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目的:运用潜在剖面分析识别中小学生的24 h活动行为模式类别,探讨其类别特征,分析其与体质健康的关联。方法:选取武汉市、长沙市共1 090名6~18岁中小学生,采用加速度传感器测量24 h活动行为时间,依据《国家学生体质健康标准(2014年修订)》对体质健康进行测试,基于成分数据,通过潜在剖面分析确定中小学生24 h活动行为模式类别,采用多元线性回归分析24 h活动行为模式类别与体质健康的关系。结果:1)小学生24 h活动行为模式类别分为高活跃低久坐、低活跃高久坐短睡眠及长睡眠3个类别;中学生24 h活动行为模式类别分为高活跃低久坐长睡眠、低活跃及高久坐短睡眠3个类别;2)小学生不同活动行为模式类别在年龄(χ2=37.888,P<0.001)、性别(χ2=6.227,P=0.044)、父母受教育程度(χ2=21.744,P<0.001)上存在显著差异;中学生不同活动行为模式类别在年龄(χ2=23.556, P<0.001)和性别(χ2=53.291,P<0.001)上存在显著差异;3)小学生中,相较于低活跃高久坐短睡眠组,高活跃低久坐组[β=9.193,95%CI:(5.948,12.438),P<0.001]、长睡眠组[β=5.191,95%CI:(1.718,8.664),P=0.003]与体质健康总分显著正相关;以高活跃低久坐组为参照,长睡眠组与体质健康总分显著负相关[β=-4.002,95%CI:(-6.461,-1.543),P<0.001];4)中学生中,相较于高久坐短睡眠组,高活跃低久坐长睡眠组与体质健康总分显著正相关[β=3.540,95%CI:(0.738,6.343),P=0.013],而低活跃组与体质健康总分无显著相关[β=0.895,95%CI:(-1.490,3.280),P=0.461];以高活跃低久坐长睡眠组为参照,低活跃组与体质健康总分显著负相关[β=-2.645,95%CI:(-4.879,-0.411),P=0.020]。结论:小学生高活跃低久坐组的体质健康水平最高,其次为长睡眠组,低活跃高久坐短睡眠组的体质健康水平最低;中学生高活跃低久坐长睡眠组的体质健康水平显著高于低活跃组和高久坐短睡眠组,后两组的体质健康水平无显著差异。建议根据不同群体的行为类型差异制定具有针对性的干预策略。
Abstract:Objective: To identify 24 h movement behavior typologies among primary and middle school students by using latent profile analysis, explore the characteristics of these categories, and analyze their associations with physical fitness. Methods: A total of 1,090 primary and middle school students aged 6 to 18 years old from Wuhan and Changsha were included. The 24 h movement behavior duration was measured by using an accelerometer, physical fitness was tested according to the National Standards for Students' Physical Health(2014 Revision). Based on compositional data, latent profile analysis was used to identify 24 h movement behavior typologies, and multiple linear regression was performed to analyze the relationship between these typologies and physical fitness. Results: 1) Three typologies were identified among primary school students: “highly active and low sedentary”, “low active, high sedentary and short sleep” and “long sleep”. Three typologies were also identified among middle school students: “highly active, low sedentary and long sleep”, “low active”, and “high sedentary and short sleep”. 2) For primary school students, significant differences existed across categories in age(χ2=37.888, P<0.001), gender(χ2=6.227, P=0.044), and parental education level(χ2=21.744, P<0.001). For middle school students, significant differences existed across categories in age(χ2=23.556, P<0.001) and gender(χ2=53.291, P<0.001). 