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The Travel Demands of an Elite Rugby Sevens Team: Effects on Objective and Subjective Sleep Parameters

Authors:

Abstract

Purpose: To explore the effects of travel related to international rugby sevens competition on sleep patterns. Methods: A total of 17 international male rugby sevens players participated in this study. Actigraphic and subjective sleep assessments were performed daily during 2 separate Sevens World Series competition legs (Oceania and America). The duration of each competition leg was subdivided into key periods (pretour, precompetition, tournament 1, relocation, tournament 2, and posttour) lasting 2 to 7 nights. Linear mixed models in combination with magnitude-based decisions were used to assess (1) the difference between preseason and key periods and (2) the effect of travel direction (eastward or westward). Results: Shorter total sleep time (hours:minutes) was observed during tournament 2 (mean [SD], 06:16 [01:08]), relocation (06:09 [01:09]), and the pretour week (06:34 [01:24]) compared with the preseason (06:52 [01:00]). Worse sleep quality (arbitrary units) was observed during tournament 1 (6.1 [2.0]) and 2 (5.7 [1.2]), as well as during the relocation week (6.3 [1.5]) than during the preseason (6.5 [1.8]). When traveling eastward compared with westward, earlier fall-asleep time was observed during tournament 1 (ES - 0.57; 90% CI, -1.12 to -0.01), the relocation week (-0.70 [-1.11 to -0.28]), and the posttour (-0.57 [-0.95 to -0.18]). However, possibly trivial and unclear differences were observed during the precompetition week (0.15 [-0.15 to 0.45]) and tournament 2 (0.81 [-0.29 to 1.91]). Conclusion: The sleep patterns of elite rugby sevens players are robust to the effects of long-haul travel and jet lag. However, the staff should consider promoting sleep during the tournament and relocation week.
Title: The travel demands of an elite rugby sevens team: Effects on objective and subjective
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sleep parameters.
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Submission type: Original Research
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Authors: Leduc, C.1,2, Robineau, J.2, Tee, J.C.1,9, Cheradame, J2. Jones, B1,3,4,5,6., Piscione, J.2,
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Lacome, M.2,7,8
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Institutions and Affiliations:
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1 Carnegie Applied Rugby Research (CARR) centre, Carnegie School of Sport, Leeds Beckett
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University, Leeds, United Kingdom
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2 Research Department, French Rugby Federation (FFR), Marcoussis, France
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3 Leeds Rhinos Rugby League Club, Leeds, UK
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4 England Performance Unit, The Rugby Football League, Leeds, UK
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5School of Science and Technology, University of New England, Armidale, NSW, Australia
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6Division of Exercise Science and Sports Medicine, Department of Human Biology, Faculty of
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Health Sciences, the University of Cape Town and the Sports Science Institute of South Africa,
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Cape Town, South Africa
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7 Performance Department, Paris Saint-Germain FC, Saint-Germain-en-Laye, France
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8 French National Institute of Sport (INSEP), Laboratory of Sport, Expertise and Performance
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(EA 7370), Paris, France
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9 Department of Sport Studies, Faculty of Applied Sciences, Durban University of
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Technology, South Africa.
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Abstract count: 240
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Text only word account: 2877
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Numbers of tables: 2
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Numbers of figures: 3
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Contact details:
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Cédric Leduc
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Carnegie Applied Rugby Research (CARR) centre, Carnegie School of Sport, Leeds Beckett
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University
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Church Wood Ave, Leeds LS6 3QS,
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UNITED KINGDOM
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Email: cedric.leduc1@gmail.com
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Mobile: +33682636505
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This research was conducted at French Rugby Federation (FFR). The authors do not have any
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conflicts of interest.
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The travel demands of an elite rugby sevens team: Effects on objective and subjective sleep
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parameters.
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Abstract:
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Purpose: To explore the effects of travel related to international rugby sevens competition on
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sleep patterns.
