About the research of Dr Rob Pal in Durham UniversityRead More
My research is about interactions in soils. I use modelling to get molecular-level view onto surfaces of minerals and solids. The applications range from industrial, to environmental, such as decontamination of water and even to the search for life on other planets.
I am a theoretical chemist, interested in understanding how light interacts with molecules. This topic is very important for many daily applications and also for understanding what happens in the atmosphere when molecules absorb sunlight.
I am a biophysicist, and I use computers to study the molecular mechanisms of life. Understanding how our body works at such a small scale is key to inform the design of new therapies to fight diseases.
I study how bacteria repair their DNA after it has been broken by antibiotics. I use fluorescence (the one that makes it glow) microscopy to look at how the repair is happening inside bacteria.
I am using computer models and simulations to study what is going on inside the ion channels of our nerve cells. They are the molecules which enable our nervous system to communicate by sending messages of electrical pulses.
My background is in applied maths and physics. Now, as a computational chemistry PhD candidate, I am interested in the design of new medications, using purely computer-based methodologies. I also love to talk about science with people from all backgrounds!
My research looks at how radiation affects our cells. Now, at Edinburgh, I work with scientists and communities to share passion for science
My research uses computers to understand how the molecules in your body interact with each other. This is important, both to understand what keeps you in tip-top shape and so we can help design drugs to combat diseases.
I develop computer-based methods to model behaviour of essential molecules in our bodies - proteins. Their malfunction is responsible for many diseases and body responses to them, and I am particularly interested in antimicrobial resistance.
I am interested in how proteins (important molecules in our bodies) interact with drugs, salts and other biomolecules. My background is in pharmaceutical sciences, and now I use artificial intelligence and computer simulations to understand these interactions to help develop better treatments.
I am an undergraduate in chemical engineering at North Carolina State University. My research focuses on developing microfluidic devices for modelling early placental development and microscope image analysis techniques.
I hold a BSc in Agriculture (crop production) and an MRes in Food Sciences & Engineering (food material processing). I am currently doing a PhD in Food Sciences, studying how the structural and functional properties of protein-rich material (grains) occur from processing. At this stage, I am using microscopy to observe the matrix of flours.
My research is in physical chemistry and we want to understand the fundamentals of chemical reactions. Using X-rays (so similar radiation to that used to check if your bone is broken) we are trying to 'film' how atoms move during a reaction on very short timescales.
I’m a biophysicist studying proteins at Durham. I’m interested in why some of them clump together whereas others don’t - this could help us understand more about certain diseases. I do all of my experiments on a supercomputer which allows me to look at a lot of systems in a short space of time.
We all rely on grasses to live. Most of our staple foods are grasses (like wheat and maize) or are fed by grasses (like cows). I study how grasses crops, like barley and maize (sweetcorn) grow. By understanding how plants grow we can help produce new crop varieties that produce more of what we need under different environmental conditions.
I am interested in how proteins (important biomolecules for life) interact with each other to maintain proper cellular functions. It is important to study such protein-protein interactions as they will help us understand how mutations (abnormality) in proteins can lead to the development of various diseases.
I'm a postdoc at KU Leuven, Belgium at the Department of Chemistry. Where I'm working on metal halide perovskites for X-ray detection and LEDs
I am a PhD student from Brazil in Clinical Neurosciences at the University of Oxford. My research focuses on exploring potential treatment options to Parkinson’s disease and essential tremor that do not involve medication or surgery. I study how and if we can reduce tremor by stimulating the nervous system noninvasively, from the periphery.
I am a molecular biologist trying to understand how the cells in our body work! I am especially interested in how our cells use tiny molecules called RNA to communicate with the mitochondria, which are the bits of the cell that make energy. Without these messages we can’t power our bodies properly, so understanding this process will help to keep us healthy!
I am a post doc researcher at IFOM, a cancer research institute in Milan, and I am interested in understanding the biological mechanisms involved in bone marrow-derived stem cells differentiaition.
I am a biologist, I have obtained my Master degree in Biochemistry and Molecular Biology at University of Roma Tre (Rome, Italy), then I moved to Edinburgh University for my PhD in Biochemistry and Structural Biology. I am currently applying structural biology techniques to cancer targets.
I am a computer scientist who does research to make computers act more cleverly. This is called "Artificial Intelligence" where we try to write code that acts like a brain to make computers do stuff like painting, writing stories, or composing music. My picture was painted for me by a computer to be in style of Vincent van Gogh. Maybe one day robots will do all the science for us!
I hold a master’s in Food Science and Food Engineering. Currently I’m doing a PhD on surfactant science and rheology that is hidden behind liquid food foams and especially coffee foam. I am interested in the phenomena that occur in a food system and the use of these phenomena in order to develop innovative solutions in food industry.