3) For primary school students, compared with the “low active, high sedentary and short sleep” group, the “highly active and low sedentary” [β=9.193, 95% CI:(5.948,12.438), P<0.001] and the “long sleep” group [β=5.191, 95% CI:(1.718, 8.664), P=0.003] were significantly positively associated with the physical fitness score. Taking the “highly active and low sedentary” group as a reference, the “long sleep” group was significantly negatively associated with the physical fitness score [β=-4.002, 95% CI:(-6.461,-1.543), P< 0.001]. 4) For middle school students, compared with the “high sedentary and short sleep” group, the “highly active, low sedentary and long sleep” group was significantly positively associated with the physical fitness score [β =3.540, 95% CI:(0.738, 6.343), P=0.013], while the “low active” group had no significant association with the physical fitness score [β=0.895, 95% CI:(-1.490, 3.280), P=0.461]. Taking the “highly active, low sedentary and long sleep” group as a reference, the “low active” group was significantly negatively associated with the physical fitness score [β =-2.645, 95% CI:(-4.879,-0.411), P=0.020]. Conclusions: Among primary school students, the “highly active and low sedentary” group exhibited the highest physical fitness level, followed by the “long sleep” group, and the “low active, high sedentary and short sleep” group had the lowest physical health level. Among middle school students, the physical fitness level of the “highly active, low sedentary and long sleep” group was significantly higher than both the “low active” and “high sedentary and short sleep” groups. There was no significant difference in physical fitness between the latter two groups. It is recommended to formulate targeted intervention strategies based on the behavioral type differences among different groups.
常振亚,王树明,2020. 24小时动作行为对学龄前儿童体质健康影响的等时替代效益研究[J].体育科学,40(10):50-57.
郭璐,毛志雄,2023.城市成年人锻炼的心理动力因素:潜在剖面分析[J].北京体育大学学报,46(3):110-120.
金黎明,乌云格日勒,德力格尔,2023.蒙古族初中生24 h时间分配模式与体质健康水平的关联[J].中国学校卫生,44(12):1853-1857.
李娟,田慧,亓顺红,等,2023.我国不同冰雪项目优秀运动员家庭社会因素的特征[J].上海体育学院学报,47(12):83-96.
梁果,王丽娟,周玉兰,等,2023.睡眠时长与中国6~19岁儿童青少年肥胖风险的关系:基于系统综述与Meta分析[J].中国体育科技,59(7):61-70.
刘晓婷,张宁,2024.青少年早期睡眠问题的发展:性别差异及正性负性情绪的作用[J].心理发展与教育,40(4):551-562.
宋云峰,齐玉刚,谭思洁,等,2025.青少年“黄金日”活动行为推荐量研究:基于成分最佳时区分析法[J].体育学刊,32(4):129-136.
唐毅,卢冬磊,佟力,等,2024.天津市小学生24 h活动行为与体质健康的关联[J].中国学校卫生,45(12):1713-1717.
王丽娟,2022. 5~18岁儿童青少年24 h活动研究:现状、影响因素与健康效应[J].中国体育科技,58(1):46-56.
王丽娟,肖毅,2018.父母因素对子女闲暇时间体力活动的影响:从性别差异的角度分析[J].上海体育学院学报,42(1):79-86.
王韵,曾霞,2025.睡眠时长和久坐行为对儿童青少年超重肥胖的联合作用[J].中国儿童保健杂志,33(5):514-519.
王子瑶,陈潇潇,林海江,等,2023.台州市中学生抑郁焦虑症状现状及其与学业负担的关系[J].中国学校卫生,44(11):1655-1659.
杨兴隆,王丽娟,徐琪,等,2024.基于体质健康、心理健康及执行功能的我国儿童青少年24 h活动推荐量研究[J].体育科学,44(7):75-86.
尹奎,彭坚,张君,2020.潜在剖面分析在组织行为领域中的应用[J].心理科学进展,28(7):1056-1070.
张涵敏,张婷,武宝爱,等,2023. 24 h活动行为与小学生身体素质的关系[J].中国学校卫生,44(1):17-22.
张婷,李红娟,李超,等,2022.基于成分数据分析的青少年24 h活动行为与体质关联的研究[J].中国体育科技,58(12):91-97.
