Neural pathways underlying vocal control

被引:575
作者
Jürgens, U [1 ]
机构
[1] German Primate Ctr, D-37077 Gottingen, Germany
关键词
vocalization; speech; phonatory muscles; reticular formation; nucl; ambiguus; retroambiguus; solitary tract nucleus; periaqueductal grey; anterior cingulate cortex; motor cortex; motor coordination; pattern generation;
D O I
10.1016/S0149-7634(01)00068-9
中图分类号
B84 [心理学]; C [社会科学总论]; Q98 [人类学];
学科分类号
03 ; 0303 ; 030303 ; 04 ; 0402 ;
摘要
Vocalization is a complex behaviour pattern, consisting of essentially three components: laryngeal activity, respiratory movements and supralaryngeal (articulatory) activity. The motoneurones controlling this behaviour are located in various nuclei in the pons (trigeminal motor nucleus), medulla (facial nucleus, nucl. ambiguus, hypoglossal nucleus) and ventral horn of the spinal cord (cervical, thoracic and lumbar region). Coordination of the different motoneurone pools is carried out by an extensive network comprising the ventrolateral parabrachial area, lateral pontine reticular formation, anterolateral and caudal medullary reticular formation, and the nucl. retroambiguus. This network has a direct access to the phonatory motoneurone pools and receives proprioceptive input from laryngeal, pulmonary and oral mechanoreceptors via the solitary tract nucleus and principal as well as spinal trigeminal nuclei. The motor-coordinating network needs a facilitatory input from the periaqueductal grey of the midbrain and laterally bordering tegmentum in order to be able to produce vocalizations. Voluntary control of vocalization, in contrast to completely innate vocal reactions, such as pain shrieking, needs the intactness of the forebrain. Voluntary control over the initiation and suppression of vocal utterances is carried out by the mediofrontal cortex (including anterior cingulate gyrus and supplementary as well as pre-supplementary motor area). Voluntary control over the acoustic structure of vocalizations is carried out by the motor cortex via pyramidal/corticobulbar as well as extrapyramidal pathways. The most important extrapyramidal pathway seems to be the connection motor cortex-putamen-substantia nigra-parvocellular reticular formation-phonatory motoneurones. The motor cortex depends upon a number of inputs for fulfilling its task. It needs a cerebellar input via the ventrolateral thalamus for allowing a smooth transition between consecutive vocal elements. It needs a proprioceptive input from the phonatory organs via nucl. ventralis posterior medialis thalami, somatosensory cortex and inferior parietal cortex. It needs an input from the ventral premotor and prefrontal cortex, including Broca's area, for motor planning of longer purposeful utterances. And it needs an input from the supplementary and pre-supplementary motor area which give rise to the motor commands executed by the motor cortex. (C) 2002 Published by Elsevier Science Ltd.
引用
收藏
页码:235 / 258
页数:24
相关论文
共 311 条
[21]   INVOLUNTARY MOTOR PHENOMENA IN THE LOCKED-IN SYNDROME [J].
BAUER, G ;
GERSTENBRAND, F ;
HENGL, W .
JOURNAL OF NEUROLOGY, 1980, 223 (03) :191-198
[22]   THE NUCLEUS OF THE SOLITARY TRACT IN THE MONKEY - PROJECTIONS TO THE THALAMUS AND BRAIN-STEM NUCLEI [J].
BECKSTEAD, RM ;
MORSE, JR ;
NORGREN, R .
JOURNAL OF COMPARATIVE NEUROLOGY, 1980, 190 (02) :259-282
[23]   The central acoustic tract and audio-vocal coupling in the horseshoe bat, Rhinolophus rouxi [J].
Behrend, O ;
Schuller, G .
EUROPEAN JOURNAL OF NEUROSCIENCE, 2000, 12 (12) :4268-4280
[24]   THE ORGANIZATION OF AFFERENT-PROJECTIONS TO THE MIDBRAIN PERIAQUEDUCTAL GRAY OF THE RAT [J].
BEITZ, AJ .
NEUROSCIENCE, 1982, 7 (01) :133-159
[25]  
BIANCHI R, 1990, J HIRNFORSCH, V31, P349
[26]   Transneuronal tracing of neural pathways controlling an abdominal muscle, rectus abdominis, in the ferret [J].
Billig, I ;
Foris, JM ;
Card, JP ;
Yates, BJ .
BRAIN RESEARCH, 1999, 820 (1-2) :31-44
[27]   Human temporal lobe activation by speech and nonspeech sounds [J].
Binder, JR ;
Frost, JA ;
Hammeke, TA ;
Bellgowan, PSF ;
Springer, JA ;
Kaufman, JN ;
Possing, ET .
CEREBRAL CORTEX, 2000, 10 (05) :512-528
[28]   Human brain language areas identified by functional magnetic resonance imaging [J].
Binder, JR ;
Frost, JA ;
Hammeke, TA ;
Cox, RW ;
Rao, SM ;
Prieto, T .
JOURNAL OF NEUROSCIENCE, 1997, 17 (01) :353-362
[29]   Activation of language cortex with automatic speech tasks [J].
Bookheimer, SY ;
Zeffiro, TA ;
Blaxton, TA ;
Gaillard, W ;
Theodore, WH .
NEUROLOGY, 2000, 55 (08) :1151-1157
[30]   Regional cerebral blood flow during object naming and word reading [J].
Bookheimer, SY ;
Zeffiro, IA ;
Blaxton, T ;
Gaillard, W ;
Theodore, W .
HUMAN BRAIN MAPPING, 1995, 3 (02) :93-106