High-throughput microcircuit analysis of individual human brains through next-generation multineuron patch-clamp
Comparing neuronal microcircuits across different brain regions, species and individuals can reveal common and divergent principles of network computation. Simultaneous patch-clamp recordings from multiple neurons offer the highest temporal and subthreshold resolution to analyse local synaptic conne...
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doaj-3b7acb1f273848d1a273fffcddc143c02021-05-05T18:06:40ZengeLife Sciences Publications LtdeLife2050-084X2019-11-01810.7554/eLife.48178High-throughput microcircuit analysis of individual human brains through next-generation multineuron patch-clampYangfan Peng0https://orcid.org/0000-0002-0317-1353Franz Xaver Mittermaier1https://orcid.org/0000-0003-2258-3051Henrike Planert2Ulf Christoph Schneider3Henrik Alle4Jörg Rolf Paul Geiger5https://orcid.org/0000-0001-9552-4322Institute of Neurophysiology, Charité – Universitätsmedizin Berlin, Berlin, Germany; Department of Neurology, Charité – Universitätsmedizin Berlin, Berlin, GermanyInstitute of Neurophysiology, Charité – Universitätsmedizin Berlin, Berlin, GermanyInstitute of Neurophysiology, Charité – Universitätsmedizin Berlin, Berlin, GermanyDepartment of Neurosurgery, Charité – Universitätsmedizin Berlin, Berlin, GermanyInstitute of Neurophysiology, Charité – Universitätsmedizin Berlin, Berlin, GermanyInstitute of Neurophysiology, Charité – Universitätsmedizin Berlin, Berlin, GermanyComparing neuronal microcircuits across different brain regions, species and individuals can reveal common and divergent principles of network computation. Simultaneous patch-clamp recordings from multiple neurons offer the highest temporal and subthreshold resolution to analyse local synaptic connectivity. However, its establishment is technically complex and the experimental performance is limited by high failure rates, long experimental times and small sample sizes. We introduce an in vitro multipatch setup with an automated pipette pressure and cleaning system facilitating recordings of up to 10 neurons simultaneously and sequential patching of additional neurons. We present hardware and software solutions that increase the usability, speed and data throughput of multipatch experiments which allowed probing of 150 synaptic connections between 17 neurons in one human cortical slice and screening of over 600 connections in tissue from a single patient. This method will facilitate the systematic analysis of microcircuits and allow unprecedented assessment of inter-individual variability.https://elifesciences.org/articles/48178multipatchmicrocircuitconnectivityhuman physiologyautomated patch-clamphuman cortex |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Yangfan Peng Franz Xaver Mittermaier Henrike Planert Ulf Christoph Schneider Henrik Alle Jörg Rolf Paul Geiger |
spellingShingle |
Yangfan Peng Franz Xaver Mittermaier Henrike Planert Ulf Christoph Schneider Henrik Alle Jörg Rolf Paul Geiger High-throughput microcircuit analysis of individual human brains through next-generation multineuron patch-clamp eLife multipatch microcircuit connectivity human physiology automated patch-clamp human cortex |
author_facet |
Yangfan Peng Franz Xaver Mittermaier Henrike Planert Ulf Christoph Schneider Henrik Alle Jörg Rolf Paul Geiger |
author_sort |
Yangfan Peng |
title |
High-throughput microcircuit analysis of individual human brains through next-generation multineuron patch-clamp |
title_short |
High-throughput microcircuit analysis of individual human brains through next-generation multineuron patch-clamp |
title_full |
High-throughput microcircuit analysis of individual human brains through next-generation multineuron patch-clamp |
title_fullStr |
High-throughput microcircuit analysis of individual human brains through next-generation multineuron patch-clamp |
title_full_unstemmed |
High-throughput microcircuit analysis of individual human brains through next-generation multineuron patch-clamp |
title_sort |
high-throughput microcircuit analysis of individual human brains through next-generation multineuron patch-clamp |
publisher |
eLife Sciences Publications Ltd |
series |
eLife |
issn |
2050-084X |
publishDate |
2019-11-01 |
description |
Comparing neuronal microcircuits across different brain regions, species and individuals can reveal common and divergent principles of network computation. Simultaneous patch-clamp recordings from multiple neurons offer the highest temporal and subthreshold resolution to analyse local synaptic connectivity. However, its establishment is technically complex and the experimental performance is limited by high failure rates, long experimental times and small sample sizes. We introduce an in vitro multipatch setup with an automated pipette pressure and cleaning system facilitating recordings of up to 10 neurons simultaneously and sequential patching of additional neurons. We present hardware and software solutions that increase the usability, speed and data throughput of multipatch experiments which allowed probing of 150 synaptic connections between 17 neurons in one human cortical slice and screening of over 600 connections in tissue from a single patient. This method will facilitate the systematic analysis of microcircuits and allow unprecedented assessment of inter-individual variability. |
topic |
multipatch microcircuit connectivity human physiology automated patch-clamp human cortex |
url |
https://elifesciences.org/articles/48178 |
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