(1) DYN B cell bodies were present in nonpyramidal cells of neo- and allocortices, medium-sized cells of the caudate-putamen, nucleus accumbens, lateral part of the central nucleus of the amygdala, bed nucleus of the stria terminalis, preoptic area, and in sectors of nearly every hypothalamic nucleus and area, medial pretectal area, and nucleus of the optic tract, periaqueductal gray, raphe nuclei, cuneiform nucleus, sagulum, retrorubral nucleus, peripeduncular nucleus, lateral terminal nucleus, pedunculopontine nucleus, mesencephalic trigeminal nucleus, parabigeminal nucleus, dorsal nucleus of the lateral lemniscus, lateral superior olivary nucleus, superior paraolivary nucleus, medial superior olivary nucleus, ventral nucleus of the trapezoid body, lateral dorsal tegmental nucleus, accessory trigeminal nucleus, solitary nucleus, nucleus ambiguus, paratrigeminal nucleus, area postrema, lateral reticular nucleus, and ventrolateral region of the reticular formation.
(2) Outside PAG, labelled cells and terminal labelling were observed in the cuneiform, parabrachial and intercollicular nuclei, in the deep and intermediate gray layers of the superior colliculus, in the anterior and posterior pretectal nuclei and in the nucleus of Darkschewitsch.
(3) The mesencephalic central grey contained relatively few labeled neurons, the great majority of them being mesencephalic trigeminal, ectopic cuneiform or midline cells.
(4) Bilateral stimulation of electrodes aimed at the cuneiform nucleus produced significant inhibition of the startle response produced by presentation of an 8-kHz, 110-dB tone.
(5) Furthermore, isolated retrogradely labeled cells were present in the central nucleus of the raphe, in the cuneiform nucleus, and in the periaqueductal gray.
(6) The last patient was treated by arthrodesis between the first cuneiform and the first metatarsal for plantar-flexion the first ray.
(7) Special emphasis is directed toward the angle formed between the first metatarsal base and medial cuneiform, which these investigators believe has not been previously described.
(8) An increased density of bony lamellae in the internal structure of the navicular bone could result from excessive stress, enforced by its close relationship to the three cuneiform bones.
(9) In 93% of sites in the cuneiform area this procedure gave only freezing, although subsequent testing with repeated injections produced fast running in 53% of these sites.
(10) Two of the targets of the ipsilateral descending pathway from the superior colliculus are the cuneiform area (immediately ventral to the inferior colliculus), and the dorsolateral basilar pons.
(11) It get release of metatarsal stiffness before 6 years of age, then in older we make osteotomy of 1 degree cuneiform and cuboid to correct bone deformity.
(12) This is a case report of a tarsal coalition involving a bilateral symmetrical synchondrosis of the navicular first cuneiform bones in a 37-year-old Hispanic man.
(13) A case of Candida albicans arthritis involving a knee and cuneiform bone is presented.
(14) Although many tectal cells were single-labelled by injections into basilar pons or the cuneiform area, less than 5% were double-labelled.
(15) Moreover, eversion of an average of 6.2 degrees often only occurs as a result of dorsal displacement of the joint surfaces of the first metatarsal in relation to the first cuneiform by an average of 2.6 mm.
(16) The incidence of the cuneiform cartilage and cartilago triticea was greater in the female than in the male.
(17) Since the ipsilaterally projecting laminae V-VII interneurones with such an input might be involved in locomotion, it is proposed that this is also the case for the contralaterally projecting lamina VIII midlumbar interneurones, especially those excited by stimuli applied in the cuneiform nucleus (mesencephalic locomotor region).
(18) The fact that the histological picture does not provide too much data on the etiopathogenic mechanism of the cuneiform lesions it may be considered that the occluding trauma is one of the major causes of these coronal lesions.
(19) To avoid the dropfoot deformity and retain mobility of the ankle, the amputation was modified by transposing the tibialis anterior from metatarsal I to cuneiform I.
(20) This conceptual revolution is the result of progress in a number of fields: precise information concerning the situation and, more particularly, the variability of "instantaneous axes", a better understanding of the anatomy of ligaments and their role, allowing their grouping into functional units: the anterior and posterior ligamentous straps and the cuneiform sling which determines its stability and basic movements.