Scientists across EMBL use computers to analyse a wide range of different biological, medical, environmental and ecological data. These bioinformatics activities include, but are not limited to: whole genome analyses, metagenomics, analysis of gene, protein, and metabolic networks, structural biology, protein and nucleotide sequence analysis and large scale cell imaging. There are also activities in instrumentation and engineering software development, especially at the Grenoble and Hamburg outstations.
While some research groups focus almost exclusively on computational research, there are also many groups at EMBL which combine experimental and computational analysis. Bioinformatics is an important part of the work done by the EMBL groups listed below; in addition to these groups, EMBL-EBI includes many labs dedicated to bioinformatics research and service provision.
Bars at the bottom of each image indicate the proportion of that group's activities taken up by bioinformatics.
Biological sequence analysis
The Gibson team investigates protein sequence interactions, undertakes computational analyses of macromolecules, and develops tools to enhance sequence analysis research.
Multi-omics and statistical computing
The Huber group develops large-scale statistical models that integrate genomic, molecular and phenotypic data to understand the variations between individuals in health and disease.
By analysing and comparing complex molecular data, the Bork group predicts function, gains insights into evolution, and makes connections between genes, organisms and ecosystems.
The Patil group uses a combination of modelling, bioinformatics, and experimental approaches to study metabolic networks and how they are controlled.
Integrative modelling for structural biology
The Lamzin group applies and develops cutting-edge computational methods and experimental approaches for structural studies of molecules of biological and medical interest.
Dynamics of cell growth and tissue architecture
The Hufnagel group studies the role of mechanical constraints on processes such as cell growth, programmed cell death, orientation of division, intra-tissue rearrangements and cell differentiation.
From genomic variation to molecular mechanism
The Korbel group combines experimental and computational biology to decipher the function and origin of genetic variation with a particular focus on heritable genomic structural variants (SVs) and such occurring in cancer.
Research in the Beck group combines biochemical approaches, proteomics and cryo-electron microscopy to study large macromolecular assemblies.
Symmetry breaking and self-organisation
Looking at the molecular, cellular and systems levels, the Hiiragi group studies how, early in mammal development, the embryo is shaped from a spherical mass of cells.
Integrating signals through complex assembly
The Panne group looks to understand important signalling processing pathways in the cell, which could help in the discovery of anti-viral drugs.
The Sachse group uses electron cryomicroscopy to study the structures of autophagy complexes to elucidate the mechanisms by which cells eliminate aberrant structures such as large protein aggregates.
Systems genetics and precision health
The Steinmetz group bridges diverse domains of genome science, from deciphering the structure and function of genomes to the application of these insights in understanding diseases.
The Svergun group places special emphasis on hybrid methods combining SAXS with X-ray crystallography, NMR spectroscopy, and electron microscopy to improve the resolution and cross-validate structural models.
The Briggs group uses cryo-electron microscopy techniques to explore the mechanisms of assembly and budding of enveloped viruses and coated vesicles.
Systems biology of cell division and nuclear organisation
The Ellenberg group studies how cells divide and organise in mitosis and meiosis, where errors can lead to problems such as cancer and infertility.
The Furlong group dissects fundamental principles of transcriptional regulation, and how that drives cell fate decisions during development, focusing on functional and organisational properties of the genome.
Chemical cell biology
The Schultz group develops tools for imaging and for manipulating cellular enzyme activities, with a particular emphasis on the hereditary disease cystic brosis.
The Lemke group combines advanced microscopy with modern chemical biology tools to elucidate the nature of naturally unfolded proteins in biological systems and disease mechanisms.
The Gavin group focuses on detailed and systematic charting of cellular networks and circuitry at molecular levels in time and space.
The Barabas group uses structural and molecular biology approaches to investigate how DNA rearrangements are carried out and regulated, with the ultimate goal of facilitating their applications in research and therapy.
GeneCore is the in-house genomics service centre at EMBL equipped with state-of-the-art technologies required for functional genomics analyses and operated by highly qualified staff.
Systems biology of stem cell differentiation
The Neveu group takes an integrated systems biology approach to investigate the molecular changes that determine what a stem cell becomes.
The Peri group combines genetic approaches with quantitative imaging techniques to study interactions between neurons and the microglia that eliminate cellular debris in the brain.
Regulation of gene expression by non-coding RNAs
The Pillai group seeks to understand molecular mechanisms involved in piRNA biogenesis and its function in protecting the genome from instability.
The Typas group develops and utilises high-throughput methods to study the cellular networks of different species of bacteria, and how these bacteria interact with the environment and with each other.
Evolution of the nervous system in Bilateria
By studying and comparing simple marine organisms, the Arendt group looks to understand the origin and evolution of our central nervous system.
RNA biology, metabolism and molecular medicine
The Hentze group combines biochemical and systems level approaches to investigate the connections between gene expression, cell metabolism, and their role in human disease.
Molecular physiology of somatosensation
The Heppenstall group combines molecular, imaging and electrophysiological techniques to examine how sensory neurons turn information about touch and pain into electrical signals.
The Leptin group studies the mechanisms and forces that determine cell shape in Drosophila and uses the zebrafish to analyse innate immune signalling.