PainNeurosciencePeer-reviewed journal article
Prior use-dependent plasticity triggers different individual corticomotor responses during persistent musculoskeletal pain
Anna M. ZamoranoiD, Boris KleberiD, Enrico De MartinoiD, Ainhoa Insausti-DelgadoiD, Peter VuustiD, Herta FloriD, Thomas Graven‐NielseniD
Abstract
Movement repetition is crucial for pain interventions. It facilitates the rehabilitation of motor patterns, the acquisition of motor skills and the genesis of adaptive use-dependent plasticity. However, the influence of prior motor experience and pre-existing use-dependent plasticity on pain severity and progression remains poorly investigated. This study investigated the effects of pre-existing use-dependent plasticity during the development of prolonged experimental musculoskeletal pain. Using transcranial magnetic stimulation, corticospinal excitability was assessed by measuring the rest-motor thresholds (RMTs), motor-evoked potential (MEP), representational area of the motor map, volume, and center of gravity of the first dorsal interosseous (FDI) muscle in musicians (n=19), a well-known ecological model of use-dependent plasticity, and in non-musicians (n=20). All participants attended three sessions (Day1, Day3, Day8). Prolonged pain for several days was induced by intramuscular injection of nerve growth factor (NGF) into the right FDI muscle at the end of Day1. Compared to Day1, prolonged pain uniquely led to reduced motor map volume in non-musicians on Day3 (p=0.004), who also showed higher NGF-related pain intensity compared to musicians. The motor maps of musicians, which were already smaller in pain-free conditions (Day1) compared to non-musicians (p=0.021), remained non-significantly different across days. Notably, corticomotor responses (map volume, MEP amplitude, and RMTs) at Day1 were correlated to weekly and accumulated musical training. These findings demonstrate that pre-existing use-dependent plasticity associated with motor training may counteract the effects of prolonged pain in the motor system. Moreover, it confirms that prior motor experience acts as a source of individual variability to pain.
- Citations
- 1
- FWCI
- 0.36
- Field percentile
- top 41%
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- Use-dependent plasticity enhances nociceptive and non-nociceptive somatosensory cortical responses in healthy individuals
Anna M. Zamorano, Boris Kleber, … Thomas Graven‐Nielsen·European Journal of PainPeer-reviewed·Nov 17, 2022
- Resilience to persistent pain is characterized by stable periodic and increased aperiodic cortical activity
Anna M. Zamorano, Chuwen Chen, … Thomas Graven‐Nielsen·bioRxiv·Apr 30, 2026
- Acute pain drives different effects on local and global cortical excitability in motor and prefrontal areas: Insights into interregional and interpersonal differences in pain processing
Enrico De Martino, Adenauer Girardi Casali, … Daniel Ciampi de Andrade·Cerebral CortexPeer-reviewed·Jul 19, 2023
- Opioid- and NMDA-receptor-dependent neural plasticity mediates long-term analgesia from motor cortical stimulation
Nicole Mercer Lindsay, Simon Haziza, … Mark J. Schnitzer·bioRxiv·Jul 7, 2026
- An acute session of motor imagery training induces use-dependent plasticity.
Célia Ruffino, Jérémie Gaveau, … Florent Lebon·Scientific ReportsPeer-reviewed·Dec 27, 2019
- A transition to a more efficient attentional strategy facilitates motor learning in the presence and absence of movement-evoked experimental pain. A cross-sectional experimental study.
David Matthews, Ali Khatibi, Deborah Falla·bioRxiv·Jun 8, 2026