Leighton Jones
Brunel University London
Network
Latest external collaboration on country level. Dive into details by clicking on the dots.
Publication
Featured researches published by Leighton Jones.
Research Quarterly for Exercise and Sport | 2006
Costas I. Karageorghis; Leighton Jones; Daniel C. Low
The present study examined the predicted positive and linear relationship (Iwanaga, 1995a, 1995b) between exercise heart rate and music tempo preference. Initially, 128 undergraduate students (M age = 20.0 years, SD = 0.9) were surveyed to establish their three favorite music artists. A separate experimental group of 29 undergraduates (M age = 20.3 years, SD = 1.2) selected the music of a single artist from the three highest-rated artists from the earlier survey. They reported their preference for slow, medium, and fast tempo selections from each artist for three treadmill walking conditions at 40%, 60%, and 75% maximal heart rate reserve. A mixed-model 3 × 3 × 2 (Exercise Intensity × Music Tempo × Gender) analysis of variance was used to analyze the data. Results indicated there was no three-way interaction for music preference. There was, however, a significant (p < .05) two-way interaction for Exercise Intensity x Music Tempo (partial η2 = .09) and a significant (p < .05) main effect for music tempo, with large differences evident between preference for medium versus slow tempo and fast versus slow tempo music at all exercise intensities (partial η2 = .78). Participants reported a preference for both medium and fast tempo music at low and moderate exercise intensities and for fast tempo music at high intensity. Only partial support was found for the expected linear relationship between exercise intensity and music tempo preference.
Archive | 2011
Costas I. Karageorghis; Leighton Jones; David-Lee Priest; Ri Akers; A Clarke; Jm Perry; Bt Reddick; Daniel T. Bishop; Hbt Lim
Abstract In the present study, we investigated a hypothesized quartic relationship (meaning three inflection points) between exercise heart rate (HR) and preferred music tempo. Initial theoretical predictions suggested a positive linear relationship (Iwanaga, 1995a, 1995b); however, recent experimental work has shown that as exercise HR increases, step changes and plateaus that punctuate the profile of music tempo preference may occur (Karageorghis, Jones, & Stuart, 2008). Tempi bands consisted of slow (95-100 bpm), medium (115-120 bpm), fast (135-140 bpm), and very fast (155-160 bpm) music. Twenty-eight active undergraduate students cycled at exercise intensities representing 40, 50, 60, 70, 80, and 90% of their maximal HR reserve while their music preference was assessed using a 10-point scale. The Exercise Intensity x Music Tempo interaction was significant, F(6.16, 160.05) = 7.08, p < .001, ηp 2 = .21, as was the test for both cubic and quartic trajectories in the exercise HR-preferred-music-tempo relationship (p < .001). Whereas slow tempo music was not preferred at any exercise intensity, preference for fast tempo increased, relative to medium and very fast tempo music, as exercise intensity increased. The implications for the prescription of music in exercise and physical activity contexts are discussed.
Research Quarterly for Exercise and Sport | 2011
Costas I. Karageorghis; Leighton Jones; David-Lee Priest; Rose I. Akers; Adam Clarke; Jennifer M. Perry; Benjamin T. Reddick; Daniel T. Bishop; Harry B.T. Lim
Abstract In the present study, we investigated a hypothesized quartic relationship (meaning three inflection points) between exercise heart rate (HR) and preferred music tempo. Initial theoretical predictions suggested a positive linear relationship (Iwanaga, 1995a, 1995b); however, recent experimental work has shown that as exercise HR increases, step changes and plateaus that punctuate the profile of music tempo preference may occur (Karageorghis, Jones, & Stuart, 2008). Tempi bands consisted of slow (95-100 bpm), medium (115-120 bpm), fast (135-140 bpm), and very fast (155-160 bpm) music. Twenty-eight active undergraduate students cycled at exercise intensities representing 40, 50, 60, 70, 80, and 90% of their maximal HR reserve while their music preference was assessed using a 10-point scale. The Exercise Intensity x Music Tempo interaction was significant, F(6.16, 160.05) = 7.08, p < .001, ηp 2 = .21, as was the test for both cubic and quartic trajectories in the exercise HR-preferred-music-tempo relationship (p < .001). Whereas slow tempo music was not preferred at any exercise intensity, preference for fast tempo increased, relative to medium and very fast tempo music, as exercise intensity increased. The implications for the prescription of music in exercise and physical activity contexts are discussed.
