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P r o f K i s h...
P r o f K i s h a n D h o l a k i a w i n s O S A W o o d Aw a r d The Optical Society of America (OSA) has named our Professor Kishan Dholakia as the 2016 recipient of its prestigious R.W. Wood Prize. The R.W. Wood Prize was created in 1975 to honour of R.W. Wood, who was a pivotal contributor to the field of optics and a pioneer of infrared and ultraviolet photography. It is awarded for an outstanding discovery, scientific or technological achievement or invention. The accomplishment for which the prize is given is measured chiefly by its impact on the field of optics generally, and therefore the contribution is one that opens a new era of research or significantly expands an established one. This prize was endowed by the Xerox Corporation. The OSA award committee reviews nominations for each award, including curriculum vitae, four letters of recommendations and a statement of career accomplishment related to the award criteria, and presents its recommendations to the OSA Board of Directors. Professor Dholakia received this recognition for his pioneering research into optical micromanipulation using shaped light for interdisciplinary photonics-based applications. The optical manipulation refers to using light beams to pick up and move small objects, which has applications in medicine, physics, and other areas. By shaping light beams into special intensity distributions and combining this with special microscopes his team has been able to show a wide variety of interesting and useful effects. Elizabeth Rogan, CEO of The Optical Society, said: “The recipients of this year’s awards are paving the way to seminal discoveries which contribute to a greater level of understanding of the optical sciences. OSA is incredibly pleased to acknowledge their dedication and celebrates their success.” Professor Dholakia said: "It is a real honour to receive this recognition. I have always been fortunate to have interacted with outstanding colleagues, research fellows and students at St Andrews and worldwide. The science being recognised by this award is really a team effort and praise must also go to them. I hope to build on this wonderful accolade - the future is bright." OSA Announcement of 2016 prizes Prof Dholakia's research group Healing Light A new technique which delivers light deeper into human tissue than previously possible has been developed by researchers in our School and at Harvard Medical School. The new method, published in the journal Nature Communications, could help heal wounds faster and treat tumours more efficiently. Through a process called photochemical tissue bonding, light is applied to a wound to stimulate healing. Until now this technique has been limited to treating superficial wounds. The researchers set out to develop a technology for tissue repair that would allow this method to be applied deeper in the human body. The international team found a way to make biodegradable optical fibres which can be inserted into the body to deliver light to heal internal wounds locally, for example after surgery. Bioabsorbable optical waveguides, shown above glowing green, can be implanted into tissue to deliver light deeper and more effectively. After use, there is no need for removal as the waveguide disappears over time. Traditionally, fibre-optic devices or catheters have been fabricated from glass or plastic and remain in the body permanently or until removed through further surgical intervention. However, the St Andrews-Harvard research team shows how fibres can be made from materials that will be reabsorbed into the body, eliminating the need for removal and the risk of damaging the newly-repaired tissue. This advancement will give doctors the power to heal from within without scarring. Professor Malte Gather, of the School of Physics and Astronomy at the University of St Andrews, predicts that this breakthrough could have dramatic implications in medicine. He said: “A variety of optical techniques, such as photochemical tissue bonding and photodynamic therapy, require efficient delivery of light deep into tissues, but the current limited penetration of light in tissue constitutes a serious constraint in clinical use. “Having biocompatible and bioabsorbable optical components may transform photomedicine from a discipline where light is predominantly applied externally, to a new paradigm based on tissue-integrated and precisely controlled delivery and collection of light.” The research could also find application in a variety of other areas, such as long-term photodynamic therapy (PDT) for cancer treatment, as well as implanted endoscopy after surgery for repeated imaging and monitoring of the healing process. Paper in Nature Communications STV News Article in the