scholarly journals Alternation of Neuroses

1887 ◽  
Vol 32 (140) ◽  
pp. 485-491
Author(s):  
Geo. H. Savage

I have chosen this title as inferring as little as possible any relation other than that of time between the states of disorder. Night follows day, but is not caused by it, and, as we shall see, in some cases one form of nervous disorder is followed by another form of disorder, both having probably a similar cause, but not the one depending on the other as its cause. It is only necessary to say that I use the term neurosis in a very general way, thereby meaning any well recognized disturbance of the nervous system which might be considered due to direct inheritance, or might itself start a morbid nervous series.

2004 ◽  
Vol 2 (1) ◽  
pp. 243-268
Author(s):  
Wiesław Dyk

The discussion about the rights of animals is always up-to-date. The dichotomy division into philoanimalists and philohominists, although reasonable, is not satisfactory to everyone. It is too strongly associated with the division into people and things in Roman law. To avoid this association in the context of biocentric trends in ecological ethics, accomplishments of evolutionary psychology and the concept of animal welfare, it is suggested that a third moral dimension dealing with creatures with highly developed nervous system be introduced between moral objectivity of creatures with high perception and moral subjectivity of people - creatures characterized by self-awareness and reflexive awareness. Human beings on the one hand are responsible for recognizing their rights given by nature and on the other hand, they are obliged to create a law to protect themselves.


PEDIATRICS ◽  
1980 ◽  
Vol 65 (3) ◽  
pp. 638-639
Author(s):  
William G. Crook

Can adverse or allergic reactions to what a person eats cause him to be pale, tired, and drowsy on the one hand, or irritable and hyperactive on the other? Can such reactions to food also cause headaches, abdominal pain, and limb pains? Can they make an individual depressed, and can they cause even more bizarre nervous system symptoms, or are such reactions a myth? As long ago as 1916, and on repeated occasions since that time, observers, including Hoobler,1 Shannon,2 Rowe,3 Rinkel et al,4 Randolph,5 Speer,6 Deamer and colleagues,7,8 Gerrard,9 Alvarez,10 and many others,11-18 have described patients with systemic and nervous system reactions caused by a specific hypersensitivity to foods.


1868 ◽  
Vol 13 (64) ◽  
pp. 437-449
Author(s):  
Robert Dunn

Life and mind, in their abstract nature or essence alike inscrutable to us, are problems which belong to the same category; for, in this world, we know nothing of life apart from an organism, and we have no manifestations of mind independently of a brain and nervous system. Here living organisms are required for the display of the vital phenomena, and a brain and nervous system for the manifestations of mind. Life has accordingly been defined as “the collective expression for a series of phenomena which take place exclusively in bodies that are organized,” and “mind as the functional manifestations of the living brain.” But then, and at the outset, it is to be remembered that in affirming sensation, emotion, thought, and volition to be functions of the nervous system, what is really maintained is this, that the vesicular matter of the encephalic ganglia furnishes the material conditions—the medium through which these mental phenomena are made manifest in this life. It may indeed be asked, Are not the physical forces of external nature, which underlie all vital phenomena, and the changing states of consciousness which constitute our mental life, as inscrutable to us in their nature or essence as are life and mind ? and it must be conceded that they are. Matter and force are coexistent, and are correlative. Nor can we conceive of the one but in association with, by, and through the other, any more than we can conceive of life, in our present state of existence, apart from an organism, or of thought independently of a living brain.


Dialogue ◽  
1981 ◽  
Vol 20 (3) ◽  
pp. 496-529 ◽  
Author(s):  
C.A. Hooker

Any theory of reduction that goes only so far as carried in Parts I and II ([165], [166]) does only half the job. Prima facie at least, there are cases of would-be reduction which seem torn between two conflicting intuitions. On the one side there is a strong intuition that reduction is involved, and a strongly retentive reduction at that. On the other side it seems that the concepts at one level cross-classify those at the other level, so that there is no way to identify properties at one level with those at the other. There is evidence to suggest that there will be no unique mental state/neural state association that can be set up, because, e.g., many different parts of the nervous system are all capable of taking over ‘control’ of the one mental function. And it is alleged that infinitely many, worse: indefinitely many, different bio-chemo-physical states could correspond to the economic property ‘has a monetary system of economic exchange’; and similarly for the property ‘has just won a game of tennis’. Yet one doesn't want an economic system or a game of tennis to be some ghostly addition to the actual bio-chemo-physical processes and events involved (cf. Rudner [188]). Similarly one hopes that neurophysiology allied with the rest of natural science will render human experience and behaviour explicable.


