Community-based Reconstruction and Simulation of a Full-scale Model of Region CA1 of Rat Hippocampus

Author:

Romani ArmandoORCID,Antonietti AlbertoORCID,Bella DavideORCID,Budd JulianORCID,Giacalone ElisabettaORCID,Kurban KeremORCID,Sáray SáraORCID,Abdellah MarwanORCID,Arnaudon AlexisORCID,Boci ElvisORCID,Colangelo CristinaORCID,Courcol Jean-DenisORCID,Delemontex ThomasORCID,Ecker AndrásORCID,Falck JoanneORCID,Favreau CyrilleORCID,Gevaert MichaelORCID,Hernando Juan B.ORCID,Herttuainen JoniORCID,Ivaska Genrich,Kanari LidaORCID,Kaufmann Anna-KristinORCID,King James GonzaloORCID,Kumbhar PramodORCID,Lange SigrunORCID,Lu HuanxiangORCID,Lupascu Carmen AlinaORCID,Migliore RosannaORCID,Petitjean FabienORCID,Planas JuditORCID,Rai PranavORCID,Ramaswamy SrikanthORCID,Reimann Michael W.ORCID,Riquelme Juan LuisORCID,Guerrero Nadir RománORCID,Shi YingORCID,Sood VishalORCID,Sy Mohameth FrançoisORCID,Van Geit WernerORCID,Vanherpe LiesbethORCID,Freund Tamás F.,Mercer AudreyORCID,Muller EilifORCID,Schürmann FelixORCID,Thomson Alex M.,Migliore MicheleORCID,Káli SzabolcsORCID,Markram HenryORCID

Abstract

AbstractThe CA1 region of the hippocampus is one of the most studied regions of the rodent brain, thought to play an important role in cognitive functions such as memory and spatial navigation. Despite a wealth of experimental data on its structure and function, it has been challenging to reconcile information obtained from diverse experimental approaches. To address this challenge, we present a community-driven, full-scalein silicomodel of the rat CA1 that integrates a broad range of experimental data, from synapse to network, including the reconstruction of its principal afferents, the Schaffer collaterals, and a model of the effects that acetylcholine has on the system. We tested and validated each model component and the final network model, and made input data, assumptions, and strategies explicit and transparent. The unique flexibility of the model allows scientists to address a range of scientific questions. In this article, we describe the methods used to set up simulations that reproduce and extendin vitroandin vivoexperiments. Among several applications in the article, we focus on theta rhythm, a prominent hippocampal oscillation associated with various behavioral correlates and use our computer model to reproduce and reconcile experimental findings. Finally, we make data, code and model available through the hippocampushub.eu portal, which also provides an extensive set of analyses of the model and a user-friendly interface to facilitate adoption and usage. This neuroscience community-driven model represents a valuable tool for integrating diverse experimental data and provides a foundation for further research into the complex workings of the hippocampal CA1 region.

Publisher

Cold Spring Harbor Laboratory

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