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Methods: Seventeen international male rugby sevens players participated in this study. Sleep
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assessments were performed daily during two separate Sevens World Series competition legs
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(Oceania and America). The duration of each competition leg was subdivided into key periods
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(pre-tour, pre-competition, tournament 1 and 2, relocation and post-tour) lasting 2 to 7 nights.
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Linear mixed models in combination with magnitude-based decision were used to assess 1) the
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difference between pre-season and key periods and 2) the effect of travel direction (eastward or
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westward).
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Results: Shorter total sleep time (hh:mn) was observed during tournament 2 (mean ± SD, 06:16
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± 01:08), relocation (06:09 ± 01:09) and pre-tour week (06:34 ± 01:24) compared with pre-
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season (06:52 ± 01:00). Worse sleep quality (A.U) was observed during tournament 1 (6.1 ±
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2.0) and 2 (5.7 ± 1.2) as well as during the relocation week (6.3 ± 1.5) than during pre-season
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(6.5 ± 1.8). When traveling eastward compared with westward, earlier fall asleep time was
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observed during tournament 1 (ES -0.57, 90%CI [-1.12 to -0.01]), relocation week (-0.70 [-1.11
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to -0.28]), and post-tour (-0.57 [-0.95 to -0.18]). However, possibly trivial and unclear
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differences were observed during pre-competition week (0.15 [-0.15 to 0.45]) and tournament
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2 (0.81 [-0.29 to 1.91]).
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Conclusion: Sleep patterns of elite rugby sevens players are robust to the effects of long-haul
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travel and jet lag. However, staff should consider promoting sleep during the tournament and
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relocation week.
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Keywords: Travel, jet lag, training load, recovery, team sport.
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Introduction
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Rugby sevens is one of the most physically demanding team sports due to both the intensity of
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match play, and the short recovery times afforded between matches.1,2 At the elite level, this
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physical challenge is exacerbated by fatigue from travel.3 The male HSBC World Series
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consists of five competition legs consisting of two tournaments interspersed by one week, each
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in a different geographic location. Each leg is played on a different continent, separated by just
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four weeks. A tournament itself is composed of five to six games over the course of two to three
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days. Having so many fixtures, in so many places is a challenge for staff who have to prepare
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their athletes to perform and recover over the whole competition.2
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To aid recovery and performance, sleep would be expected to play an important role. However,
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it is likely that sleep is highly disturbed due to training, game play and travel demands. Each
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team has to travel across the globe to compete, with flight durations of ≥ 19h and total travel
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durations of ≥ 30h leading to notable travel fatigue.4,5 Likewise, travelling across different time
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zones may induce important circadian disturbances (e.g. thermoregulation, sleep) due to jet
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lag.6
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The match demands and training periodization for rugby sevens are well described.1,7,8 In
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contrast, research on the influence of intercontinental travel in this population is scarce, despite
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the potential impacts on performance and wellbeing before, during and post competition.
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Research suggests that long haul travel preceding a rugby sevens tournament can impact
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neuromuscular function two days after arrival.3 The workload sustained during a full rugby
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sevens tournament is higher than in individual rugby union games.9 As sleep can be disturbed
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by high workloads,10 it is likely that sleep disturbances during the two days of tournament would
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be greater than those observed in other rugby codes. To date, only one study has assessed sleep
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before, during and after competition in international rugby sevens players,11 and found no
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deterioration in subjective assessments of sleep quality. Based on the substantial travel
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challenges, this finding warrants further investigation using objective measures. Moreover, as
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teams are required to compete all around the world, travel direction (eastward vs. westward)
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could be another factor to consider for the maintenance of sleep health among rugby sevens
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players. Indeed, travel direction is well known to induce circadian adjustments that differ
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depending on the direction of travel.6 The ability to manage the effects of these circadian
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adjustments may have important performance implications in this population.
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To the best of our knowledge only one study has investigated the impacts of the return travel
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on international rugby sevens players.3 They found a larger amount of fatigue post-tournament
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compared to pre-competition, highlighting the cumulative effects of tournament participation
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and travel.