祝大鹏,梁斌,2021.社会经济地位与个体身体活动的关系及其影响因素[J].武汉体育学院学报,55(7):88-94.
BARREIRA T V, SCHUNA JR J M, MIRE E F, et al., 2015.Identifying children’s nocturnal sleep using 24-h waist accel-erometry[J]. Med Sci Sports Exerc, 47(5):937-943.
BROWN D M Y, CAIRNEY J, KWAN M Y, 2021. Adoles-cent movement behaviour profiles are associated with indi-cators of mental wellbeing[J/OL]. Ment Health Phys Act,20(1):100387[2025-02-06]. https://doi.org/10.1016/j.mh-pa.2021.100387.
BROWN D M Y, KWAN M Y, ARBOUR-NICITOPOULOSK P, et al., 2020. Identifying patterns of movement behav-iours in relation to depressive symptoms during adoles-cence:A latent profile analysis approach[J/OL]. PrevMed, 143(1):106352[2025-02-06]. https://doi.org/10.1016/j.ypmed.2020.106352.
CARSON V, TREMBLAY M S, CHAPUT J P, et al., 2016.Associations between sleep duration, sedentary time, physi-cal activity, and health indicators among Canadian childrenand youth using compositional analyses[J]. Appl PhysiolNutr Metab, 41(6 Suppl 3):S294-S302.
CHAPUT J P, CARSON V, GRAY C E, et al., 2014. Impor-tance of all movement behaviors in a 24 hour period foroverall health[J]. Int J Environ Res Public Health, 11(12):12575-12581.
CHASTIN S F M, PALAREA-ALBALADEJO J, DONTJEM L, et al., 2015. Combined effects of time spent in physi-cal activity, sedentary behaviors and sleep on obesity andcardio-metabolic health markers:A novel compositional dataanalysis approach[J/OL]. PLo S One, 10(10):e0139984[2025-02-06]. https://doi.org/10.1371/journal.pone.0139984.
DE SOUZA A A, MOTA J A P S, DA SILVA G M G , et al.,2021. Associations between movement behaviours and obe-sity markers among preschoolers compliant and non-compli-ant with sleep duration:A latent profile analysis[J/OL]. IntJ Environ Res Public Health, 18(18):9492[2025-02-06].https://doi.org/10.3390/ijerph18189492.
ESPINEL P T, CHAU J Y, VAN DER PLOEG H P, et al.,2015. Older adults’ time in sedentary, light and moderateintensity activities and correlates:Application of australiantime use survey[J]. J Sci Med Sport, 18(2):161-166.
EVENSON K R,CATELLIER D J,GILL K,et al.,2008. Cali-bration of two objective measures of physical activity forchildren[J]. J Sports Sci, 26(14):1557-1565.
FAIRCLOUGH S J, CLIFFORD L, BROWN D, et al.,2023. Characteristics of 24-hour movement behaviours andtheir associations with mental health in children and adoles-cents[J/OL]. J Act Sedentary Sleep Behav, 2(1):11[2025-02-06]. https://doi.org/10.1186/s44167-023-00021-9.
FU J L, WANG Y H, LI G, et al., 2019. Childhood sleep du-ration modifies the polygenic risk for obesity in youththrough leptin pathway:The Beijing child and adolescentmetabolic syndrome cohort study[J]. Int J Obes(Lond),43(8):1556-1567.
GABRIEL A S, DANIELS M A, DIEFENDORFF J M, etal., 2015. Emotional labor actors:A latent profile analysisof emotional labor strategies[J]. J Appl Psychol, 100(3):863-879.
GUPTA N, HALLMAN D M, DUMUID D, et al., 2020.Movement behavior profiles and obesity:A latent profileanalysis of 24-h time-use composition among Danish work-ers[J]. Int J Obes(Lond), 44(2):409-417.