I am amazed by how chemistry can help us to understand the biological world around us. My current PhD research uses infrared spectroscopy (a method which uses light to make molecules shake) and machine learning (clever maths) to investigate the invasive plant species Japanese knotweed.
My research focuses on synthetic biology. I try to reprogramme the genetic blueprint of yeast and bacteria in order to turn them into microscopic factories that produce valuable chemicals and pharmaceuticals. By using microorganisms, we can reduce the amount of energy and resources, reduce our carbon footprint, and help save the planet!
I am a material scientist and an enthusiastic electron microscopist. I often use electron microscopes (SEMs and TEMs) to see the teeny-tiny nanoparticles comprising the Earth aimed at understanding how things work and potentially improving them.
I have a PhD in geophysics. I study climate change, climate of the past, greenhouse gases and glaciers. Now I am in Russia working as a researcher for the Russian academy of sciences.
I am a postdoc at Oxford University. I am studying protein structures related to diabetes or cancer. By using structure information we can design drugs accordingly.
Have you noticed butterflies and moths feeding from flowers or maybe you have been annoyed by flies that always evade your swats? The insect brains powering these actions are minuscule (as big as the head of a pin in the case of a fly), and yet they perform such exquisite behaviors! I try to understand how they do this by studying both the behaviors and brains.
I work in the department of chemistry and my PhD is looking at water purification applications. I am making new two-dimensional materials (nanosheets) and using them in polymer membranes to give better filtration devices. Ideally we will be able to remove salts from water, making sea water drinkable.
I am a chemist that uses really quick LASERS to track molecules in a reaction. The light lets me see how the molecules ‘jump’, vibrate, react, and respond to light as well as the other molecules around them and hopefully from this we can work out how to make the reactions more efficient or study how they change in the presence of different molecules.
I am an experimental physicist studying squidgy things i.e. soft matter physics and materials. You have probably encountered many soft materials today already: milk, yoghurt, toothpaste, slime and soap are but a few examples! I am involved in collaborations on interfaces in energy materials and on equality, diversity and inclusion in STEM.
I work in cancer research to try and identify what genetic mutations increase the risk of somebody developing cancer and why, with a particular on colorectal cancer. To do this I sequence DNA from cancer patients and also analyse lots of data that's already been collected. Understanding what increases cancer risk in certain people will allow us to develop therapies that are best suited to them
I’m a group leader at the Fritz Haber Institute of the Max Planck Society in Berlin and my researches revolves around fundamental processes in atoms, molecules and photons. We study data-driven science, cold and ultracold chemistry as well as physics beyond the standard model with atoms and molecules.
I come from a chemistry background, but am passionate about all science, in particular the history of it. I currently study chemistry at Durham.
I am doing my PhD in laboratory astrochemistry at Edinburgh. I came to Scotland in 2018 for my master thesis and got the opportunity to stay here. I just entered the second year of my PhD. In my free time I like to read fiction and philosophy, go to the cinema or discover Scotland a bit.
I am a materials chemistry PhD student from the University of Liverpool and I am interested in green ways of generating electricity so that less pollution is released into the atmosphere.
I am a quantum mechanic. I solve the equations of quantum mechanics to try and address important scientific and technological problems such as How much light does one molecule of carbon dioxide absorb? What are the signatures of molecules in the atmospheres of planets orbiting other stars (exoplanets)? I run a major project on this called ExoMol (google it). What are the physical processes that occur in the plasmas used for such processes as making silicon chips?
I hold a Master's degree in process engineering. I'm interested in finding ways to create environmental friendly and low cost processes for the production and use of energy sources and various industrial products.
I am a biochemist. I study proteins. I seek to understand what they do in every cell in our body, and also to understand what goes wrong with them in disease. I also try to design useful new proteins. Outside the lab I like to knit, read and walk in the countryside.
I am a theoretical chemist looking into what happens to molecules after they were exposed to light. In my PhD, I am trying to develop new methods for computer simulations, that will allow a better description of these processes.
I’m interested in the way that proteins move around the cell to help them communicate and build a body! I study lots of different diseases and developmental problems that are caused when this communication goes wrong.
I originally studied astronomy (space) but realised that I liked hands-on work, so I moved into building devices to measure oxygen in blood. I also make machines that measure the twisted light that comes from twisted molecules.
I study the body’s immune system in people who have long term problems with their gut. I want to know how the molecules that are made by cells change when the gut becomes inflamed and how we can use this knowledge to treat illness.
My research specialises in understanding how viruses interact with the body, which will help us to design new antiviral treatments! I love getting involved in making science more accessible to everyone- no matter your age!
