Abstract
The head serves as a sensory platform for detection of motion by the visual and vestibular systems and is held in a stereotyped position relative to the environment during natural movements like locomotion (Gibson, 1966; Pozzo et al., 1990; Winter, 1991). This stability of head position helps to maintain the orientation of the head’s special sensory receptors relative to the environment, and regulates the attitude of the head on the trunk as part of overall postural control (Nashner, 1971). Vestibular and cervical reflex responses participate in stabilizing the head and neck by exciting neck muscles to compensate for movements of the head and body (Outerbridge and Melvill Jones, 1971; Schor et al., 1988). The vestibulocollic response (VCR) stabilizes the head in relation to the environment. The cervicocollic response (CCR) is responsible for aligning the head with respect to the body. It is initiated by activation of cervical proprioceptors, and its actions complement those of the VCR during movement (Peterson et al., 1985). In cats, if the body is stationary and the head moves, the VCR and CCR sum their actions to stabilize the head. During body rotation, however, the CCR opposes the compensatory movements generated by the VCR (Goldberg and Peterson, 1986). Data of Goldberg and Peterson (1986) suggest that the VCR and CCR, or related neurally mediated responses, dominate head stabilization in the alert cat up to frequencies of 3–4 Hz where biomechanics become more important.
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Keshner, E.A., Peng, G., Hain, T., Peterson, B.W. (1995). Characteristics of Head and Neck Stabilization in Two Planes of Motion. In: Mergner, T., Hlavačka, F. (eds) Multisensory Control of Posture. Springer, Boston, MA. https://doi.org/10.1007/978-1-4615-1931-7_10
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DOI: https://doi.org/10.1007/978-1-4615-1931-7_10
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