JANDA D, GABA A, HRON K, et al., 2024. Movement be-haviour typologies and their associations with adiposity indi-cators in children and adolescents:A latent profile analysisof 24-h compositional data[J/OL]. BMC Public Health,24(1):1553[2025-02-06]. https://doi.org/10.1186/s12889-024-19075-8.
LUBKE G H, NEALE M C, 2006. Distinguishing between la-tent classes and continuous factors:Resolution by maximumlikelihood?[J]. Multivariate Behav Res, 41(4):499-532.
MATHAN J, MAXIMINO-PINHEIRO M, HE Q, et al.,2024. Effects of parental socioeconomic status on off-spring’s fetal neurodevelopment[J/OL]. Cereb Cortex,34(11):bhae443[2025-04-12]. https://doi.org/10.1093/cer-cor/bhae443.
MATRICCIANI L A, OLDS T S, BLUNDEN S, et al., 2012.Never enough sleep:A brief history of sleep recommenda-tions for children[J].Pediatrics, 129(3):548-556.
NYLUND K L, ASPAROUHOV T, MUTHéN B O, 2007.Deciding on the number of classes in latent class analysisand growth mixture modeling:A monte carlo simulationstudy[J]. Struct Equ Modeling, 14(4):535-569.
OKELY A D, GHERSI D, HESKETH K D, et al., 2017. Acollaborative approach to adopting/adapting guidelines:Theaustralian 24-hour movement guidelines for the early years(birth to 5 years):An integration of physical activity, sed-entary behavior, and sleep[J/OL]. BMC Public Health,17(Suppl 5):869[2025-05-23]. https://doi.org/10.1186/s12889-017-4867-6.
PADMAPRIYA N, CHEN B, GOH C M J L, et al., 2021. 24-hour movement behaviour profiles and their transition inchildren aged 5.5 and 8 years:Findings from a prospectivecohort study[J/OL]. Int J Behav Nutr Phys Act, 18(1):145[2025-02-06]. https://doi.org/10.1186/s12966-021-01210-y.
PEDISIC Z, 2014. Measurement issues and poor adjustmentsfor physical activity and sleep undermine sedentary behav-iour research:The focus should shift to the balance betweensleep, sedentary behaviour, standing and activity[J]. Kine-siology, 46(1):135-146.
RHODE R E, SPENCE J C, BERRY T, et al., 2019. Parentalsupport of the Canadian 24-hour movement guidelines forchildren and youth:prevalence and correlates[J/OL].BMC public health, 19(1):1385[2026-03-10]. https://doi.org/10.1186/s12889-019-7744-7
STANLEY L, KELLERMANNS F W, ZELLWEGER T M,2017. Latent profile analysis:Understanding family firmprofiles[J]. Fam Bus Rev, 30(1):84-102.
TROST S G, PATE R R, FREEDSON P S, et al., 2000. Us-ing objective physical activity measures with youth:Howmany days of monitoring are needed?[J]. Med Sci SportsExerc, 32(2):426-431.
WILHITE K, BOOKER B, HUANG B-H, et al., 2023. Com-binations of physical activity, sedentary behavior, andsleep duration and their associations with physical, psycho-logical, and educational outcomes in children and adoles-cents:A systematic review[J]. Am J Epidemiol, 192(4):665-679.
ZHANG T, LI H J, LI C, et al., 2022. The compositional im-pacts of 2 distinct 24-hour movement behavior change pat-terns on physical fitness in Chinese adolescents[J]. J PhysAct Health, 19(4):284-291.
基本信息:
DOI:10.16470/j.csst.2026019
中图分类号:G804.49;G633.96
引用信息:
[1]张畅,王丽娟,郑丹蘅,等.中小学生24 h活动行为模式类别与体质健康的关系:基于潜在剖面分析[J].中国体育科技,2026,62(03):44-56.DOI:10.16470/j.csst.2026019.
基金信息:
国家社会科学基金一般项目(22BTY048)
2026-03-15
2026-03-15