Scotsman Prof Gather's research web pages 2 New Hope for Kidney Patients A discovery, published in the journal Biomedical Optics Express, could allow doctors to diagnose kidney diseases faster and for less cost – using a new super-resolution microscope adapted by Prof Kishan Dholakia and his team in our School. The breakthrough, achieved in collaboration with the Department of Pathology at Montefiore Medical Center and Albert Einstein College of Medicine, New York, could allow doctors a more efficient method for diagnosing nephrotic syndrome in the kidney – a group of debilitating and sometimes lethal diseases in which the kidney loses its ability to retain proteins in the blood, which are then carried into the urine. Until now detection and treatment have relied on the use of an expensive and time-consuming electron microscope. Now the St Andrews-NY team has developed an alternative light microscope which uses a patterned lightsource to overcome physical laws of diffraction – allowing a doubling in what had been considered the maximum resolution possible using this technology, ie the ability to see very small structures. Images of ultra-fine, diagnostically relevant features of [kidney/ nephrotic] disease (foot processes; FP) imaged by the new method (left) compared against traditional electron microcscopy (right). The sides of the superimposed triangle are about 1 micrometre in length. Members of the research team include Jonathan Nylk, Elaine C Campbell, Frank J Gunn-Moore and Michael B Prystowsky. To read more on this story see http://www.st-andrews.ac.uk/physics/news/Panda_news/ kd_kidnyemic_04_02_16.php Prof Dholakia's research pages Montefiore Medical Center School of Physics and Astronomy at the University of St Andrews 3 Max Planck Research School in Quantum Materials The School of Physics and Astronomy at the University of St Andrews is a founding member of the UK’s first international Max Planck Research School in the natural sciences. The International Max Planck Research School on Chemistry and Physics of Quantum Materials (IMPRS-CPQM), which was approved recently by the Max Planck Society, has just begun recruiting and will be looking into the exciting properties of materials where interactions between electrons often lead to unexpected phenomena. The Max Planck Research School is headed overall by Prof Andy Mackenzie based at the Max Planck Institute for the Chemical Physics of Solids in Dresden, in partnership with Dr Peter Wahl based at the School of Physics and Astronomy at the University of St Andrews. It will recruit up to 40 PhD students over the next four years, to work on collaborative projects surrounding the fascinating properties of quantum materials. It will link leading research groups from the University of St Andrews with partners in Germany, and provide unique training opportunities for PhD students. By working with this model, the IMPRS-CPQM can combine the strengths of the sites to create an outstanding range of facilities and research leaders. It builds on recent investment at the University of St Andrews in ultra-low vibration laboratories as well as in novel growth equipment enabling the design of materials at the atomic scale. The new IMPRS is open for applications now, with the first cohort of students to be recruited for Autumn 2016. See www.imprs-cpqm.mpg.de for more details of available projects and how to apply. The International Max Planck Research School on Chemistry and Physics of Quantum Materials Dr Peter Wahl's research pages at St Andrews PandA Website There have been a couple of new links put onto the School webpage: First is a link to the Who’s Who poster, which is only accessible to people within the school, so you don’t need to run round to the posters anymore when you just can’t put that name to the face! This will be updated in the Autumn at the same time as the posters. Second one is the PandA Marketplace, which again is accessible to only school people, so if you are looking for accommodation, have somewhere you’d like to rent out, looking for a flat share, or for example that bike has been sitting around for ages and collecting dust, then list it on the Marketplace, someone here may be looking for one. Email me at wc23 and I’ll include it on the page. Please let me know when the ad can come down, don’t want it being full of out of date items. Both links are available on the Staff and Students page – Who’s Who under Contact Details and PandA Marketplace within Staff Resources or scan the QR code. 4 S c i e n c e , S c e n e r y a n d S h i pw r e c k i n t h e S o u t h Dr Tom Brown On the 2 January 2016, whilst many were still recovering from their New Year celebrations, I departed from Glasgow Airport on route for Hobart, Tasmania to join the Australian research ship Aurora