I am a neuroscientist, always interested in understanding how tiny mutations in the DNA can cause devastating diseases. In particular, and for many years I have been using fruit flies to study human neurodegenerations and to identify effective therapies for them.
I use computer models to explain how molecules behave under the sun! By this I can help make even better solar cells
I am organic chemist, that guy in (what used to be white) lab coat boiling (not blowing!) things up
I use powerful microscopes to understand how proteins, the miniature machines in our body, can lose their structure and clump together. This involves shining laser light on molecules that are 10,000 times smaller than the width of a single hair!
I am a second year PhD student in the department of Plant Sciences at the University of Oxford 🌱 I am working on a synthetic biology project to engineer variants of enzymes that are involved in photosynthesis. Photosynthesis enables plants to capture energy from the sun and turn it into sugars that power the plant, and I am aiming to increase flux through this process. As well as just being interesting for its own sake, hopefully this will have applications in crop development.
I focus on making lots of different gels to see how these can be used to change how crystals grow and how their structures change when grown in gels. Pharmaceutical drugs can form crystals with very different properties and it's important to understand how gels can affect these. I'm also interested in changing gel properties and structure and recently tried to make gels that respond to light!
I am a postdoctoral researcher currently at the University of Potsdam, Germany, whose studies concentrate on trying to better understand how individual atoms in a molecule move during a chemical reaction, though am personally interested in all aspects of science.
I'm a chemist by training and a physicist by choice. My main interests are in the chemical and physical processes that control the evolution of the Universe, the chemical and physical processes that occur at the surfaces of solids and many aspects of the chemistry and physics of our atmosphere including global warming. I won a Scottish "Meet the Scientist" event online in 2019.
As a theoretical chemist, I use computer to model and understand the interactions between light and matters (atoms and molecules) in strong magnetic fields, like the ones found on stars like White Dwarfs, neutron stars, and pulsars.
I am a Petroleum Geoscientist - I use different kinds of data to study where oil and gas might be found. Oil and gas have a wide variety of uses, including providing electricity for our homes and schools. Crude oil is converted at oil refineries into fuels such as diesel, gasoline and to power cars, firetrucks and aeroplanes.
I'm in the third year of my Ph.D. program. I study physical chemistry, specifically the way that gases react with light and one another. I use lasers, high-voltage electronics, and powerful vacuum technology in order to take pictures of molecules after we break them apart.
I have a PhD degree in Hard Tissue and Regenerative Biology. My research focuses on creating a new bone graft/ biomaterial to act as a 3D scaffold to repair or restore damaged alveolar and craniofacial bone tissues. I am interested in clinical and pre-clinical teaching and research counted in Maxillofacial & Craniofacial sciences, Biomaterial science and Tissue engineering
I have a PhD in theoretical Chemistry. I work at the University of Perugia as a researcher and teacher. My research focuses on the study of the dynamics of elementary chemical processes in astrochemistry and in the production/ transfer of energy.
I am a PhD student at Edinburgh University studying plant biology, which is super important to ensure we have healthy crop plants to feed the planet with. In my lab we study plant diseases - yes, plants can get sick with viruses and bacterial pathogens just like humans! We also investigate how plants tell the time - also like us humans, plants go to “sleep” and know what time of day it is! I am really interested in understanding how this plant clock regulates defence to disease-causing pathogens.
I am a physical chemist, working at the interface of organic chemistry and biophysics, with expertise in lanthanide based sensors and cellular probes. In recent years, I have focused my research interests on innovation in the development of bespoke optical instrumentation, notably for high resolution, affordable microscopy and in portable optical spectroscopy for emission and circular polarised luminescence. In addition, I strive to capitalise on my new research interest in targeted light activated molecular nanomachines. My ethos of public engagement has always been to ‘Educate and Entertain’. It is centred on providing education to everyone regardless of geographic location, demographic and sociological status not only to raise awareness of our research outcomes but also to inspire the next generation of scientists.
I come from materials chemistry background. I am interested in molecular studies of clay minerals and how these can be used to clean up polution, for example pharmaceuticals from water.
I am a Computer Science Undergraduate at Durham University entering my final year in October. My main interests are in Machine Learning, but I am also interested in most areas in computer science.
I'm a logician working at Durham University and a mother of an 8 year old. I have two cats and I like to write science fiction and fantasy stories.
I work on understanding how molecular processes happen inside a solvent using mathematical models. Such processes form a fundamental description for photosynthetic reactions, working of your eye, and several DNA processes in the body.
I am interested in the resources our planet gives us - how can we get the most out of what we are given?
I'm a biomedical researcher based at KU Leuven, Belgium. I specifically research molecular pathways behind heart failure. I am very enthusiastic about scientific outreach, already engaging in the skype a scientist initiative and the pint of science festival.
