Montmorency cherry supplementation enhances 15 km cycling time trial performance: Optimal timing 90‐min pre‐exercise

Montmorency cherry (MC) can improve endurance performance, but optimal pre-exercise timing of supplementation and influence of training status on efficacy are unknown. We investigated the effect of MC concentrate ingestion between 30- and 150-min pre-exercise in trained and recreational cyclists on 15-km time trial (TT) performance and exercise economy. Twenty participants (10 recreationally active, RA; 10 trained, T) completed 10 min of steady-state exercise (SSE) at 40%Δ (SSE) and a TT on four separate occasions following an unsupplemented (US), 30-, 90- or 150-min pre-exercise Montmorency cherry concentrate (MCC) supplementation conditions (MCC<sup>30/90/150min</sup>). Venous and capillary blood samples were taken at regular intervals pre- and post-SSE and TT. MCC significantly improved TT performance, but not exercise economy. The greatest improvement in performance occurred following MCC<sup>90min</sup> compared to US (US 1603.1 ± 248 s vs. MCC<sup>90min</sup> 1554.8 ± 226.7 s, 2.83% performance improvement). Performance was significantly enhanced for trained (US 1496.6 ± 173.1 s vs. MCC<sup>90min</sup> 1466.8 ± 157.6 s) but not recreationally active participants. Capillary [lactate] and heart rate were significantly greater during the TT for the 90-min dose timing (p < 0.05). In the MCC<sup>30min</sup> and MCC<sup>90min</sup> conditions, plasma ferulic (US 8.71 ± 3.22 nmol. L<sup>-1</sup> vs. MCC<sup>30min</sup> 15.80 ± 8.69 nmol. L<sup>-1</sup>, MCC<sup>90min</sup> 12.65 ± 4.84 nmol. L<sup>-1</sup>) and vanillic acid (US 25.14 ± 10.91 nmol.L<sup>-1</sup> vs. MCC<sup>30min</sup> 153.07 ± 85.91 nmol. L<sup>-1</sup>, MCC<sup>90min</sup> 164.58 ± 59.06 nmol. L<sup>-1</sup>) were significantly higher pre-exercise than in US and MCC<sup>150min</sup> conditions (p < 0.05). There was no significant change in muscle oxygenation status or plasma nitrite/nitrate concentration. MCC supplementation enhanced endurance exercise performance optimally when consumed ∼90 min pre-exercise producing maximal plasma phenolic metabolites during exercise. The ergogenic effect was greater for trained participants.

Authors

Institutions

Publication Details

Journal
European Journal of Sport Science
Published
2024-08-30
DOI
https://doi.org/10.1002/ejsc.12187
Citations
6
Primary Topic
Exercise and Physiological Responses
Type
article
Field-Weighted Citation Impact
1.50

Funders

Controls
|||
ALL TIME
JAN
FEB
MAR
APR
MAY
JUN
JUL
AUG
SEP
OCT
article

Montmorency cherry supplementation enhances 15 km cycling time trial performance: Optimal timing 90‐min pre‐exercise

Jonathan Tang, Joanna L. Bowtell, Vincent G. Kelly, Mary F. O’Leary et al.
6 citations
European Journal of Sport Science
Exercise and Physiological Responses
1.50
article

Montmorency cherry supplementation enhances 15 km cycling time trial performance: Optimal timing 90‐min pre‐exercise

Jonathan Tang, Joanna L. Bowtell, Vincent G. Kelly, Mary F. O’Leary, Jimmy T. Wangdi
article en
6 citations

Abstract

Montmorency cherry (MC) can improve endurance performance, but optimal pre-exercise timing of supplementation and influence of training status on efficacy are unknown. We investigated the effect of MC concentrate ingestion between 30- and 150-min pre-exercise in trained and recreational cyclists on 15-km time trial (TT) performance and exercise economy. Twenty participants (10 recreationally active, RA; 10 trained, T) completed 10 min of steady-state exercise (SSE) at 40%Δ (SSE) and a TT on four separate occasions following an unsupplemented (US), 30-, 90- or 150-min pre-exercise Montmorency cherry concentrate (MCC) supplementation conditions (MCC<sup>30/90/150min</sup>). Venous and capillary blood samples were taken at regular intervals pre- and post-SSE and TT. MCC significantly improved TT performance, but not exercise economy. The greatest improvement in performance occurred following MCC<sup>90min</sup> compared to US (US 1603.1 ± 248 s vs. MCC<sup>90min</sup> 1554.8 ± 226.7 s, 2.83% performance improvement). Performance was significantly enhanced for trained (US 1496.6 ± 173.1 s vs. MCC<sup>90min</sup> 1466.8 ± 157.6 s) but not recreationally active participants. Capillary [lactate] and heart rate were significantly greater during the TT for the 90-min dose timing (p < 0.05). In the MCC<sup>30min</sup> and MCC<sup>90min</sup> conditions, plasma ferulic (US 8.71 ± 3.22 nmol. L<sup>-1</sup> vs. MCC<sup>30min</sup> 15.80 ± 8.69 nmol. L<sup>-1</sup>, MCC<sup>90min</sup> 12.65 ± 4.84 nmol. L<sup>-1</sup>) and vanillic acid (US 25.14 ± 10.91 nmol.L<sup>-1</sup> vs. MCC<sup>30min</sup> 153.07 ± 85.91 nmol. L<sup>-1</sup>, MCC<sup>90min</sup> 164.58 ± 59.06 nmol. L<sup>-1</sup>) were significantly higher pre-exercise than in US and MCC<sup>150min</sup> conditions (p < 0.05). There was no significant change in muscle oxygenation status or plasma nitrite/nitrate concentration. MCC supplementation enhanced endurance exercise performance optimally when consumed ∼90 min pre-exercise producing maximal plasma phenolic metabolites during exercise. The ergogenic effect was greater for trained participants.

European Journal of Sport ScienceVol. 24(10)
University of East Anglia (GB), Queensland University of Technology (AU), The University of Queensland (AU), University of Exeter (GB), Norfolk and Norwich University Hospital (GB)
University of Exeter
Openalex Percentile: Top 16%
Exercise and Physiological Responses
1.50
AI Navigator

Ask Laika to Summarize, Analyze, and Connect papers live on the map.

Summarize Papers & Methodologies

Extract key findings, datasets, and comparative methods across publications.

Benchmark Rankings & Visual Analytics

Rank top research institutions, authors, funders, topics, and journals by Field-Weighted Citation Impact (FWCI) and paper volume with instant charts.

Connect Distant Disciplines

Bridge topological clusters on the map to find hidden collaborative intersections.