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Due to the lack of information describing the effects of long-haul travel on sleep among elite
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rugby sevens players, the aim of this study was to characterise both the objective and subjective
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sleep responses to key periods of travel and to determine whether these responses differ as a
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result of different travel directions. We hypothesised that 1) long-haul travel may have negative
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effects on sleep patterns during subsequent week, and that different travel directions would
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elicit different responses.
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Methods
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Design
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A prospective, observational and longitudinal design was used to assess the time course of sleep
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responses to participation in two HSBC sevens World Series competition legs in 2016 and 2017.
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The first competition leg observed was the “Oceanic leg” in Wellington (New Zealand) and
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Sydney (Australia) from January to February. The second window of observation occurred
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during the ‘North America leg’ with tournaments in Las Vegas and Vancouver from February
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to March. During these periods, actigraphic sleep assessment subjective sleep quality
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assessments were performed on a daily basis to measure sleep patterns. During all long-haul
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flights the team flew in economy class, and it was not practically possible to record sleep during
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these journeys. Prior to each journey, advice regarding jet lag and travel fatigue management
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were provided to players by team medical staff. These encompassed, a sleep schedule and
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appropriate time to sleep during the flight, an explanation of sleep hygiene strategies to be used
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and the availability of melatonin pills if necessary. Details about departure and arrival times
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and travel durations for each competition leg are provided in Figure 1 and Table 1.
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**Insert figure 1 about here**
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** Insert Table 1 about here**
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Subjects:
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Seventeen male international rugby sevens players (body mass 88.4 ± 11.3 kg; height 183.3 ±
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9.5 cm; age 25.4 ± 5.1 years) from an international team based in Europe participated in this
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study. If players had sleep disorders diagnosed by the medical staff, they were removed from
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the analysis. These data arose from the monitoring processes implemented by the team’s sports
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science and medicine staff to support player recovery and performance. Ethics approval was
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granted by the University ethics board and the recommendations of the Declaration of Helsinki
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were respected.
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Procedures:
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Sleep assessment: Players were allocated an Actiwatch MotionWatch 8 (Cambridge
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Neurotechnology Ltd., Cambridge, UK) which applies published algorithms to activity counts
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to produce reliable and valid estimations of sleep parameters.12 The methodology employed in
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this study was exactly the same as that used by Leduc et al. (2019) with the same cohort during
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a pre-season period. The sleep variables were calculated by the software MotionWare 1.1.25
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(Cambridge Neurotechnology Ltd., Cambridge, UK) and are presented in Table 2. Additionally,
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players were asked to daily subjective sleep quality ratings in a diary on a customized mobile
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application (typeform©, Bac de Roda 163, Barcelona, Spain). Ratings were recorded using a
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Likert visual 10- point analog scale, where 1 corresponds to ‘very poor’ and 10 equals
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‘excellent'.
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** Insert Table 2 about here**
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Data analyses. Over the study period, 1239 nights of sleep were collected for analyses. Data
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from 348 nights was incomplete as a result of measurement error or lack of player compliance,
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and was thus excluded from the dataset. Consequently 891 nights of sleep were included in the
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final analysis. Data from the pre-season were pooled to determine baseline sleep values. These
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data were collected from October to November in the home location and has been already
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described in a previous publication.10 Each competition leg was sub-divided into key periods to
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allow for comparison with baseline and between the “Oceanic” and “North America legs
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(figure 1). The pre-tour week corresponded to the week before departure to the competition
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location (n= 5 to 7 nights). Pre-competition started from the day of arrival in the competition
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location to the day before the 1st tournament (n= 5 to 7 nights). Tournament 1 and 2
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corresponded to the nights that followed tournament participation days (n= 2 to 3 nights). The
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relocation was the week between two tournaments (n= 5 days). Finally, the post-tour week
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started after arrival at home until players restarted training (n= 5 to 7 nights).
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Statistical Analyses:
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Analysis were performed using linear mixed models in R (Version 1.1.442, R Foundation for
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Statistical Computing). Those models were chosen due to their ability to handle repeated
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measures and nested data by considering random factors. In this study, two different models
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were used. The first model pooled data from both World Series competition legs and compared
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each of the key periods defined with the pre-season period (e.g. pre-season vs pre-competition).
