Neuromuscle Research Group is committed to conducting practical, evidence-based research in exercise physiology, human performance, biomechanics, and the influence of music on athletic performance. The following projects are currently under development or active investigation.
Russell Fox, M.S.
Founder and Research Director
Neuromuscle Research Group
Music has long been used by athletes to enhance motivation, focus, and performance before and during training and competition. Previous research has suggested that music may positively influence exercise performance through psychological mechanisms including increased arousal, improved mood, and reduced perception of effort. However, the influence of self-selected music on movement characteristics during resistance exercise remains largely unexplored.
As fatigue develops during resistance training, movement patterns often become less efficient and more variable. Understanding whether self-selected music can influence both performance outcomes and movement quality may provide valuable insight into the interaction between psychological and biomechanical factors during strength exercise.
The purpose of this pilot investigation is to examine the effects of self-selected music on bench press performance and bar path characteristics during a set performed to volitional fatigue.
Does self-selected music influence bench press performance and bar path characteristics during a set performed to volitional fatigue?
Self-selected music will increase the number of repetitions completed during the bench press.
Self-selected music will increase pre-exercise motivation.
Self-selected music will reduce perceived exertion following exercise.
Self-selected music will result in more consistent bar path characteristics as fatigue develops.
This investigation will utilize a single-subject repeated-measures design.
The participant will complete multiple testing sessions under two experimental conditions:
House Gym Music
Self-Selected Music
Testing sessions will alternate between conditions over the course of the study.
One resistance-trained male participant will serve as the study subject.
Participant characteristics include:
Former competitive powerlifter
Extensive resistance training experience
Founder and investigator of the project
A standardized bench press load equivalent to approximately 75% of estimated one-repetition maximum (1RM) will be utilized for all testing sessions.
Prior to each session, the participant will record:
Body weight
Hours of sleep
Motivation rating (1–10 scale)
The participant will then perform a bench press set to volitional fatigue while exposed to the assigned music condition.
All sessions will be video recorded for subsequent movement analysis.
Repetitions completed
Total training volume
Pre-exercise motivation
Session Rating of Perceived Exertion (RPE)
Video recordings will be analyzed to evaluate:
Bar path consistency
Horizontal bar displacement
Vertical bar displacement
Repetition tempo
Movement variability as fatigue develops
Descriptive statistics and graphical analysis will be utilized to compare performance, psychological, and biomechanical variables between music conditions.
As a pilot investigation, the primary objective is to identify potential trends and establish the feasibility of future research.
This project represents the inaugural research initiative of Neuromuscle Research Group.
The findings may contribute to a greater understanding of how self-selected music influences strength performance, fatigue resistance, and movement quality during resistance exercise.
Furthermore, the project will serve as a foundation for future investigations involving larger participant samples, advanced motion analysis techniques, and additional measures of human performance.
Future research may explore:
Competitive powerlifters versus recreational lifters
Music and flow state development
Music and movement efficiency
Motion analysis of resistance exercise
Neuromuscular and cognitive responses to music
Recruitment and protocol development completed.
Data collection anticipated to begin in 2026.
Neuromuscle Research Group
Grand Rapids, Michigan