1958
DOI: 10.1212/wnl.8.7.561
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Somatic and visceral responses from the cingulate gyrus

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Cited by 61 publications
(15 citation statements)
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“…One seizure began with paroxysms of crying, which involved bilateral ''eye blinking'' movements and paroxysmal respiratory movement. These semiological features are most consistent with predominant activation of M3, which, in classical studies in monkeys, showed respiratory changes and facial movements, [12][13][14][15] and, in more recent studies, bilateral projections for activation of the upper facial musculature. 8 The semiology of right hemifacial tonic motor movements is most consistent with predominant activation of M4, which shows projections to contralateral lower facial musculature.…”
Section: Postulations Of Functional Correlatessupporting
confidence: 75%
“…One seizure began with paroxysms of crying, which involved bilateral ''eye blinking'' movements and paroxysmal respiratory movement. These semiological features are most consistent with predominant activation of M3, which, in classical studies in monkeys, showed respiratory changes and facial movements, [12][13][14][15] and, in more recent studies, bilateral projections for activation of the upper facial musculature. 8 The semiology of right hemifacial tonic motor movements is most consistent with predominant activation of M4, which shows projections to contralateral lower facial musculature.…”
Section: Postulations Of Functional Correlatessupporting
confidence: 75%
“…For instance, one feature that appears fairly specific to the cingulate cortex is calretinin-immunoreactive pyramidal neurons in layer V. These are found almost exclusively in the anterior portions of the cingulate gyrus, and are most numerous in areas 25 and 24. The region thus delineated corresponds closely to the areas whose stimulation gives rise to autonomic effects and vocalization in both macaque monkey and human (Smith, 1945;Pool and Ransohoff, 1949;Kaada, 1951;Pool, 1954;Showers and Crosby, 1958;Dua and MacLean, 1964;Robinson and Mishkin, 1968;Jü rgens and Ploog, 1970;Jü rgens, 1983). Studies that have analyzed other systems, such as response selection, spatial memory and selective attention have used functional imaging techniques, whose resolution limited the precise localization of function (Petersen et al, 1988;Pardo et al, 1990;Corbetta et al, 1991;Deiber et al, 1991;Bench et al, 1993;Hsieh et al, 1994;Lang et al, 1994;Larrue et al, 1994;Raichle et al, 1994).…”
Section: Functional Implicationsmentioning
confidence: 93%
“…Tachycardia was the principal response often independent of blood pressure changes although contemporaneous investigations did not note this precise independence (45,75). Areas from which changes in heart rate have been elicited in these early studies include: the frontal lobes (71,140,347), subcallosal gyrus (138), septal area (293), temporal pole, and cingulate gyrus (199,321) without a specific study of lateralization. In humans, Pool and Ransohof showed that heart rate changes were elicitable from the anterior cingulate cortex (ACC) and the posterior orbital cortex (253).…”
Section: Animal and Human Stimulation Studiesmentioning
confidence: 99%