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The second model aimed to compare the effects of the direction of the travel (eastward or
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westward) on sleep during each specific key period. Player identity was treated as random factor
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in both the aforementioned models while the period and the travel direction were treated as
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fixed effects. In an attempt to assess the practical importance of travel effects, further analysis
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was conducted using magnitude-based decisions (MBD).13 Effect sizes (ES) and 90%
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confidence limits (90% CL) were quantified to indicate the practical meaningfulness of the
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differences in mean values. The ES was classified as trivial (<0.2), small (>0.2-0.6), moderate
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(>0.6-1.2), large (>1.2-2.0) and very large (>2.0-4.0) (Hopkins, 2009). Quantitative chances of
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greater or smaller changes in sleep parameters were assessed qualitatively as follows: <1%,
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almost certainly not; 15%, very unlikely; 525%, probably not; 2575%, possibly; 7595%,
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likely; 9599.5%, very likely; >99.5%, almost certainly.
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Results
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Comparison between pre-season and key periods of the competition legs.
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Descriptive data gathered per period and respective comparisons with pre-season are displayed
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in Table 3. The evolution of sleep schedule is displayed in Figure 2. Most likely to possibly
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shorter total sleep time was observed during pre-tour week (-0.26 [-0.46 to -0.05]), relocation
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(-0.61 [-0.84 to -0;39]) and tournament 2 (-0.81 [-1.27 to -0.36). Very likely to possibly shorter
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wake time after sleep onset (WASO) were observed during pre-tour week (-0.49 [-0.70 to -
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0.29]), relocation week (-0.27 [-0.50 to -0.05]), tournament 2 (-0.89 [-1.36 to -0.41]) and post-
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tour (-0.36 [-0.58 to -0.14]) and likely to possibly worse sleep quality was observed during
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tournament 1 (-0.33 [-0.62 to -0.03]) and 2 (-0.50 [-0.96 to -0.04]) as well as during the
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relocation week (-0.20 [-0.43 to 0.03]).
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**Insert Table 3 about here**
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Comparison between travel directions.
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Differences in sleep schedule are displayed in Figure 2. Comparisons related to sleep quality
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and quantity in relation to different travel directions are displayed in figure 3. During the
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eastwards travel leg, players displayed very likely earlier fall asleep time during tournament 1
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(-0.57 [-1.12 to -0.01]), relocation week (-0.70 [-1.11 to -0.28]), and post-tour (-0.57 [-0.95 to
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-0.18]). During the westwards travel leg, players displayed most likely to likely earlier wake up
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times during relocation (-1.02 [-1.38 to -0.65]), tournament 2 (7.51 [6.16 to 8.85]) and post-
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tour week (-0.37 [-0.74 to -0.01]). Participants had likely less (0.70 [0.13 to 1.27]) sleep during
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tournament 1 of the westwards travel leg, and compensated by extending sleep (-0.46 [-0.89 to
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-0.03]) during the relocation week of the same travel leg. Players experienced likely better sleep
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quality (0.51 [0.20 to 0.83]) and sleep efficiency (0.46 [0.15 to 0.78]) during the pre-
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competition week on the eastwards travel leg, while players experienced likely greater WASO
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(-0.33 [-0.64 to -0.02]) during the same period on the westwards travel leg.
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**Insert Figure 2 about here**
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**Insert Figure 3 about here**
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Discussion
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The aim of this study was to assess how the key periods of travel during Sevens World Series
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competition legs affect objective and subjective sleep measures of international rugby sevens
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team players. The present results did not support the hypothesis that long-haul travel affected
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sleep patterns negatively in the short term, probably due to efficient strategies used by players
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and staff members. However, a key finding was that the largest sleep disturbances occurred
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during tournament periods and the relocation week suggesting that specific protocols should be
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implemented by staff during these key periods. There was some evidence to support the
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secondary hypothesis, that direction of travel elicits different responses during key periods of
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travel, but these effects could also be explained by contextual factors (e.g. tournament duration,
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game time, staff strategy).