Australis as part of a 50 strong marine science team to take part in the K-Axis voyage (www.k-axis.voyage.) The goal of this project was to investigate an area of unusual marine life production in the East Antarctic region. There is a strong local connection as much of this area had only previously been explored by the RRS Discovery which is now dry docked in Dundee during the BANZAR expedition in 1929! As my contribution, I was taking an Optical Coherence Tomorgraphy (OCT) system developed within the School of Physics and Astronomy and using this to provide high resolution structural images of Antarctic Krill, one of the world’s most important food resources. Of particular interest was the potential to use advanced imaging techniques to understand the effects that global climate change and ocean acidifcation were having on this species. After a week or so of training, kit issuing and some delays, we finally departed Hobart on 11/01. Travelling south for around 10 days right through the Roaring Forties and the Furious Fifties gave me the chance to set up and test the OCT system. This was a particularly interesting experience for those of us used to conducting optics experiments in very stable labs and vibrationally isolated optical tables. The lab I was in was often moving up and down by meters at a time as the ship was rolling by 40 degrees in the rough weather we encountered. We sighted our first icebergs on 19/01, when I also got to meet King Neptune as we moved through 60S. Our science programme began on 21/01 and for the next 30 days my working day started at 1030 and finished at midnight as we conducted operations continuously in two shifts 24 hrs a day. Fortunately, this was not one of my TRAC weeks! At each of our 40 science station we carried out a range of experiments from stratified trawling down to 1000m to lowering oceanography experiments to within 5 m of the seabed (not bad considering we were often in over 4000m of water.) As well as conducting my imaging experiments I was also in charge of the acoustic data measurements on my watch and ran the targeted trawling for live Krill that took place whenever opportunities existed. During this period I managed to collect >100 GB of high quality OCT data without any major system problems – a great testament to all of those in St Andrews who had been in charge of developing the system. Along the way we saw vast amounts of wildlife including up to 100 humpback whales surrounding the ship as we fished one of the largest swarms of Krill that has ever been observed in E Antarctic waters. 5 On 20/02, we arrived at Mawson Station (67 36S 62 52E) which lies underneath a large group of mountains that stick up from beneath the Antarctic Ice Sheet. We spent the next few days resupplying the base for the next year with the cargo we were carrying. This was almost finished when a massive blizzard swept down from the ice sheet (winds >200 km/h) and broke all of the mooring lines on the ship which was blown onto nearby rocks and the hull severely damaged. Due to the severe weather we were unable to leave the ship for the following 48 hrs until finally we were taken off by boat and landed back at Mawson. The ship was assessed and the damage was too bad to allow it to carry passengers back to Australia so we now had to await evacuation from Antarctica “by other means.” Whilst the complex plan was put in place I had time to explore Mawson station and even had a day trip up to the mountains on the plateau itself. After a week or so at Mawson, the journey back to Australia began with a helicopter flight onto the Japanese naval icebreaker Shirase. We then spent 6 days travelling around 2500 km on the Shirase before being flown by helicopter to the Australian base at Casey (66 17S 110 32E.) At Casey we had to wait for the weather to be right before we could be driven the 80 km to an ice runway to be flown directly back to Tasmania in an A319 jet. After a week or so at Casey, everything looked right for flying home so we were taken in a convoy of snow mobiles to the airfield where we waited in the -27C temperature for our plane to arrive. Finally, the aircraft came into sight and appeared to do a pass over the airfield before disappearing. It turned out there was a problem with the aircraft and it wouldn’t land and headed back to Australia without us. We then had to spend another 2.5 uncomfortable hours bouncing back to station with some disappointed people! After another couple of days, we heard that an unexpected weather window had opened up and that we had to leave the station at 0500 the following morning to head back to the airfield. This time the plane did land and a 4.5 hour flight saw us landing back into the warmth of a Tasmanian summer day. At the moment, I’m still waiting to get my experimental kit and data back off the ship where we left in haste, but this was a truly memorable trip with some great fellow scientists, stunning landscapes and amazing animals. This research unlike anything I’ve ever done before and I’d recommend it to anyone – only try your hardest not to crash the ship! My thanks go to the EPSRC and Australian Antarctic Division for their funding, my colleagues of the V3 Marine Science Expedition and all of the Australian Antarctic expeditioners who made me feel so welcome and to all in School of Physics and Astronomy who allowed me to take up the trip when it was offered and then dealt with my random return dates! 