Structural biologyHEAD: Alessandro Vannini ASSOCIATE HEAD: Gaia Pigino
How do molecular machines work, interact and harmonize their activities to give rise to a fully functional cell? How are these processes regulated and how are they compromised in human disease? The Structural Biology Research Centre aims at answering these questions by gaining precise knowledge of the structure of macromolecules and macromolecular complexes, which is essential to understand how they function.
The Structural Biology Research Centre is underpinned by a state-of-the-art cryo-EM facility, employing both single particle analysis (SPA) and cryo-electron tomography (ET) to obtain high-resolution structures of macromolecular structures both in isolation and in the cellular context. We additionally employ complimentary approaches, such as x-ray crystallography, single-molecule fluorescence microscopy, native and cross-linking mass spectrometry as well as a plethora of biophysical tools to obtain mechanistic details of the function of the macromolecules under study.
The Structural Biology Research Centre covers a broad area of human cell biology with the unifying theme of enhancing our understanding of molecular mechanisms relevant to human diseases. To do so in a comprehensive manner, we create synergies with other centres within Human Technopole, generating crucial knowledge for future drug discovery endeavours.
Head of Structural Biology Research Centre
Associate Head of Structural Biology Research Centre
Philipp Sebastian Erdmann
Research Centre Administrator
Senior Technician and Lab Manager
Gene expression can be regulated at multiple levels. This allows organisms to respond fast to specific cellular stimuli while still maintaining a stable internal environment. This regulation is often achieved through chemical marks on DNA, and proteins. Recently, RNA marks have also been described as key regulators of gene expression. They are involved in essential […]
The thyroid gland is a fascinating bioreactor where iodine is accumulated and used to synthesise thyroid hormones (TH). TH are essential for metabolism in all vertebrates and this makes them strictly dependant on iodine nutrition. In humans, thyroid disfunction severely impacts cardiovascular homeostasis, metabolism, brain development and function, with increasing incidence Worldwide. Currently, our understanding […]
Liquid Phase Separated Compartments and the Need for Subcellular Targeting Compartmentalization is a characteristic feature of cellular organization. It serves to separate incompatible chemical reactions, enables the creation of specialized micro-environments, and can make chemical reactions more efficient by limiting the molecular actors involved to partial volumes. Traditionally, it refers to membrane-bound compartments such as […]
Cells need to be able to sense different types of signals, such as chemical and mechanical signals, from the extracellular environment to properly function. Most eukaryotic cells perform these functions through a specialized hair-like organelle, the cilium, that extends from the cell body as a sort of antenna. The Pigino Lab investigates the biology and the 3D molecular structure of ciliary components in their native cellular context and in isolation, to understand how they orchestrate cilia-specific functions. Our ultimate goal is to understand the underlying molecular mechanisms of ciliary functions and dysfunctions, so that possible therapeutic strategies for ciliopathies can be developed.
We integrate the structural data with molecular and cellular biology techniques in order to obtain a comprehensive view of fundamental cellular processes happening in the nucleus and how their mis-regulation leads to cancer and neurodegenerative diseases