The intention of the author in the present paper, is, not to bring forwards any new facts, but to take a general review of the inferences deducible from the series of facts detailed by him in previous papers communicated to this Society. He divides the nerves into two classes, essentially differing in their functions. The first comprehends those nerves, which, proceeding directly from the brain and spinal cord to other parts, convey in the one case to those parts the influence of those organs only from which they originate, and thus excite to con­traction the muscles of voluntary motion ; and in the other case transmit to the sensorium impressions made on the parts to which they are distributed. The second class comprises what may betermed the Ganglionic nerves, or those which enter ganglions, pro­perly so called; that term being limited to such protuberances only as receive branches of nerves proceeding from the brain and spiral cord. These nerves are distributed more especially to the vital or­ gans, as the thoracic and abdominal viscera, and to the muscles sub­servient to their functions. The nerves belonging to this class also convey impressions to the sensorium, and occasionally excite the muscles of involuntary motion, which, in common with all muscles, possess an inherent power of contractility dependent solely on their own mechanism, and which in ordinary cases are excited by stimuli peculiar to themselves. But the most important function of the gan­glionic nerves, is that of supporting the processes of secretion and assimilation, which require for their performance the combined influ­ence of the whole brain and spinal cord. Viewed as a whole, the system of ganglionic nerves, therefore, constitutes, in the strictest sense, a vital organ. Thus the sensorium, though connected by means of the cerebral and spinal nerves only partially with the organs of sense and voluntary motion, is, by means of the ganglionic nerves, connected generally with all the functions of the animal body. Hence affections of the stomach and other vital organs extend their influence over every part of the frame; while those of a muscle of voluntary motion, or even of an organ of sense, although possessing greater sensibility, are confined to the injured part. From a due consideration of the phenomena of the nervous system, it would appear that they imply the operation of more than one prin­ciple of action. The sensorial power is wholly distinct from the ner­vous power; the former residing chiefly in the brain, while the latter belongs equally to the spinal cord and brain, and may be exercised independently of the sensorial power. In like manner, the muscular power resides in the muscles, and may be called into action by various irritations independently of the nervous power, though fre­quently excited by the action of that power. The muscles of volun­tary motion are subjected to the sensorial power through the inter­vention of the nervous system; and those of involuntary motion are also, under certain circumstances, capable of being excited through the nerves by the sensorial power, particularly when under the influ­ence of the passions. The same observation applies also to other actions which properly belong to the nervous power, such as the evolution of caloric from the blood, and the various processes of se­cretion and of assimilation. That the nervous power is in these instances merely the agent of other powers, and is independent of the peculiar organization of the nerves, is proved by the same effects being produced by galvanism, transmitted through conductors diffe­rent from the nerves. The successive subordination of these several powers is shown during death, when the sensorial functions are the first to cease, and the animal no longer feels or wills, but yet the nervous power still continues to exist, as is proved by the nerves be­ing capable, when stimulated, of exciting contractions in the muscles, both of voluntary and of involuntary motion,of producing the evolution of caloric and of renewing the processes of secretion. In like manner the power of contraction, inherent in the muscular fibre, survives the destniction of both the sensorial and nervous powers, having an existence independent of either, although in the entire state of the functions they are subjected to the entire influence of both.


Author(s):  
O. Zhurenko ◽  
◽  
V. Karpovskyi ◽  
V. Zhurenko ◽  
◽  
...  