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It would be expected that the effects of long-haul travel would be most pronounced during the
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pre-competition period, immediately after the players take their long-haul flight. However,
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findings of this study showed that jet lag had negligible effects on sleep quantity and quality
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during this period (table 2). During the pre-competition week, players adjusted fall asleep time
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and wake up times to maintain similar total sleep times to what was observed during pre-season.
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These results agree with those of Fowler et al.11 who showed sleep quality and quantity over a
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similar time period either did not change or improved compared to baseline. The availability of
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expert sport science and medicine support staff to players competing at this level could explain
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these results. Indeed, during the pre-tour week, explanations and advice regarding travel
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schedule and jet lag management were provided to all players and staff members. Moreover,
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most of the players were experienced with long-haul travel and had already established personal
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strategies (e.g. melatonin, compression garments) to minimise the potential effects of jet lag
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and travel fatigue. The use of these strategies was difficult to control by the research team due
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to the ecological nature of the study, and represents a limitation of this study. From a practical
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standpoint, these results suggest that professional support provided by the sports science and
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medicine staff were adequate to maintain sleep quality and quantity during this period.
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Our data demonstrated that players accumulated more sleep during the pre-competition week,
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than they did during the pre-tour week when they were at home in their own beds. This is not
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the first study showing better sleep patterns when players are away from their home
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environment.14 Ramirez et al.14 demonstrated an increase in total sleep time (35.4±12.7min)
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resulted from a delayed wake-up time set by the staff members in order to promote recovery.
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This level of control was not present during the pre-tour week when players were at home. It is
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possible that players prepared themselves (or not) differently during this week. Differences
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resulting from individual sleep strategies are highlighted by the high levels of interindividual
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variability observed over this period (Table 3).
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While the effect of jet lag during the pre-competition period was negligible, moderate to large
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changes in sleep patterns were observed during tournaments and relocation period. Notably,
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players reduced total sleep time to approximately 6 hours during these periods, which is well
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below the proposed recommendation for athletes and the general population.15,16 During
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competition, elite players are required to repeat high intensity efforts (e.g. acceleration,
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collision, jumping)17 leading to high levels of muscle damage.18 It has been proposed that this
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high workload results in the sleep disturbances experienced by athletes19 and may explain the
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reduction in total sleep time observed in this study.
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Sleep restriction could explain the slow recovery kinetics among rugby sevens players observed
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between tournaments in a precedent study.20 On the morning of the second tournament (i.e. 5
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days post 1st tournament), the authors found that neuromuscular function was still decreased by
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26%.20 Chronic sleep restriction has been linked to negative changes in physiological
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(decreased immune function and energy storage) and psychological functions which may
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increase the risk of musculoskeletal injury.21 Staff members are encouraged to promote sleep
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during this period in order to support the physiological and psychological recovery process.
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There is evidence that sleep extension has positive effects on athletic performance and is easy
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to implement in any sport context.22 Therefore, the adjustment schedules to increase sleep
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quantity or the implementation of a specific time for napping during tournaments and relocation
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periods represent prudent recovery strategies.
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Differences were observed between eastward and westward travel (Figure 2). During the pre-
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competition week, despite similar total sleep times, players were affected by likely small
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reductions in sleep quality and sleep efficiency and increased WASO on the westward travel
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leg. Substantial differences in sleep scheduling and total sleep time between westward and
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eastward travel legs were observed during tournaments and the relocation week. To some extent
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these differences may have been driven by contextual factors. First, two-day tournaments have
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earlier start than 3 days tournaments, and the time of the team’s first game is affected by the
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ranking from the previous tournament. In this particular case, the staff implemented a strategy
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of earlier wake-up times during the relocation week of the eastward tour leg in order to
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acclimate to a scheduled early tournament start (i.e. 1st match at 09:00 AM), which resulted in
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a decrease in total sleep time. Regardless of travel direction the tournament and relocation
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periods resulted in reduced total sleep time and require better management. As previously
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discussed by Fowler et al.5 during these periods staff should find the best balance between
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effective sleep and competition requirements.
