Under the Microscope: Biomedical Image Discovery
A glimpse into the world of biomedical imaging, through the eyes and thoughts of researchers at the Francis Crick Institute.
Snapshot of scientists at work in the Francis Crick InstituteFrancis Crick Institute
Every day, scientists at the Francis Crick Institute in London, UK, use a range of tools and techniques to visualise minute biological processes as part of their research.
Blood cellsFrancis Crick Institute
Blood cells, by Dr Anne Weston.
Inside a blood clot, a white blood cell is visible in the centre of the image (very pale blue) surrounded by red blood cells trapped in a mesh-like structure called fibrin.
It was captured by an electron microscope, just one of the imaging tools that Crick scientists use to reveal biological processes and objects invisible to the naked eye.
Rabinowitz & KakuiFrancis Crick Institute
Visualising the 3D structure of DNA within the nucleus, by Dr Adam Rabinowitz and Dr Yasutaka Kakui.
The genome of a yeast cell is only half a centimetre long.
It contains all the genetic material needed to build a yeast cell, which is packed inside a nucleus roughly 0.003mm in diameter.
Dr Adam Rabinowitz of the Bioinformatics Core and Dr Yasutaka Kakui from the Chromosome Segregation LaboratoryFrancis Crick Institute
The processes that take place inside yeast are very similar to those of a human, but the genome is so much shorter that studying yeast makes the scientific analysis much easier for Dr Rabinowitz and Dr Kakui.
Artwork by Jonathon HannabussFrancis Crick Institute
All Watched Over By Machines of Loving Grace, by Jonathon Hannabuss.
The image is the result of an experiment that involved recreating the interaction of molecular motors with a specific type of cytoskeleton fibre called microtubules.
Jonathon HannabussFrancis Crick Institute
The image reveals how, inside of us all, there are trillions of tiny machines called molecular motors.
They take the chemical energy locked away in food and turn it into mechanical energy.
Fat droplets in liver-like cells of the fruit flyFrancis Crick Institute
Fat droplets in liver-like cells of the fruit fly, 2016, by Annick Sawala.
These are cells from a Drosophila fruit fly larva.
Dr Sawala fasted the fruit fly for 24 hours before studying how it would respond to this temporary lack of food.
Annick Sawala headshotFrancis Crick Institute
Dr Annick was particularly interested in the formation of the green blobs - small spheres of fat known as lipid droplets.
Their appearance shows that an important change in fat metabolism has taken place.
Graphical cancer geneticsFrancis Crick Institute
Graphical cancer genetics, by Dr Charlie Swanton.
Dr Swanton and his team research how tumours change genetically over space and time, and use diagrams and genetic trees to help make sense of their research.
Portrait of Charlie SwantonFrancis Crick Institute
The 'genetic tree' show in the image indicates an advanced cancer tumour of the kidney found in a patient.
ToxoplasmaFrancis Crick Institute
The Toxoplasma parasite is found everywhere - in soil, on raw meat and unwashed food.
But its primary host is the cat.
When it infects an animal or person, our bodies react by sending a signal to increase defences, via a molecule called cytokine gamma interferon.
Eva FrickelFrancis Crick Institute
To create the image, and to understand more about how the body defends itself, Dr Eva Frickel added the molecule to human cells before infecting them with different strains and strengths of the Toxoplasma parasite.
Not just a ball of cellsFrancis Crick Institute
Not just a ball of cells, by Dr Paola Scaffidi.
The image shows the irregularity and diversity of tumours.
Dr Scaffidi is interested in processes that define how cells use their DNA, and how this may affect cancer development.
Paola ScaffidiFrancis Crick Institute
The goal of Paola's laboratory is to uncover the fundamental principles of cancer development.
For more information visit crick.ac.uk
