Predicting Age of Independent Walking in Preterm Infants: A Longitudinal Study Using Neonatal Characteristics and Motor Development Variables
0
조회
0
다운로드
0
인용
0
참고문헌
키워드
초록
Objective: To formulate an equation estimating months to independent walking in moderate to late preterm infants based on neonatal characteristics and gross motor development from 7 months to independent walking.Methods: Sixty infants born between 32 to 36 weeks were assessed using Alberta Infant Motor Scale (AIMS) for gross motor development. Neonatal characteristics were recorded at 7 months, and caregiver-reported independent walking onset. Pearson correlation analyzed age, AIMS scores, and neonatal factors. Multiple regression developed the prediction equation.Results: The equation for independent walking onset, which included gestational age (GA) at birth, total AIMS score at 10 months of age (10th AIMS), and birth head circumference (BHC), exhibited a strong correlation (r=0.707) and had a predictive power of 50.0%. The equation is as follows: age onset of independent walking (months)=33.157, -0.296 (GA), -0.132 (10th AIMS), -0.196 (BHC), with an estimation error of 0.631 months.Conclusion: Neonatal characteristics, such as GA, 10th AIMS, and BHC, are key determinants in estimating the onset of independent walking in moderate to late preterm infants.
Abstract
Objective: To formulate an equation estimating months to independent walking in moderate to late preterm infants based on neonatal characteristics and gross motor development from 7 months to independent walking.Methods: Sixty infants born between 32 to 36 weeks were assessed using Alberta Infant Motor Scale (AIMS) for gross motor development. Neonatal characteristics were recorded at 7 months, and caregiver-reported independent walking onset. Pearson correlation analyzed age, AIMS scores, and neonatal factors. Multiple regression developed the prediction equation.Results: The equation for independent walking onset, which included gestational age (GA) at birth, total AIMS score at 10 months of age (10th AIMS), and birth head circumference (BHC), exhibited a strong correlation (r=0.707) and had a predictive power of 50.0%. The equation is as follows: age onset of independent walking (months)=33.157, -0.296 (GA), -0.132 (10th AIMS), -0.196 (BHC), with an estimation error of 0.631 months.Conclusion: Neonatal characteristics, such as GA, 10th AIMS, and BHC, are key determinants in estimating the onset of independent walking in moderate to late preterm infants.
참고문헌 (35)
- Prommin S, "Effects of play in an upright position on intra-individual variability of gross motor and language development in institutionalized infants", Int J Environ Res Public Health, 19, pp.11804~ (2022)
- WHO Multicentre Growth Reference Study Group, "WHO Motor Development Study : windows of achievement for six gross motor development milestones", Acta Paediatr Suppl, 450, pp.86~95 (2006)
- Pin TW, "Longitudinal development of segmental trunk control in full term and preterm infants-a pilot study : part I", Dev Neurorehabil, 23, pp.185~192 (2020)
- Kayenne Martins Roberto Formiga C, "Motor development curve from 0 to 12 months in infants born preterm", Acta Paediatr, 100, pp.379~384 (2011)
- Hadders-Algra M, "Early human motor development : from variation to the ability to vary and adapt", Neurosci Biobehav Rev, 90, pp.411~427 (2018)
- Fuentefria RDN, "Motor development of preterm infants assessed by the Alberta Infant Motor Scale : systematic review article", J Pediatr(Rio J), 93, pp.328~342 (2017)
- Maia PC, "Motor development of preterm and term infants : using the Alberta Infant Motor Scale", Acta Paul Enferm, 24, pp.670~675 (2011)
- Syrengelas D, "Alberta Infant Motor Scale(AIMS)performance of greek preterm infants : comparisons with full-term infants of the same nationality and impact of prematurity-related morbidity factors", Phys Ther, 96, pp.1102~1108 (2016)
