The Hamlyn Centre for Robotic Surgery - supported by the Helen Hamlyn Trust - established at Imperial College London, will push forward the integration of robotics into medicine and patient care, with the aim of developing advanced robotic technologies that will transform conventional key-hole surgery, develop new ways of empowering robots with human intelligence, and create revolutionary miniature “microbots” that have integrated sensing and imaging for cancer surgery and treatment.
Establishing this new centre has been made possible through philanthropic support totalling £10m from both the Helen Hamlyn Trust and Lady Hamlyn personally. The Centre is to be co-directed by two UK pioneers in medical robotics, Professor Lord Ara Darzi who holds the Paul Hamlyn Chair of Surgery at Imperial College London and is an honorary consultant at Imperial College Healthcare NHS Trust and the Royal Marsden NHS Trust, and Professor Guang-Zhong Yang, Director of Medical Imaging at Imperial, supported by an interdisciplinary team of engineering and clinical scientists. The funding initiates a major campaign to establish an international centre of excellence for medical robotics in the UK.
In appreciation of the grant from The Helen Hamlyn Trust and the generous donation by Lady Hamlyn, Lord Darzi said: “Medical robotics and computer assisted surgery are used in a growing number of operating rooms around the world. This funding will allow the team to leverage our existing research programmes in pursuing adventurous, fundamentally new technologies that will allow more wide-spread use of robotics in medicine and patient care.”
He added: “This is a substantial amount of funding which will allow us to build on the current resources and infrastructure provided by Imperial College, the NHS and other funding agencies.
The Centre, which will be based at Imperial College London and a hospital in its associated NHS Trust (Imperial College Healthcare NHS Trust, St. Mary’s Hospital), will draw together under one roof world-leading experts in a range of disciplines, with the aim of creating a national resource in medical robotics that will benefit other UK research groups and industry.
Professor Guang-Zhong Yang, who will be directing the basic sciences and engineering research of the new Centre, commented: “The need to perform delicate surgical procedures safely in tight spaces where the surgeon cannot see directly has created a growing demand for devices that act as extensions of the surgeon’s eyes and hands. This creates a unique opportunity of developing new robotic devices that build on the latest developments in imaging, sensing, mechatronics, and machine vision.”
He added: “The potential benefit of medical robotics to patients is exciting and one of the major focuses of the centre is to develop new technologies such as the ‘perceptual docking’ concept for seamless integration of machine precision with human intelligence to allow safe, ubiquitous applications of robotics in healthcare.”
Sir Richard Sykes, Rector of Imperial College London, said: “Imperial College has a strong track record in pioneering surgical robotics both technically and clinically. We are very grateful for Lady Hamlyn’s generosity in initiating this major funding campaign that will establish a dedicated centre and UK focus for medical robotics. This will allow us to attract international talents and develop UK technologies that will transform the future development of medical devices. “
Lady Hamlyn, Chair of Trustees of the Helen Hamlyn Trust, said: “I am delighted that the funding from my Trust, together with my personal donation, will be contributing to the future development of robotic surgery and other innovations in this very important new field, which will greatly improve patient care in many areas, particularly in cancer care. My Trust has been closely involved with the development of robotics for some years, and this National Centre will enable Imperial to extend their pioneering work in this unique field.”
Colin Smith | alfa
Tracking lab-grown tissue with light
13.12.2019 | National Institute of Standards and Technology (NIST)
Stroke therapy - study shows positive effects of Urokinase
10.12.2019 | Universitätsspital Bern
Vaccinia viruses serve as a vaccine against human smallpox and as the basis of new cancer therapies. Two studies now provide fascinating insights into their unusual propagation strategy at the atomic level.
For viruses to multiply, they usually need the support of the cells they infect. In many cases, only in their host’s nucleus can they find the machines,...
More than one hundred and fifty years have passed since the publication of James Clerk Maxwell's "A Dynamical Theory of the Electromagnetic Field" (1865). What would our lives be without this publication?
It is difficult to imagine, as this treatise revolutionized our fundamental understanding of electric fields, magnetic fields, and light. The twenty original...
In a joint experimental and theoretical work performed at the Heidelberg Max Planck Institute for Nuclear Physics, an international team of physicists detected for the first time an orbital crossing in the highly charged ion Pr⁹⁺. Optical spectra were recorded employing an electron beam ion trap and analysed with the aid of atomic structure calculations. A proposed nHz-wide transition has been identified and its energy was determined with high precision. Theory predicts a very high sensitivity to new physics and extremely low susceptibility to external perturbations for this “clock line” making it a unique candidate for proposed precision studies.
Laser spectroscopy of neutral atoms and singly charged ions has reached astonishing precision by merit of a chain of technological advances during the past...
The ability to investigate the dynamics of single particle at the nano-scale and femtosecond level remained an unfathomed dream for years. It was not until the dawn of the 21st century that nanotechnology and femtoscience gradually merged together and the first ultrafast microscopy of individual quantum dots (QDs) and molecules was accomplished.
Ultrafast microscopy studies entirely rely on detecting nanoparticles or single molecules with luminescence techniques, which require efficient emitters to...
Graphene, a two-dimensional structure made of carbon, is a material with excellent mechanical, electronic and optical properties. However, it did not seem suitable for magnetic applications. Together with international partners, Empa researchers have now succeeded in synthesizing a unique nanographene predicted in the 1970s, which conclusively demonstrates that carbon in very specific forms has magnetic properties that could permit future spintronic applications. The results have just been published in the renowned journal Nature Nanotechnology.
Depending on the shape and orientation of their edges, graphene nanostructures (also known as nanographenes) can have very different properties – for example,...
03.12.2019 | Event News
15.11.2019 | Event News
15.11.2019 | Event News
13.12.2019 | Physics and Astronomy
13.12.2019 | Physics and Astronomy
13.12.2019 | Materials Sciences