Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Tuning in Sensorimotor Synchronization

View through CrossRef
AbstractMoving in synchrony to external rhythmic stimuli is an elementary function that humans regularly engage in. It is termed “sensorimotor synchronization” and it is governed by two main parameters, the period and the phase of the movement with respect to the external rhythm. There has been an extensive body of research on the characteristics of these parameters, primarily once the movement synchronization has reached a steady-state level. Particular interest has been shown about how these parameters are corrected when there are deviations for the steady-state level. However, little is known about the initial “tuning-in” interval, when one aligns the movement to the external rhythm from rest. The current work investigates this “tuning-in” period for each of the four limbs and makes various novel contributions in the understanding of sensorimotor synchronization. The results suggest that phase and period alignment appear to be separate processes. Phase alignment involves limb-specific somatosensory memory in the order of minutes while period alignment has very limited memory usage. Phase alignment is the primary task but then the brain switches to period alignment where it spends most its resources. In overall this work suggests a central, cognitive role of period alignment and a peripheral, sensorimotor role of phase alignment.HighlightsIn the tuning-in phase there are three distinct temporal scales of sensorimotor synchronization with distinct signatures. A long-range, across-blocks monotonic negative gradient to more anticipatory movement, which prevails for tens of minutes, a very consistent “hook”-shaped pattern within each block, in the range of seconds, and a constant difference across time between feet and hands.The across-blocks, monotonic, negative gradient to more anticipatory movement is instantiated only in the first anticipatory trial of each block and the rest of the subsequent block trials contribute to the alignment of the inter-movement interval to the metronome’s period.This negative asynchrony gradient is limb-specific and is not affected by the interleaved blocks of other limbs.Period alignment has a central, cognitive role while phase alignment a peripheral, sensorimotor role.
Title: Tuning in Sensorimotor Synchronization
Description:
AbstractMoving in synchrony to external rhythmic stimuli is an elementary function that humans regularly engage in.
It is termed “sensorimotor synchronization” and it is governed by two main parameters, the period and the phase of the movement with respect to the external rhythm.
There has been an extensive body of research on the characteristics of these parameters, primarily once the movement synchronization has reached a steady-state level.
Particular interest has been shown about how these parameters are corrected when there are deviations for the steady-state level.
However, little is known about the initial “tuning-in” interval, when one aligns the movement to the external rhythm from rest.
The current work investigates this “tuning-in” period for each of the four limbs and makes various novel contributions in the understanding of sensorimotor synchronization.
The results suggest that phase and period alignment appear to be separate processes.
Phase alignment involves limb-specific somatosensory memory in the order of minutes while period alignment has very limited memory usage.
Phase alignment is the primary task but then the brain switches to period alignment where it spends most its resources.
In overall this work suggests a central, cognitive role of period alignment and a peripheral, sensorimotor role of phase alignment.
HighlightsIn the tuning-in phase there are three distinct temporal scales of sensorimotor synchronization with distinct signatures.
A long-range, across-blocks monotonic negative gradient to more anticipatory movement, which prevails for tens of minutes, a very consistent “hook”-shaped pattern within each block, in the range of seconds, and a constant difference across time between feet and hands.
The across-blocks, monotonic, negative gradient to more anticipatory movement is instantiated only in the first anticipatory trial of each block and the rest of the subsequent block trials contribute to the alignment of the inter-movement interval to the metronome’s period.
This negative asynchrony gradient is limb-specific and is not affected by the interleaved blocks of other limbs.
Period alignment has a central, cognitive role while phase alignment a peripheral, sensorimotor role.

Related Results

Isochronous Distributed Multimedia Synchronization
Isochronous Distributed Multimedia Synchronization
A multimedia system is characterized by the integrated computer-controlled generation, manipulation, presentation, storage, and communication of independent discrete and continuous...
motoRneuron: an open-source R toolbox for time-domain motor unit analyses
motoRneuron: an open-source R toolbox for time-domain motor unit analyses
Motor unit synchronization is the tendency of motor neurons and their associated muscle fibers to discharge near-simultaneously. It has been theorized as a control mechanism for fo...
Evaluation of Oestrus Synchronization Program on Dairy Cattle in South Ari District, South Omo Zone, Southern Ethiopia
Evaluation of Oestrus Synchronization Program on Dairy Cattle in South Ari District, South Omo Zone, Southern Ethiopia
This study was conducted in South Ari District, South Omo Zone, Ethiopia from 2017-2018 with the objectives of evaluating the performance of hormonal oestrus synchronization progra...
Modules in connectomes of phase-synchronization comprise anatomically contiguous, functionally related regions
Modules in connectomes of phase-synchronization comprise anatomically contiguous, functionally related regions
AbstractModules in brain functional connectomes are essential to balancing segregation and integration of neuronal activity. Connectomes are the complete set of pairwise connection...
Isochronal chaos synchronization of a chain mutually coupled semiconductor lasers
Isochronal chaos synchronization of a chain mutually coupled semiconductor lasers
In this paper, a chaotic synchronization system model of a chain mutually coupled semiconductor lasers is established by adding a relay laser between the mutually coupled semicondu...
Time-Reversible Synchronization of Analog and Digital Chaotic Systems
Time-Reversible Synchronization of Analog and Digital Chaotic Systems
The synchronization of chaotic systems is a fundamental phenomenon in nonlinear dynamics. Most known synchronization techniques suggest that the trajectories of coupled systems con...
ALPHA RHYTHM AND CEREBRAL SYNCHRONIZATION
ALPHA RHYTHM AND CEREBRAL SYNCHRONIZATION
The Alpha EEG rhythm, characterized by a frequency between approximately 8 and 12Hz, is an important brain rhythm associated with calmness, relaxation, and creativity. Furthermore,...
Dragon Intermittency at the Transition to Synchronization in Coupled Rulkov Neurons
Dragon Intermittency at the Transition to Synchronization in Coupled Rulkov Neurons
We investigate synchronization dynamics of two non-identical, mutually coupled Rulkov neurons, emphasizing the effects of coupling strength and parameter mismatch on the system’s b...

Back to Top