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Limitations
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Due to the ecological nature of this study a number of practical limitations were present. Firstly,
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the sample size is limited due to the squad size allowed for World Series tournaments and as a
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result all conclusions should be interpreted with some caution. Additionally, match load data
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were not available for this study and it remains unknown if the effects observed were the result
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of tournament workload or due to other contextual factors (e.g. hotel night, competition
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schedule, competition results). Further studies should be conducted with multiple teams in order
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to assess if the results observed are context dependent. Moreover, no fatigue monitoring was
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performed during this study thus it cannot be determined whether the changes in sleep quantity
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and quality observed in this study ultimately affected player performance. Finally, it was not
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practically viable to measure sleep during the long-haul flights that preceded each tour leg,
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making it difficult to assess players sleep status on arrival in the tournament destination. Future
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sleep studies that include fatigue and recovery measures are warranted to understand the dose
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response relationship between sleep and fatigue in this ecological sport context.
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Conclusion
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This study described the sleep patterns during the journey of an international rugby sevens team.
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The results suggest that elite rugby sevens players sleep patterns were robust to the effects of
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long-haul travel and jet lag. This is probably due to factors such as experience and efficient
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sleep hygiene strategies used by players. Despite efficient strategies put in place by staff
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members to counteract the effect of jet lag during pre-competition week, sleep was altered
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during the competition and relocation periods. Nevertheless, it remains unknown how these
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disturbed sleep patterns could affect recovery and consequently requires further work.
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Practical applications and research perspectives
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- Effective staff management of long-haul travel and jet lag may limit sleep disturbances
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after arrival
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- Sleep may be deteriorated during tournaments and the relocation period. Consequently,
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staff should try to optimise sleep during those two periods where recovery is crucial.
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- The effects of travel direction are unclear and likely influenced by contextual factors
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(e.g. tournament duration, start time, staff strategy), but it seems that sleep quality is
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compromised in response to westward travel
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- Monitoring sleep parameters on an individual basis remains important due to large
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between players variability.
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21. Luke A, Lazaro RM, Bergeron MF, et al. Sports-related injuries in youth athletes: is
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overscheduling a risk factor? Clin J Sport Med Off J Can Acad Sport Med.
386
2011;21(4):307-314.
387
22. Bonnar D, Bartel K, Kakoschke N, Lang C. Sleep Interventions Designed to Improve
388
Athletic Performance and Recovery: A Systematic Review of Current Approaches.
389
Sport Med. 2018;48(3):683-703.
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391
392
393
394
395
396
397
398
399
400
401
402
403
404
405
406
407
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Table and Figure
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Table 1: Competitions details.
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Table 2: Definitions of each sleep variable from wrist watch actigraphy
411
Table 3: Sleep characteristics for the different periods. Data are presented as mean±SD. *: possibly, **:
412
likely, ***: very likely, ****: most likely change/difference compare to pre-season.
413
Figure1: Schematic representation of the study design. (n=) stands for the number of nights of sleep
414
recorded per periods. Plane logos represent the flight periods. Pad and watch logos represent the
415
subjective and sleep measures respectively.
416
Figure 2: Sleep schedule comparison between competition and travel direction. *: possibly, **: likely,
417
***: very likely, ****: most likely change/difference. Greys zone stands for trivial.
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Figure 3: Sleep quality and quantity comparison between competition and travel direction. Black dots
419
and lines represent effect size and 90% confidence interval respectively. Horizontal axis represents the
420
magnitude of the effect expressed as effect size. vertical axis represents the period of analysis. *:
421
possibly, **: likely, ***: very likely, ****: most likely change/difference. Greys zone stands for trivial.
422
WASO: wake time after sleep onset.
423
Table 1.
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425
426
427
428
429
430
431
432
433
434
435
436
437
438
439
440
Location
Local temperature
(°C)
Tournament
duration
Competition 1
Oceania
Tournament 1
Wellington
18.2±1.4
2
Tournament 2
Sydney
26.8±3.6
2
Competition 2
America
Tournament 1
Las Vegas
17.2±3.9
3
Tournament 2
Vancouver
6.1±2.9
2
Table 2.
