innovative idea to an audience, including a panel of judges, in just three minutes, as part of the #FallingWalls Lab Cambridge: https://www.eng.cam.ac.uk/news/showcasing-breakthrough-research-creates-positive-impact-science-and-society
The Falling Walls Lab Cambridge was organised by the Department of Engineering, @cambridgeuniversity; the Federal Foreign Office of Germany; and the German Academic Exchange Service (DAAD).
[These subtitles were AI generated and yet to be verified]. Richard Marques Monteiro: Breaking the wall of AI language learning](https://i.ytimg.com/vi/ROj119hiQd0/mqdefault.jpg)