The tone of the autonomic nervous system is considered on the one hand as one of the manifestations of homeostasis, and on the other hand, as one of the mechanisms of its regulation. The predominance of the tonic effect of the parasympathetic and sympathetic departments of the autonomic nervous system is defined as vagotonia and sympathicotonia. The tone of the autonomic nervous system in cows was determined using a trigeminal vagal test. According to the results, the animal was classified as normotonic, sympathicotonic or vagotonic. The tone of the autonomic nervous system in cows in summer inversely correlated with copper content in whole blood (r=-0.62; p<0.05) and blood cells (r=-0.58; p<0.05). In winter, the correlation of the tone of the autonomic nervous system in cows with its content in whole blood, serum and blood cells did not reach significant values (r=-0.21–0.36). Increased tone of the parasympathetic department of the autonomic nervous system, regardless of the season, had almost no effect on copper content in serum, whole blood and its cells (ղ²x=0.01–0.23). At the same time, sympathicotonia in summer has a significant impact only on the copper content in blood cells – ղ²x=0.58 (p<0.05), while in winter this effect increased significantly (ղ²x=0.91; p<0.001). The multifactor analysis of variance revealed the dependence of copper content on the tone of the autonomic nervous system and the season. However, the vegetative status of cows had a significant impact on its content only in blood cells (F=8.59>FU=4.41; p<0.01), and the season limited copper content only in whole blood (F=12.12>FU=3.55; p<0.01).


2020 ◽  
Vol 4 ◽  
pp. 41-49
Author(s):  
Shafa Nasibova ◽  

In psychology, stress is a feeling of strain and pressure. Small amounts of stress may be desired, beneficial, and even healthy. Positive stress helps improve athletic performance. It also plays a factor in motivation, adaptation, and reaction to the environment. Excessive amounts of stress, however, may lead to bodily harm. Stress can be external and related to the environment, but may also be created by internal perceptions that cause an individual to experience anxiety or other negative emotions surrounding a situation, such as pressure, discomfort, etc., which they then deem stressful. The level of resistance to stress manifests itself at different levels in individual individuals. On the one hand, it has to do with an individual's life history, on the other hand, the environment around him, the type, character, and even sex of the individual's nervous system. In the article, we talked about the stress resistance characteristics of working and non-working women.


1859 ◽  
Vol 5 (28) ◽  
pp. 286-289
Author(s):  
Reicharz ◽  
Edward Palmer

la describing the relative sizes of unequal pupils in the diseases of the central organ of the nervous system (as in incomplete general paralysis) most observers make special mention of the dilated pupil, and, under precisely similar essential conditions, we more frequently find one pupil characterised as being larger than the other, than the converse. Were there no prejudice at the bottom of this custom, there might be nothing to advance against it; but I believe that the views on which it is founded, are, more or less, conjectural. It is apparently assumed, in the first place, that inequality of the pupils is always caused by lesion of one iris only; that dilatation of the pupil is more truly and more frequently a morbid condition, than contraction; and, finally, that dilatation is always dependent on relaxation, resulting from paralysis. The iris, with the dilatated pupil is, thus, more often pointed out as being affected, and that with paralysis, than the one in which the pupil is contracted; and we find, moreover, that it is quite usual to adduce, not perhaps, mere inequality, but dilatation of the pupils generally, as an absolute sign and example of paralysis of single muscles.


1880 ◽  
Vol 26 (114) ◽  
pp. 201-215 ◽  
Author(s):  
W. G. Davies

That there are two methods by which to approach the study of mind—the one inward and reflective, the other outward and transitive, including more especially the anatomy and physiology of the brain and nervous system—is by high authorities, even in physical and biological science, now generally admitted.


2017 ◽  
Vol 48 (05) ◽  
pp. 329-339 ◽  
Author(s):  
Martin Catala

AbstractMeninges have long been considered as a protective and supportive tissue for the central nervous system. Nevertheless, new developmental roles are now attributed to them. The meninges that surround the cerebellum come from the cephalic mesoderm. They are essential for the cerebellum to develop normally. They induce and maintain the basal lamina and glia limitans. In the absence of these structures, the external granular cells of the cerebellum migrate aberrantly and penetrate the subarachnoid space. The molecules involved in the recognition between the cerebellar primordium and the basal lamina belong to two groups in humans: dystroglycan and laminin on the one hand, and GPR56 and collagen III on the other. Finally, molecules secreted by the meninges and acting on the cerebellum begin to be demonstrated; such is the case of SDF1 secreted under the action of FOXC1.


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