Nuclear Instruments & Methods in Physics Research Section A-accelerators Spectrometers Detectors and Associated Equipment | 1995
O Adriani; F Angelini; N. Bacchetta; G. Bagliesi; G Barichello; A. Basti; R. Bellazzini; D. Bisello; A Bondar; M. Bozzo; A. Brez; J.-M. Brom; A. Caner; R Carosi; R. Castaldi; J.-F Clergeau; D. Contardo; R. Dell'Orso; E. Focardi; M. French; A. Giraldo; G. Hall; R. Hammarström; R. Haroutunian; Leighton Jones; G Kachelhoffer; V Karimaki; D Kryn; M. Loreti; T. k´Ladziński
A prototype of the barrel Tracking Detector of the Compact Muon Solenoid (CMS) experiment proposed for LHC was built and tested in a beam and in a magnetic field of up to 3 T. It contained six microstrip gas chambers, 25 cm long, and three double-sided silicon microstrip detectors, 12.5 cm long. We report some preliminary results on the performance of the chambers.
Sport, Exercise, and Performance Psychology | 2017
Jasmin C. Hutchinson; Leighton Jones; Steven Vitti; Andrew Moore; Paul Dalton; Brendan J. O'Neil
This study explored the influence of self-selected music on affect-regulated exercise intensity and remembered pleasure. A total of 17 active male and female participants (28.1 ± 9.9 years; BMI 23.8 ± 3.2 kg/m2; oxygen uptake (VO2) peak 48.73 ± 8.73 ml.min−1.kg−1) completed a maximal exercise test, and each individual’s ventilatory threshold was identified. Following this, two treadmill exercise trials were performed at an intensity that was perceived to correspond to a Feeling Scale value of +3 (i.e., “good”). Sessions with either self-selected music or no music were completed 48 hr apart and in a randomized counterbalanced order. Affective responses (Feeling Scale) and heart rate were measured during exercise and remembered pleasure was measured 5 min post exercise. Results indicated that participants selected an exercise intensity that exceeded their ventilatory threshold during the two affect-regulated exercise sessions (p = .002, d = .99). Participants exercised with greater intensity during affect-regulated exercise with music than without (p = .045; d = 1.12) while maintaining a “good” feeling. Furthermore, participants recalled the music session as more pleasurable than the no-music session (p = .001; d = .72). These results illustrate a positive ergogenic and psychological influence of music during affect-regulated exercise. Encouraging individuals to exercise at an intensity that feels “good” elicits an exercise intensity sufficient to garner cardiorespiratory benefits and may lead to improved adherence. Moreover, the use of self-selected music appears to augment this effect.
Physiology & Behavior | 2017
Leighton Jones; Nicholas B. Tiller; Costas I. Karageorghis
Numerous studies have examined the multifarious effects of music applied during exercise but few have assessed the efficacy of music as an aid to recovery. Music might facilitate physiological recovery via the entrainment of respiratory rhythms with music tempo. High-intensity exercise training is not typically associated with positive affective responses, and thus ways of assuaging negative affect warrant further exploration. This study assessed the psychophysiological effects of music on acute recovery and prevalence of entrainment in between bouts of high-intensity exercise. Thirteen male runners (Mage=20.2±1.9years; BMI=21.7±1.7; V̇O2 max=61.6±6.1mL·kg·min-1) completed three exercise sessions comprising 5×5-min bouts of high-intensity intervals interspersed with 3-min periods of passive recovery. During recovery, participants were administered positively-valenced music of a slow-tempo (55-65bpm), fast-tempo (125-135bpm), or a no-music control. A range of measures including affective responses, RPE, cardiorespiratory indices (gas exchange and pulmonary ventilation), and music tempo-respiratory entrainment were recorded during exercise and recovery. Fast-tempo, positively-valenced music resulted in higher Feeling Scale scores throughout recovery periods (p<0.01, ηp2=0.38). There were significant differences in HR during initial recovery periods (p<0.05, ηp2=0.16), but no other music-moderated differences in cardiorespiratory responses. In conclusion, fast-tempo, positively-valenced music applied during recovery periods engenders a more pleasant experience. However, there is limited evidence that music expedites cardiorespiratory recovery in between bouts of high-intensity exercise. These findings have implications for athletic training strategies and individuals seeking to make high-intensity exercise sessions more pleasant.
International Journal of Sports Medicine | 2008
Costas I. Karageorghis; Leighton Jones; Dp Stuart
Journal of Sport & Exercise Psychology | 2014
Leighton Jones; Costas I. Karageorghis; Panteleimon Ekkekakis
Psychology of Sport and Exercise | 2013
Costas I. Karageorghis; Jasmin C. Hutchinson; Leighton Jones; Hannah L. Farmer; Metin S. Ayhan; Rachel C. Wilson; Joshua Rance; Christopher J. Hepworth; Stewart G. Bailey
Psychology of Sport and Exercise | 2014
Costas I. Karageorghis; Leighton Jones