Author
E. Orlandini
Primary ORCID profile (0000-0003-3680-9488 · 1 paper)Unclaimed ORCID profile · follow to get notified of new preprints
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Same name, identified by ORCID
Biology Disciplines
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2017-2023 · peak 3/yrCo-Author Collaboration Network
10 top collaborators · 17 mutual co-author links9 papers
Recent·Most cited
Topological Gelation of Reconnecting Polymers
A. Bonato, D. Marenduzzo, D. Michieletto, E. Orlandini
This study investigates topological gelation in semiflexible polymer rings under confinement, showing that stiffness or concentration can trigger a transition from segregated to linked polymer networks.
bioRxiv · Sep 21, 2022Biophysics
Dynamic and Facilitated Binding of Topoisomerase Accelerates Topological Relaxation
D. Michieletto, Y. A. G. Fosado, E. Melas, M. Baiesi, L. Tubiana, E. Orlandini
This study shows dynamic TopoII binding accelerates topological relaxation of DNA knots, independent of substrate length, by enhancing search efficiency through facilitated diffusion.
bioRxiv · Aug 28, 2021Biophysics
Magnetic Polymer Models for Epigenetics-Driven Chromosome Folding
D. Coli, D. Michieletto, D. Marenduzzo, E. Orlandini
This paper uses magnetic polymer models to study how epigenetic modifications affect chromosome folding and gene expression, showing phase transitions and validating results with simulations.
bioRxiv · Nov 5, 2019Biophysics
Nonequilibrium Theory of Epigenomic Microphase Separation in the Cell Nucleus
D. Michieletto, D. Coli, D. Marenduzzo, E. Orlandini
The paper develops a non-equilibrium theory to explain epigenomic microphase separation in the nucleus, showing that non-equilibrium processes stabilize epigenomic domains.
bioRxiv · Nov 5, 2019Biophysics
Synergy of Topoisomerase and Structural-Maintenance-of Chromosomes Proteins Creates a Universal Pathway to Simplify Genome Topology
E. Orlandini, D. Marenduzzo, D. Michieletto
The paper identifies a synergistic mechanism between Topoisomerase and SMC proteins that simplifies genome topology by localizing entanglements, enabling efficient resolution in various cellular conditions.
bioRxiv · Mar 15, 2019Biophysics
Physical Principles of Retroviral Integration in the Human Genome
D. Michieletto, M. Lusic, D. Marenduzzo, E. Orlandini
This study develops a biophysical model to explain retroviral integration site selection in the human genome, showing that physical factors like DNA accessibility and elasticity influence integration preferences.
bioRxiv · Dec 18, 2018Biophysics
Shaping Epigenetic Memory via Genomic Bookmarking
D. Michieletto, M. Chiang, D. Coli, A. Papantonis, E. Orlandini, P. R. Cook, D. Marenduzzo
This paper introduces a biophysical model of genomic bookmarking to explain how epigenetic domains are maintained and modified through histone marks and protein interactions in Drosophila.
bioRxiv · Nov 20, 2017Biophysics