6 Voices of the Future 2016 On the 2nd of March, Dr Duncan Forgan (pictured on the far right) joined scientists from a range of UK Science organisations to question MPs and ministers about key issues in science policy. Dr Forgan represented the Royal Society of Edinburgh and the University of St Andrews at the annual Voices of the Future event, where scientists take committee seats in Westminster, while key players in Parliament take the witness seats. This reversal of the normal select committee format aims to engage scientists in the political process, as well as emphasising the importance of evidence-based decision making in government. Those present engaged with The Speaker of the House, John Bercow MP; Government Chief Scientific Advisor, Sir Mark Walport; the Minister of State for Universities and Science, Jo Johnson MP; Shadow Minister for Business, Innovation and Skills, Yvonne Fovargue MP as well as members of the House of Commons Science and Technology Committee. Participants also heard a message from Major Tim Peake on the International Space Station. From there he answered two questions posed to him by participants. A range of topics were discussed including evidence-based policy making, the impact of the EU on UK science and technology; STEM education and the recruitment and retention of science and maths teachers; the growing danger of antimicrobial resistance; open data; the obesity epidemic; genetic engineering; global warming, fracking and energy policy; and the challenges of aligning politicians' goals and scientists' goals. https://www.facebook.com/School-of-Physics-and-Astronomy-University-of-St-Andrews453891687993483 Follow the Observatory on https://www.facebook.com/StAndrewsObservatory 7 @jgtelescope Students build their ow n wave machine Our first and second year courses have a number of demonstrations and simulations in them to help explain the phenomena involved. But in the current second year waves course things have got a stage more advanced in terms of student involvement, with a group of second year students choosing to build their own wave machine. Alisa, Elise, Imogen, and Adam had spent some time building a wave machine using gaffer-tape as the elastic medium and jelly-babies and skewers for the main masses. They are pictured here after demonstrating wave reflections and standing waves to the rest of the class. Apparently the biggest difficulty in making their wave machine was ensuring that their friends resisted the temptation to eat the jelly babies! Second-year coordinator and course instructor Dr Paul Cruickshank was delighted at this student initiative and was happy to have the students demonstrate various aspects of wave physics during their lecture. Students were also benefitted from him bringing in his electric guitar to illustrate some aspects of standing waves. School of Physics and Astronomy Physics 2B module synopsis The Scottish Exoplanet / Brown Dwarf Spring meeting 2016 which will be held in the MUSA Learning Loft at the University of St Andrews. Date: 25 April 2016 This is the third meeting in a series of bi-annual, informal meetings that will alternate between the University of St Andrews and the University of Edinburgh. http://sebd3.sciencesconf.org/ 8 Dr Hooley an IOP Explainer The School's Dr Chris Hooley was invited by the UK Institute of Physics (IOP) to explain in 100 seconds what is a topological insulator. This short video now features on the IOP website. Topological insulators are curious materials that are electrical insulators in the bulk of the material, but which can conduct electricity on their surface via interesting surface electronic states. As well as being of interest for probing the science of materials and electrical conduction, these materials may have application in quantum computation. Dr Hooley's research covers a range of topics in the theory of condensed matter physics, including quantum many body physics, ultracold atomic gases, complex temperatures, and non-equilibrium Kondo models. Although on research leave this session, he has enthusiastically contributed to our teaching programme across the levels, and has a reputation for