- Saccani R, "Associations of biological factors and affordances in the home with infant motor development", Pediatr Int, 55, pp.197~203 (2013)
- "J Pediatr(Rio J)", 2000, 421~428
- Casey BM, "The continuing value of the Apgar score for the assessment of newborn infants", N Engl J Med, 344, pp.467~471 (2001)
- Keeratisiroj O, "Prognostic predictors for ambulation in children with cerebral palsy : a systematic review and meta-analysis of observational studies", Disabil Rehabil, 40, pp.135~143 (2018)
- Aimsamrarn P, "Cultural translation and adaptation of the Alberta Infant Motor Scale Thai version", Early Hum Dev, 130, pp.65~70 (2019)
- Tupsila R, "Intra-individual variability in gross motor development in healthy full-term infants aged 0-13 months and associated factors during child rearing", Children(Basel), 9, pp.801~ (2022)
- de Vries LS, "The spectrum of leukomalacia using cranial ultrasound", Behav Brain Res, 49, pp.1~6 (1992)
- Papile LA, "Incidence and evolution of subependymal and intraventricular hemorrhage : a study of infants with birth weights less than 1, 500 gm", J Pediatr, 92, pp.529~534 (1978)
- Piper MC, "Motor assessment of the developing infant", pp.1~210 (1994), Saunders
- Wijnhoven TM, "Assessment of gross motor development in the WHO Multicentre Growth Reference Study", Food Nutr Bull, 25(1 Suppl), pp.S37~S45 (2004)
- Thelen E, "Dynamic systems theory and the complexity of change", Psychoanal Dialog, 15, pp.255~283 (2005)
- Kurtoğlu S, "Body weight, length and head circumference at birth in a cohort of Turkish newborns", J Clin Res Pediatr Endocrinol, 4, pp.132~139 (2012)
- Jenjarat K, "New reference for neonatal growth : 10-year data of Phramongkutklao Hospital", J Med Assoc Thai, 103, pp.1284~1291 (2020)
- Tupsila R, "Gross motor development of Thai healthy full-term infants aged from birth to 14 months using the Alberta Infant Motor Scale : inter individual variability", Early Hum Dev, 151, pp.105169~ (2020)
- Yaari M, "Early developmental trajectories of preterm infants", Res Dev Disabil, 81, pp.12~23 (2018)
- McGowan JE, "Early childhood development of late-preterm infants : a systematic review", Pediatrics, 127, pp.1111~1124 (2011)
- Adolph K, "Handbook of cross-cultural developmental science" (2010), Taylor and Francis
- Bartlett D, "Neuromotor development of preterm infants through the first year of life", Phys Occup Ther Pediatr, 12, pp.37~55 (1993)
- Wang TN, "Postural control of pre-term infants at 6 and 12 months corrected age", Early Hum Dev, 86, pp.433~437 (2010)
- Costa Wiltgen A, "Different intrauterine environments and children motor development in the first 6 months of life : a prospective longitudinal cohort", Sci Rep, 13, pp.10325~ (2023)
- Gaetan EM, "Developmental study of early posture control in preterm and fullterm infants", Arq Neuropsiquiatr, 60, pp.954~958 (2002)
- Shapiro-Mendoza CK, "Infants born late preterm : epidemiology, trends, and morbidity risk", NeoReviews, 10, pp.e287~e294 (2009)
- Sangkarit N, "Segmental assessment of trunk control in moderate-to-late preterm infants related to sitting development", Children(Basel), 8, pp.722~ (2021)
- Saavedra SL, "Learning about gravity : segmental assessment of upright control as infants develop independent sitting", J Neurophysiol, 108, pp.2215~2229 (2012)
- Pin TW, "Segmental Assessment of Trunk Control in infants from 4 to 9 months of age-a psychometric study", BMC Pediatr, 18, pp.182~ (2018)
- Zhou L, "Investigation and influence analysis of motor development in preterm infants", Am J Transl Res, 15, pp.273~280 (2023)
- Duncan K, "Parent handling of typical infants varies segmentally across development of postural control", Exp Brain Res, 236, pp.645~654 (2018)
