SHIELD: Skull-shaped hemispheric implants enabling large-scale electrophysiology datasets in the mouse brain

To understand the neural basis of behavior, it is essential to measure spiking dynamics across many interacting brain regions. Although new technologies, such as Neuropixels probes, facilitate multi-regional recordings, significant surgical and procedural hurdles remain for these experiments to achi...

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Vydáno v:Neuron (Cambridge, Mass.) Ročník 112; číslo 17; s. 2869
Hlavní autoři: Bennett, Corbett, Ouellette, Ben, Ramirez, Tamina K, Cahoon, Alex, Cabasco, Hannah, Browning, Yoni, Lakunina, Anna, Lynch, Galen F, McBride, Ethan G, Belski, Hannah, Gillis, Ryan, Grasso, Conor, Howard, Robert, Johnson, Tye, Loeffler, Henry, Smith, Heston, Sullivan, David, Williford, Allison, Caldejon, Shiella, Durand, Severine, Gale, Samuel, Guthrie, Alan, Ha, Vivian, Han, Warren, Hardcastle, Ben, Mochizuki, Chris, Sridhar, Arjun, Suarez, Lucas, Swapp, Jackie, Wilkes, Joshua, Siegle, Joshua H, Farrell, Colin, Groblewski, Peter A, Olsen, Shawn R
Médium: Journal Article
Jazyk:angličtina
Vydáno: United States 04.09.2024
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ISSN:1097-4199, 1097-4199
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Abstract To understand the neural basis of behavior, it is essential to measure spiking dynamics across many interacting brain regions. Although new technologies, such as Neuropixels probes, facilitate multi-regional recordings, significant surgical and procedural hurdles remain for these experiments to achieve their full potential. Here, we describe skull-shaped hemispheric implants enabling large-scale electrophysiology datasets (SHIELD). These 3D-printed skull-replacement implants feature customizable insertion holes, allowing dozens of cortical and subcortical structures to be recorded in a single mouse using repeated multi-probe insertions over many days. We demonstrate the procedure's high success rate, biocompatibility, lack of adverse effects on behavior, and compatibility with imaging and optogenetics. To showcase SHIELD's scientific utility, we use multi-probe recordings to reveal novel insights into how alpha rhythms organize spiking activity across visual and sensorimotor networks. Overall, this method enables powerful, large-scale electrophysiological experiments for the study of distributed neural computation.
AbstractList To understand the neural basis of behavior, it is essential to measure spiking dynamics across many interacting brain regions. Although new technologies, such as Neuropixels probes, facilitate multi-regional recordings, significant surgical and procedural hurdles remain for these experiments to achieve their full potential. Here, we describe skull-shaped hemispheric implants enabling large-scale electrophysiology datasets (SHIELD). These 3D-printed skull-replacement implants feature customizable insertion holes, allowing dozens of cortical and subcortical structures to be recorded in a single mouse using repeated multi-probe insertions over many days. We demonstrate the procedure's high success rate, biocompatibility, lack of adverse effects on behavior, and compatibility with imaging and optogenetics. To showcase SHIELD's scientific utility, we use multi-probe recordings to reveal novel insights into how alpha rhythms organize spiking activity across visual and sensorimotor networks. Overall, this method enables powerful, large-scale electrophysiological experiments for the study of distributed neural computation.
To understand the neural basis of behavior, it is essential to measure spiking dynamics across many interacting brain regions. Although new technologies, such as Neuropixels probes, facilitate multi-regional recordings, significant surgical and procedural hurdles remain for these experiments to achieve their full potential. Here, we describe skull-shaped hemispheric implants enabling large-scale electrophysiology datasets (SHIELD). These 3D-printed skull-replacement implants feature customizable insertion holes, allowing dozens of cortical and subcortical structures to be recorded in a single mouse using repeated multi-probe insertions over many days. We demonstrate the procedure's high success rate, biocompatibility, lack of adverse effects on behavior, and compatibility with imaging and optogenetics. To showcase SHIELD's scientific utility, we use multi-probe recordings to reveal novel insights into how alpha rhythms organize spiking activity across visual and sensorimotor networks. Overall, this method enables powerful, large-scale electrophysiological experiments for the study of distributed neural computation.To understand the neural basis of behavior, it is essential to measure spiking dynamics across many interacting brain regions. Although new technologies, such as Neuropixels probes, facilitate multi-regional recordings, significant surgical and procedural hurdles remain for these experiments to achieve their full potential. Here, we describe skull-shaped hemispheric implants enabling large-scale electrophysiology datasets (SHIELD). These 3D-printed skull-replacement implants feature customizable insertion holes, allowing dozens of cortical and subcortical structures to be recorded in a single mouse using repeated multi-probe insertions over many days. We demonstrate the procedure's high success rate, biocompatibility, lack of adverse effects on behavior, and compatibility with imaging and optogenetics. To showcase SHIELD's scientific utility, we use multi-probe recordings to reveal novel insights into how alpha rhythms organize spiking activity across visual and sensorimotor networks. Overall, this method enables powerful, large-scale electrophysiological experiments for the study of distributed neural computation.
Author Gillis, Ryan
Siegle, Joshua H
Farrell, Colin
Williford, Allison
Ouellette, Ben
Belski, Hannah
Lynch, Galen F
Sridhar, Arjun
Ha, Vivian
Ramirez, Tamina K
Grasso, Conor
Groblewski, Peter A
Browning, Yoni
Cabasco, Hannah
Loeffler, Henry
Mochizuki, Chris
Suarez, Lucas
Bennett, Corbett
Caldejon, Shiella
Olsen, Shawn R
Durand, Severine
Guthrie, Alan
McBride, Ethan G
Johnson, Tye
Smith, Heston
Wilkes, Joshua
Hardcastle, Ben
Gale, Samuel
Sullivan, David
Howard, Robert
Han, Warren
Cahoon, Alex
Lakunina, Anna
Swapp, Jackie
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Keywords mouse
electrophysiology
multi-regional recordings
cranial implant
craniotomy
silicon probes
surgical methods
Neuropixels
Language English
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Snippet To understand the neural basis of behavior, it is essential to measure spiking dynamics across many interacting brain regions. Although new technologies, such...
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SubjectTerms Action Potentials - physiology
Animals
Brain - physiology
Electrodes, Implanted
Electrophysiological Phenomena - physiology
Electrophysiology - methods
Male
Mice
Mice, Inbred C57BL
Optogenetics - methods
Printing, Three-Dimensional
Skull - surgery
Title SHIELD: Skull-shaped hemispheric implants enabling large-scale electrophysiology datasets in the mouse brain
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