being able to explore and explain a wide range of physics. IOP Video featuring Chris Hooley Research themes in condensed matter physics at St Andrews Engineering Quantum Matter Summer Workshop The TOPNES research programme is holding a workshop entitled ‘Engineering Quantum Matter – From Understanding to Control’ at the Byre Theatre from 8-10 June 2016. This event is being organised by Peter Wahl, Jonathan Keeling, Phil King, Jean-Philippe Reid and Sarah Webster from the TOPNES group in St Andrews and aims to bring together theorists and experimentalists to discuss how engineered quantum states can be exploited and designed to advance our current understanding and underpin future technologies. Additional funding has been secured from the International Max Planck Partnership and the Institute for Complex Adaptive Matter, enabling an exciting list of international speakers to be invited. It is expected that over 100 delegates from the UK and abroad will attend the workshop. All details including confirmed speakers and online registration are available at www.eqm2016.co.uk. Please contact Sarah Webster (sjw25) for details of the internal registration process. 9 Major industry boost for award -winning Lightpath technology Scottish research and development company PhotoSynergy Ltd (PSL) is enjoying a hat trick of successes as a major operator and two subsea service companies push the envelope to further the safety of their diving personnel and increase efficiencies in the subsea sector. The North Sea Operator has, for the first time, included PSL’s LIGHTPATH technology in its diving operations and management guidance document, which aims to ensure compliance with latest legislation and industry best practice. Meanwhile, leading international inspection, repair and maintenance (IRM) companies Harkand and Bibby Offshore have announced their continuing support for PSL’s LIGHTPATH range of products, which offer an innovative technical solution to sectors, including the challenging and hazardous subsea environment, where safety of life is paramount. Winner of the Subsea UK Innovation for Safety Award 2014, LIGHTPATH is a side-emitting flexible fibre that projects a continuous and flexible line of light that carries no electrical power and has a life expectancy of five years. PSL today (Thursday, February 4) launched the latest in its portfolio of subsea products – the SLS2000 – which was developed following feedback from divers and their teams, providing the option to illuminate the dive umbilical from the diver end. It was produced following requests from industry for a minimal-sized light source which would not impede the diver during his work. A small, compact unit at just 30mm in diameter and 70mm long, it was designed to provide a light source to saturation divers using an LED attached to the umbilical at the diver’s end. Operational sea trials of the unit – which can be used in both saturation and air diving – are planned with existing clients following successful competition of final in-house tests and third party pressure testing. PSL Director Don Walker said: “The recognition of the increased safety afforded to divers utilising the LIGHTPATH umbilical lighting concept by these companies marks a significant step for PSL, and we very much appreciate their support. PhotoSynergy Ltd For more history of the Lightpath see http:// scistand.com/2016/lightpath-st -andrews/ Photosynergy stand at Expo’16 10 Quantum dot solar cells Recent work performed in Prof Ifor Samuel’s research group on quantum dot sensitized solar cells has been published in the RSC Journal of Materials Chemistry A which focusses on materials for energy and sustainability. This research has been widely recognised and selected for the journal front cover. Current quantum dot solar cells use n-type materials which have a major drawback of slower hole transfer than electron transfer which leads to high charge recombination. Efficient ptype materials are very desirable for use in combination n-type materials but have so far lagged far behind. We have addressed this challenge and report efficient p-type (inverted) QD sensitized cells with non-toxic ternary quantum dots of CuInS2 and CuInSxSe2-x with various ligands and surface passivation. This not only combines the advantages of conventional QD cells with p-type dye sensitized configurations but also solves the problem of slow hole transfer rate. From our detailed photophysical study, we found that hole transfer rate is timedependent and cannot be determined using conventional approach of monoexponential decay. The average hole transfer rate achieved (108 s-1) in such systems is comparable to electron injection rates in conventional n-type QD assemblies. Inverted solar cells fabricated with various QDs demonstrate excellent power