The development toward stereotypic arm kinematics during reaching in the first 3 years of life

被引:159
|
作者
Konczak, J [1 ]
Dichgans, J [1 ]
机构
[1] UNIV TUBINGEN,DEPT NEUROL,D-7400 TUBINGEN,GERMANY
关键词
learning; motor control; multijoint movement; human infant;
D O I
10.1007/s002210050228
中图分类号
Q189 [神经科学];
学科分类号
071006 ;
摘要
We recorded reaching movements from nine infants longitudinally from the onset of reaching (5th postnatal month) up to the age of 3 years. Here we analyze hand and proximal joint trajectories and examine the emerging temporal coordination between arm segments. The present investigation seeks (a) to determine when infants acquire consistent, adult-like patterns of multijoint coordination within that 3-year period, and (b) to relate their hand trajectory formation to underlying patterns of proximal joint motion (shoulder, elbow). Our results show: First, most kinematic parameters do not assume adult-like levels before the age of 2 years. At this time, 75% of the trials reveal a single peaked velocity profile of the hand. Between the 2nd and 3rd year of life, ''improvements'' of hand- or joint-related movement units are only marginal. Second, infant motor systems strive to obtain velocity patterns with as few force reversals as possible (uni- or bimodal) at all three limb segments. Third, the formation of a consistent interjoint synergy between shoulder and elbow motion is not achieved within the Ist year of life. Stable patterns of temporal coordination across arm segments begin to emerge at 12-15 months of age and continue to develop up to the 3rd year. In summary, the development toward adult forms of multijoint coordination in goal-directed reaching requires more time than previously assumed. Although infants reliably grasp for objects within their workspace 3-4 months after the onset of reaching, stereotypic kinematic motor patterns are not expressed before the 2nd year of life.
引用
收藏
页码:346 / 354
页数:9
相关论文
共 50 条
  • [1] The development toward stereotypic arm kinematics during reaching in the first 3 years of life
    J. Konczak
    Johannes Dichgans
    Experimental Brain Research, 1997, 117 : 346 - 354
  • [2] Acquisition of stereotypic arm kinematics during reaching in the first three years of life
    Konczak, J.
    Dichgans, J.
    JOURNAL OF SPORT & EXERCISE PSYCHOLOGY, 1997, 19 : S74 - S74
  • [3] COMMUNICATION DEVELOPMENT IN FIRST 3 YEARS OF LIFE
    LING, D
    LING, AH
    JOURNAL OF SPEECH AND HEARING RESEARCH, 1974, 17 (01): : 146 - 159
  • [4] Instructions emphasizing speed improves hemiparetic arm kinematics during reaching in stroke
    Massie, Crystal L.
    Malcolm, Matthew P.
    NEUROREHABILITATION, 2012, 30 (04) : 341 - 350
  • [5] Development in the first years of life (0-3 Years)
    Irblich, Dieter Auel
    PRAXIS DER KINDERPSYCHOLOGIE UND KINDERPSYCHIATRIE, 2018, 67 (02) : 218 - 218
  • [6] Effects of Perinatal Dioxin Exposure on Development of Children during the First 3 Years of Life
    Pham The Tai
    Nishijo, Muneko
    Tran Ngoc Nghi
    Nakagawa, Hideaki
    Hoang Van Luong
    Tran Hai Anh
    Nishijo, Hisao
    JOURNAL OF PEDIATRICS, 2016, 175 : 159 - +
  • [7] Development of the tibiofemoral angle in a cohort of Nigerian children during the first 3 years of life
    Oyewole, Olufemi O.
    Akinpelu, Aderonke O.
    Odole, Adesola C.
    JOURNAL OF CHILDRENS ORTHOPAEDICS, 2013, 7 (02) : 167 - 173
  • [8] CORPORAL PUNISHMENT (DURING FIRST 3 YEARS OF LIFE)
    STENSSON, J
    ACTA PAEDIATRICA SCANDINAVICA, 1965, 54 (06): : 615 - &
  • [9] ATTACHMENT AND PSYCHOPATHOLOGY DURING THE FIRST 3 YEARS OF LIFE
    VIZZIELLO, GF
    ANTONIOLI, ME
    INVERNIZZI, R
    ZANCATO, P
    GIORNALE DI NEUROPSICHIATRIA DELL ETA EVOLUTIVA, 1995, 15 (01): : 45 - 61
  • [10] Development and Pilot Evaluation of the ArmTracker: A Wearable System to Monitor Arm Kinematics During Daily Life
    Carmona-Ortiz, Victor A.
    Lobo-Prat, Joan
    Van Ruysevelt, Jeremy
    Torras, Carme
    Font-Llagunes, Josep M.
    2020 8TH IEEE RAS/EMBS INTERNATIONAL CONFERENCE FOR BIOMEDICAL ROBOTICS AND BIOMECHATRONICS (BIOROB), 2020, : 759 - 764