I am a synthetic chemist working towards a more efficient and sustainable plastic production. When in the lab, I spend most of my time in a glove box where I handle air- and moisture-sensitive chemicals, some of which catch fire when exposed to air or water!
my research is about how the quality of aviation fuel can be improved for commercial aircrafts To be more environmentally sustainable. Beside studying, I love having long walks into the nature and exploring the natural wonders of the world
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SCIENTISTS are helping children keep learning during lockdown by hosting live experiments over video calls. Through the Scientist Next Door project, founded by researchers from Durham and Edinburgh universities, over 50 scientists from around the world are taking part in video calls aimed at encouraging pupils’ interest in STEM subjects. Small groups of scientists run video calls with a family to discuss the science behind daily processes and encourage children to undertake supervised experiments at home or demonstrate them live.The Northern Echo, read more...
Since it began on Wednesday 25 March, Scientist Next Door has made over 40 calls to children aged four to 17. The calls have covered topics as diverse as extracting DNA from a strawberry, comparing fingerprints, why boats float and balloons fly, how sunscreen works and why we see auroras in the dark winter sky. The project has a website with a wide range of resources, including information about COVID-19. This explains what it is, models a pandemic and shows why hand-washing is important. The project was founded by Dr Valentina Erastova from Edinburgh and Drs Basile Curchod and Matteo Degiacomi from Durham. It has involved scientists from the universities of KTH in Stockholm, Nottingham, Lancaster, Rutgers, Cornell, Bangalore, Barcelona, Perugia, Athens and Oxford...Palatinate, read more...
A group of researchers is overcoming the barriers of lockdown, to help school children discover the wonders of science in their own homes. Pupils and their families can now join live chats with scientists and be guided through unusual experiments – such as how to make a lemon battery. The organisers, from the Universities of Edinburgh and Durham, hope that the project will help stimulate scientific interest and learning among children – during the restrictions imposed by Covid-19...University Of Edinburgh: COVID-19 RESPONSE, read more...
We love sharing our passion for science with the next generation – and COVID-19 isn’t going to stop us!Durham University: University and City: Growing together, read more...
Scientist Next Door creates a platform to share our passion for science and to help bring up the new generation of fantastic scientists! This initiative is by a small group of scientists from the Universities of Edinburgh and Durham. We support parents through group video calls, blogs to support individual child's learning needs and shared educational resources...Department of Chemistry: Durham University, read more...
“We want to encourage children to be curious about science and the world around them. As scientists, we were concerned that lockdown would widen the gap in the uptake of sciences by children and we wanted to provide a fun and accessible platform for their continued learning.” – Dr Valentina Erastova, Chancellor’s Fellow, University of Edinburgh School of Chemistry and founder of the Scientist Next Door. “Our goal is to give support to families that are currently not benefiting from science connections, events and activities. Through this, we believe, we can lower the barriers that prevent pupils from the least advantaged backgrounds pursuing their aspirations in science.” – Drs Basile Curchod and Matteo Degiacomi, Lecturers, Durham University, Chemistry and Physics Departments and co-founders of the Scientist Next Door.Viral Stories: Collating the best stories from UK Universities during COVID-19, read more ...
Scientist Next Door - Website helps families learn and discover science together. As of today, COVID-19 lockdowns are implemented in more than 160 countries around the globe, affecting over 90% of the World's student population. This impacts directly on children's education, removing an opportunity to learn through activities and interactions. The uptake of science by children is strongly correlated with their socioeconomic background, their family connections with scientists and the possibility to engage in experiments and practicals during lessons. Therefore, the additional burden of home-schooling further widens the gap between classes accessing to sciences...School of Chemistry: University Of Edinburgh, read more...
...the Scientist Next Door project aims to support families by creating a new inclusive culture and learning science together. The website www.scientist-next-door.org is a platform to provide interesting materials, experiments and to organise calls. Families can participate in video-calls around a topic of their interest with a group of scientists, and ask them questions and do experiments together, guided or demonstrated by scientists...SynthSys: Centre for Synthetic and Systems Biology, University Of Edinburgh, read more...
Many of us were suddenly faced with the daunting task of homeschooling our children while schools were closed. While teachers still offered up as much support as they could, there were concerns about children missing out by not being in the classroom. Valentina Erastova, Chancellor’s Fellow in the School of Chemistry, decided she could help. With Basile Curchod and Matteo Degiacomi, both academics from Durham University, Valentina created Scientist Next Door, an online community of scientists able to teach science and help conduct experiments with children stuck at home. Here she talks to bulletin about the project.University of Edinburgh Staff Magazine, read more...