conversion efficiencies of up to 1.25%, which is 4 times higher than the best values for previous inverted QD sensitized cells. The picture shows that in our solar cell after light absorption the QDs inject a hole into a nanostructured p-type wide band gap semiconductor (NiO), while the electron is transferred to the redox electrolyte. EU Marie Skłodow ska-Curie Individual Fellow ship Caroline Murawski has recently received an EU Marie Skłodowska-Curie Individual Fellowship. The fellowship will fund her for two years to ‘enhance her career development and prospects by working abroad’. Caroline has done a PhD on organic LEDs and during her fellowship will be looking at novel uses of OLEDs in biophotonics. In particular, she will develop high-brightness OLEDs to stimulate neuronal networks with light. In contrast to existing light sources, OLEDs will enable flexible and biocompatible stimulation of cells with an unprecedented spatial resolution. With this new technology, neuroscientists and physicians may gain new insight into the functioning of the brain and may better understand neurological diseases. 11 Science Discovery Day 5th March 2016 The University held its annual Science Discovery/Family Fun Day on Saturday 5th March. There were loads of things going on throughout the day from all aspects of the Sciences—the Planetarium, build your own comet, giant bubbles, volcanos, electronic rainbows, gyroscopes, inflating marshmallows and loads more. It was great to see many hundreds of visitors of all ages enjoy the day. Many thanks to Dr Paul Cruickshank and Prof Ian Bonnell for coordinating the event, all the students and staff from all the schools for their hard work and all the visitors who made it all worthwhile. Photos by Wendy Clark. Next year’s Science Discovery Day is on Saturday 4th March 2017—Mark it in your diaries, whether you’re going to come along and help or come as a visitor. 12 Staff and Student News Joining since our last Newsletter are: Research Fellows: Ivan Gusachenko Finance Assistant: Poppy Nicholson Arunandan Kumar Welcome to .. Poppy Nicholson, our new Finance Assistant, who started with us in March. Poppy has a number of years of experience in HR and Payroll. She worked with the University in 2009 in the HR department, while studying with the Open University from which she graduated in 2014 with a BA (Open). She progressed from there to her HR career and branching out to Payroll and Finance. Please pop in and say hello. Farewell to .. Reg originally joined the University in 1966 as a Junior Technician in the Physics Department's mechanical engineering workshop. After a break of 4 years at the Scottish College of Textiles, he returned to St Andrews in June 1975 as the School's cryogenics technician. As one of the longest serving Technicians in the University, and the last Technician who worked at ‘Edgecliffe’ when the School was located there, Reg has seen many changes over the years and has many interesting tales to tell! Reg has personally produced well over a million litres of liquid helium and nitrogen during his career, and at one time was supplying customers from Aberdeen to Paisley! He was instrumental in the installation of our current Linde Helium Liquefier in 2002, one of only a few in the UK, and became very proud of the system he managed and operated. His knowledge of Cryogenics developed over many years and more recently he has been passing this on to the new team following in his footsteps. Reg was also the School’s Health & Safety Co-ordinator for many years, and was a member of the Ethics Committee. Having stepped back from his full time position at the end of February 2015, Reg was re-engaged in a part-time roll to ensure the new team were fully trained in all aspects of the operations of the cryogenics facility. He retired fully at the end of March 2016, leaving a legacy that will be challenging to follow. We all wish Reg the very best in his retirement and thank him for his many years of service to the School and the University. Our CDT Manager, Mrs Christine Edwards, will be retiring at the end of March this year. Christine has been with us from the CM-CDT's inception and played a pivotal role in setting up the centre and shaping how it operates today. Her efficient and professional approach to managing its operations, and her willingness to go “above-and-beyond”, has been enormously beneficial to each and every one of us, and I know that you will join me in wishing her all the best for her upcoming retirement. William Whelan-Curtin who leaves to go to the Tyndall Institute in Cork. And Nathalie Thureau, who moves on to pastures new We wish them all every success in the future. 