441
442
443
444
Sleep variables
(units)
Definition
Fall asleep time
(hh:mm)
Estimated clock time at which the player fell asleep
Wake time (hh:mm)
Estimated clock time at which the player woke up
Sleep onset latency
(min)
Time between bed time and sleep onset
Total sleep time (min)
Time spent asleep determined from sleep onset to wake up time, minus
any wake time
Wake time after sleep
onset (WASO) (min)
The total time spent in wake according
to the epoch-by-epoch wake/sleep categorisation
Sleep efficiency (%)
Total sleep time divided by the time in bed
Table 3.
445
446
Pre-season
Pre-tour
Pre-competition
Tournament 1
Relocation
Post-tour
Fall asleep time
(hh:mm)
23:37 ± 1:04
(20:24 03:12)
00:01 ± 01:11**
(20:51 03:44)
Small
23:06 ± 00:54****
(20:52 01:55)
Moderate
00:09 ± 01:02**
(20:25 01:38)
Small
23:23 ± 01:05*
(19:49 02:01)
Small
23:36 ± 01:20**
(21:06 03:47)
Trivial
Wake up time
(hh:mm)
07:48 ± 01:04
(04:07 12:25)
07:45 ± 01:27**
(04:45 11:54)
Trivial
07:26 ± 00:40***
(05:44 08:57)
Small
08:11 ± 00:46*
(05:35 09:52)
Small
06:49 ± 01:13****
(03:40 08:58)
Moderate
07:36 ± 01:21*
(03:49 11:19)
Trivial
Total sleep time
(hh:mm)
06:52 ± 01:00
(02:42 09:21)
06:34 ± 01:24*
(01:47 10:00)
Small
06:59 ± 00:56*
(04:11 09:34)
Trivial
06:43 ± 00:58*
(04:54 08:29)
Trivial
06:09 ± 01:09****
(03:52 08:2)
Moderate
06:46 ± 01:23**
(03:41 11:12)
Trivial
Wake time after
sleep onset
(hh:mm)
01:19 ± 00:27
(00:14 04:11)
01:08 00:28***
(00:09 02:44)
Small
01:21 ± 00:25**
(00:31 02:44)
Trivial
01:18 ± 00:20*
(00:37 02:07)
Trivial
01:17 ± 00:28*
(00:32 03:04)
Small
01:13 ± 00:28**
(00:03 02:21)
Small
Sleep quality
(AU)
6.5 ± 1.8
(0 10)
6.7 ± 1.6*
(1 10)
Trivial
6.8 ± 1.8*
(2 10)
Trivial
6.1 ± 2.0**
(1 10)
Small
6.3 ± 1.5*
(4 10)
Small
6.5 ± 1.7*
(3 10)
Trivial
Sleep efficiency
(%)
80.1 ± 6.5
(50.4 91.4)
80.6 ± 6.6**
(58.8 93.0)
Trivial
81.2 ± 5.6**
(63.1 93.8)
Small
80.7 ± 5.9*
(65.2 90.1)
Trivial
78.3 ± 8.3*
(48.2 92.4)
Trivial
81.5 ± 6.9*
(64.7 99)
Small
Sleep onset
latency (min)
00:19 ± 00:27
(00:00 03:11)
00:22 ± 00:29*
(00:00 02:57)
Trivial
00:10 ± 00:15***
(00:00 01:17)
Small
00:14 ± 00:15*
(00:00 00:55)
Small
00:21 ± 00:31*
(00:00 03:17)
Trivial
00:13 ± 00:19*
(00:00 01:42)
Trivial
Figure 1.
447
448
Figure 2.
449
450
451
452
Figure 3.
453
454
... Similarly to what was previously reported (Fullagar et al., 2016;Lastella et al., 2019;Leduc et al., 2021;, sleep time was reduced during travel, which could result in sleep debt that athletes might need to recover before the competition (Janse van Rensburg et al., 2021). Indeed, athletes slept more during SIA than at baseline. ...
