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Experimental Brain Research

, Volume 173, Issue 3, pp 415–424 | Cite as

Long-lasting aftereffect of a single prism adaptation: shifts in vision and proprioception are independent

  • Yohko HatadaEmail author
  • Yves Rossetti
  • R. Chris Miall
Research Article

Abstract

After a single adaptation session to prisms with gradually incremented shift magnitude, the prism adaptation aftereffect was measured by open loop mid-sagittal pointing (O) to a visual target without visual feedback. This aftereffect corresponded to the summation of the shift in proprioception, measured by straight ahead pointing without vision (S), and the visual straight ahead judgement (V), measured by verbal stopping of an LED moving from two opposite directions. However, the measurement of the aftereffects made over a period of 7 days revealed significantly different decay curves in V, O and S. Surprisingly the S shift was still present up to 7 days after the training, while V had returned to the original level by 2 h, which was the first measurement after subjects returned to a normal visual environment. O had returned to pre-test level after 1 day. After 3 days Wilkinson’s (J Exp Psychol 89:250–257, 1971) additive hypothesis (O=SV) no longer fit the data. Rather “O=Pl−V”, where Pl (Pr) is the shift in proprioception measured by passive lateral arm movements from left (right), fitted better during the whole 7 days of aftereffect in our study. Therefore, the aftereffect of our strong prism adaptation revealed, firstly, that classical open loop pointing consisted of aftereffect shifts equal to the summation of the shifts in the two passively measurable aftereffect components, vision (V) and proprioception (Pl), rather than with active straight ahead pointing (S). Secondly, the decay of the shift in visual perception and in passively measurable proprioception is independent. The former decays fast, and the latter decays slowly with two separate waves. Thirdly, we suggest that the use of visual perception-dependent spatial codes for visual-manual transformation and the vision-independent internal egocentric reference frame are mutually exclusive. We proposed a model to explain these possible mechanisms.

Keywords

Visuo-motor Visuo-sensory Sensory-motor Long-term plasticity Internal representation 

Abbreviations

CMl

Neural network coding motor control and effecter response for movement from left,

CMr

Neural network coding motor control and effecter response for movement from right,

CPl

Neural network coding calibrated perceptual proprioception by movement from left,

CPr

Neural network coding calibrated perceptual proprioception by movement from right,

CVa

Neural network coding calibrated perceptual visual space,

IEREF

Internal egocentric reference frame,

e-LTP

Early long-term plasticity (including potentiation and depression),

l-LTP

Late long-term plasticity (including potentiation and depression),

O

Open loop pointing test,

Pl

Passive proprioceptive straight ahead test from left arm movement,

Pr

Passive proprioceptive straight ahead test from right arm movement,

S

Straight ahead pointing test,

Va

Visual straight ahead test averaged from the two directions of LED movement,

Vl

Visual straight ahead test from left LED movement,

Vr

Visual straight ahead test from right LED movement,

VMT

Visuo-manual transformation.

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Copyright information

© Springer-Verlag 2006

Authors and Affiliations

  • Yohko Hatada
    • 1
    • 2
    Email author
  • Yves Rossetti
    • 1
    • 3
  • R. Chris Miall
    • 4
  1. 1.Espace et Action, Unit 534 INSERMInstitut Fédératif des Neurosciences de Lyon BronLyon BronFrance
  2. 2.Institute of Cognitive NeuroscienceUniversity College LondonLondonUK
  3. 3.Mouvement et Handicap, Rééducation Neurologique, Hôpital Henry Gabrielle, Hospices Civils de LyonUniversité Claude BernardSt Genis LavalFrance
  4. 4.Behavioural Brain Sciences, PsychologyUniversity of BirminghamBirminghamUK

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