bioRxivNeurosciencePreprint
PIEZO2-dependent rapid pain system in humans and mice.
Otmane BouchattaiD, Marek BrodzkiiD, Houria ManouzeiD, Gabriela B. Carballo, Emma KindströmiD, Felipe Meira de‐FariaiD, Huasheng YuiD, Anika R. KaoiD, Oumie ThorelliD, Jaquette LiljencrantziD, Kevin K. W. NgiD, Eleni FrangosiD, Bengt Ragnemalm, Dimah N. SaadeiD, Diana Xerxes Bharucha-GoebeliD, Ilona SzczotiD, Warren Moore, Katarzyna TerejkoiD, Jonathan D. ColeiD, Carsten G. BönnemanniD, Wenqin LuoiD, David Anthony MahnsiD, Max LarssoniD, Gregory J. GerlingiD, Andrew G. MarshalliD, , Marcin SzczotiD
Abstract
The PIEZO2 ion channel is critical for transducing light touch into neural signals but is not considered necessary for transducing acute pain in humans. Here, we discovered an exception - a form of mechanical pain evoked by hair pulling. Based on observations in a rare group of individuals with PIEZO2 deficiency syndrome, we demonstrated that hair-pull pain is dependent on PIEZO2 transduction. Studies in control participants showed that hair-pull pain triggered a distinct nocifensive response, including a nociceptive reflex. Observations in rare A{beta} deafferented individuals and nerve conduction block studies in control participants revealed that hair-pull pain perception is dependent on A{beta} input. Single-unit axonal recordings revealed that a class of cooling-responsive myelinated nociceptors in human skin is selectively tuned to painful hair-pull stimuli. Further, we pharmacologically mapped these nociceptors to a specific transcriptomic class. Finally, using functional imaging in mice, we demonstrated that in a homologous nociceptor, Piezo2 is necessary for high-sensitivity, robust activation by hair-pull stimuli. Together, we have demonstrated that hair-pulling evokes a distinct type of pain with conserved behavioral, neural, and molecular features across humans and mice.
- organism: human
- organism: mouse
- assay: proteomics
- research focus: cell type annotation
- approach: experimental assay
- Citations
- 14
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