... Conversely, no increase in sleep time was observed in soccer players crossing four time zones westward (Fullagar et al., 2016), while soccer players crossing seven time zones eastward obtained less sleep time during the period following the travel (Biggins et al., 2022). Differences across studies remain to be elucidated and can be due to different travel conditions (Lalor et al., 2021), sleep hygiene awareness (Leduc et al., 2021), and/or different impacts on sleep between eastward versus westward travels . However, when crossing ∼13 time zones as in the case of the present study, athletes travel to the other side of the globe and face a complete reversal of the day-night cycle, making travel direction potentially less relevant. ...
... Based on results from this and previous studies evaluating the effects of ∼12 h time changes on sleep and performance (Bullock et al., 2008;Cardinali et al., 2002;Leduc et al., 2021), athletes seem to adapt quickly (i.e., within 5 days), while the literature typically suggests 0.5-1 day of adjustment per time zone crossed (Eastman & Burgess, 2009). ...
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Leduc, C, Jones, B, Robineau, J, Piscione, J, and Lacome, M. Sleep quality and quantity of international rugby sevens players during pre-season. J Strength Cond Res XX(X): 000-000, 2019-The aim of this study was to investigate the influence of training load on objective and subjective sleep measures among elite rugby sevens players during pre-season. Nine international male rugby sevens players participated in this study. Actigraphic and subjective sleep assessment were performed on a daily basis to measure sleep parameters. Training load was measured during the entire pre-season period, and sleep data from the highest and lowest training load week were used in the analysis through magnitude-based inferences. During the highest training load, likely to possibly small, moderate decreases in time in bed (effect sizes; ±90% confidence limits: -0.42; ±0.44 for session rating of perceived exertion [sRPE], -0.69; ±0.71 for total distance covered [TDC]) and total sleep time (-0.20; ±0.37 for sRPE, -0.23; ±0.35 for TDC) were found. Possibly small (-0.21; ±0.35 for high-speed distance, -0.52; ±0.73 for acceleration/deceleration [A/D]) and likely moderate (-074; ±0.67 for TDC) decreases were observed in subjective sleep quality. Possibly small to very likely moderate changes in sleep schedule were observed. Sleep quantity and subjective quality seem to be deteriorated during higher loads of training. This study highlights the necessity to monitor and improve sleep among elite rugby sevens players, especially for the intense period of training.
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This study determined the effect of long-haul (>5 h) travel on lower body power and match running demands in international rugby sevens players. Lower body power was assessed in twenty-two male international rugby sevens players (age 21.7 ± 2.7 y, mass 89.0 ± 6.7 kg, stature 180.5 ± 6.2 cm; mean ± SD) monitored over 17 rugby sevens tournaments. A countermovement jump was used to monitor lower body power (peak and mean power) over repeated three week travel and competition periods (pre-travel, post-travel, and post-tournament). Small decreases were evident in peak power following both short and long-haul travel (-4.0%, ±3.2%; mean, ±90% confidence limits) with further reductions in peak and mean power post-tournament (-4.5%, ±2.3% and -3.8%, ±1.5%) culminating in a moderate decrease in peak power overall (-7.4%, ±4.0%). A sub-set of 12 players (completing a minimum of 8 tournaments) had the effects of match running demands assessed with lower body power. In this sub-set long-haul travel elicited a large decrease in lower body peak (-9.4%, ±3.5%) and mean power (-5.6%, ±2.9%) over the monitoring period, with a small decrease (-4.3%, ±3.0% and -2.2%, ±1.7%) post-travel and moderate decrease (-5.4%, ±2.5% and -3.5%, ±1.9%) post-tournament respectively. Match running demands were monitored via global positioning system. In long-haul tournaments the 12 players covered ∼13%, ±13% greater total distance (m) and ∼11%, ±10% higher average game meters >5 m·s when compared with short-haul (<5 h) travel. Effective pre- and post-travel player management strategies are indicated to reduce neuromuscular fatigue and running load demands in rugby sevens tournaments following long-haul travel.