13 Au r o r a 6 M a r c h 2 0 1 6 The Aurora Borealis, or Northern Lights, put on a good display on 6th March Dr Paul Cruickshank, Strathkinness Road Alex Thompson , St Andrews Joe Llama, the Quad - as seen on the ITV lunchtime news! 14 T h i s ye a r ’ s n e w l i t t l e P a n d A’ s Congratulations to Susan and Roman Spesyvtsev on the birth of their daughter Anna on 12th February Also to Liz and Phil King on the birth of their daughter Eleanor on 5th March And finally on 16th March, Fiona Mary Elizabeth, a daughter to Emma and Jonny Nylk 15 Al u m n i N e w s This is a new section for our quarterly newsletter, so we’d love to hear what our Alumni are up to. Email your story to [email protected] Springer Thesis Award Congratulations to Raphaëlle Haywood, whose PhD thesis "Hide and Seek: Radial-velocity searches for planets around active stars” has been selected for a Springer Thesis Award. Her thesis will be published as part of the Springer theses collection of outstanding dissertations from high-ranking university research departments in the physical sciences and engineering worldwide. Since finishing her PhD, Raphaëlle has taken up a postdoctoral position at the Harvard College Observatory, where she leads the target selection team for the HARPS-North project to determine masses of transiting planets detected with K2, NASA’s re-purposed mission for the Kepler spacecraft. She also coordinates the data analysis effort for the HARPS-North solar telescope on La Palma, monitoring “Sun-as-a-star” radial velocity variations caused by magnetic activity. Funding Council appoints new university research and innovation champion The Scottish Funding Council (SFC) has appointed its new Director of Research and Innovation. Dr Stuart Fancey is a graduate of the University of St Andrews and of Heriot-Watt University. He is a physicist whose career has taken him from cutting edge science in laboratory to the commercial world and, latterly, to the application of his experience to policy and strategy for supporting Scotland’s universities and colleges. Stuart began his career carrying out research in photonics at Heriot-Watt and subsequently held an EU Marie Curie Fellowship at the University of Hagen, Germany. In 2002, Stuart helped to establish a hi- tech start-up company in Livingston, Helia Photonics Limited, where he was instrumental in setting up production facilities and building the initial client base. Stuart joined the Scottish Funding Council in 2005 and played a leading part in the establishment of Scottish University Research Pools. These groundbreaking clusters of world-leading researchers are a Scottish success story and have grown into a £150 million programme of collaborations that has been imitated in countries around the world. Stuart is also central to the Scottish Funding Council’s current £120 million investment in Scottish Innovation Centres. Fusing industry leadership, commercial knowledge and the specialist expertise of universities across Scotland required high levels of negotiation and direction. He has supported Scotland’s world-leading university-business innovation service, Interface, which has helped Scottish universities to strengthen over 1,200 small businesses through innovation. Speaking about his appointment, Stuart said: “This is an incredibly exciting role which offers the chance to champion research in Scotland”. To read more on this go to http://www.sfc.ac.uk/communications/news/2016/NewResearchChampion.aspx 16 Forthcoming Colloquia Talks See http://talks.st-andrews.ac.uk/show/index/5 or the Colloquium Board in the foyer for up-to-date details Date Speaker From 8th April Prof Cait MacPhee University of Edinburgh, Biomolecular Physics 15th April Prof Tim Harries University of Exeter, Astronomy 22nd April Prof Doug Lin University of California, Santa Cruz Grants For the period 1st October – 1 January 2016 Name Sponsor Project Title Award Amount Ifor Samuel Photobiology Trust Fund Photobiology Kishan Dholakia European Commission H2020 MSCA Fellowship 2015 (Ivan Gusachenko) VOIDTRAP £130,303.20 Ifor Samuel European Commission H2020 MSCA Fellowship (Caroline Morawski) £130,303.20 Kishan Dholakia Technology Strategy Board Airy Light Sheet Microscopy for Neurological Imaging £45,000.00 Ifor Samuel EPSRC The use of creative art for explaining organic semiconductors £14,100.00 Ifor Samuel EPSRC Wearable organic optoelectronic sensors £26,050.00 Graham Turnbull EPSRC An Optical Sensor Platform for Detection of Explosive Remnants of War-InField Prototype Optimisation and End-User Engagemnet £38,963.00 Michael Mazilu EPSRC Single Detector Compressive Imaging £18,671.00 Phil King The Leverhulme Trust Philip Leverhulme Prize Nomination £42,050.00 £100,000.00 Next Newsletter The newsletter is compiled by Wendy Clark. If you’d like to suggest an item for inclusion in the next newsletter, please contact Wendy on [email protected] by 17th June 2016. 17