Next Issue
Volume 154, 01
Previous Issue
Volume 154, 01
 
 
Swiss Archives of Neurology, Psychiatry and Psychotherapy is published by MDPI from Volume 176 Issue 1 (2026). Previous articles were published by another publisher in Open Access under a CC-BY (or CC-BY-NC-ND) licence, and they are hosted by MDPI on mdpi.com as a courtesy and upon agreement with the previous journal publisher.

Swiss Arch. Neurol. Psychiatry Psychother., Volume 154, Issue 2 (01 2003) – 12 articles

  • Issues are regarded as officially published after their release is announced to the table of contents alert mailing list.
  • You may sign up for e-mail alerts to receive table of contents of newly released issues.
  • PDF is the official format for papers published in both, html and pdf forms. To view the papers in pdf format, click on the "PDF Full-text" link, and use the free Adobe Reader to open them.
Order results
Result details
Select all
Export citation of selected articles as:
86 KB  
Book Review
Barbara Steck: Multiple Sklerose und Familie. Psychosoziale Situation und Krankheitsverarbeitung
by V. Hauser and J. Kesselring
Swiss Arch. Neurol. Psychiatry Psychother. 2003, 154(2), 92; https://doi.org/10.4414/sanp.2003.01351 - 1 Jan 2003
Abstract
Die Autorin greift ein oft vernachlässigtes Thema, den Einfluss der Multiplen Sklerose auf die Familie, auf [...] Full article
86 KB  
Book Review
Fuad Lechin, Bertha van der Dijs, Marcel E. Lechin: Neurocircuitry and Neuroautonomic Disorders. Reviews and Therapeutic Strategies
by M. Sturzenegger
Swiss Arch. Neurol. Psychiatry Psychother. 2003, 154(2), 92; https://doi.org/10.4414/sanp.2003.01350 - 1 Jan 2003
Abstract
Das Buch imponiert als Rechtfertigung des Lebenswerkes des Hauptautors [...] Full article
588 KB  
Book Review
Igor Klatzo: Cecile and Oskar Vogt: The Visionaries of Modern Neuroscience
by EMH Swiss Medical Publishers Ltd.
Swiss Arch. Neurol. Psychiatry Psychother. 2003, 154(2), 91-92; https://doi.org/10.4414/sanp.2003.01349 - 1 Jan 2003
Abstract
Der Verfasser, ein Mitarbeiter des Ehepaars Cécile und Oskar Vogt in den Jahren 1946– 1948, streift aufgrund eigener Erinnerungen sowie der Berichte der Tochter der oben Genannten, Marguerite, die Biographien der Vogtschen Förderer, der Industriellenfamilie Krupp, sowie einiger jüngerer Wissenschaftler, sich selbst inbegriffen [...] Read more.
Der Verfasser, ein Mitarbeiter des Ehepaars Cécile und Oskar Vogt in den Jahren 1946– 1948, streift aufgrund eigener Erinnerungen sowie der Berichte der Tochter der oben Genannten, Marguerite, die Biographien der Vogtschen Förderer, der Industriellenfamilie Krupp, sowie einiger jüngerer Wissenschaftler, sich selbst inbegriffen [...] Full article
588 KB  
Book Review
M. Czosnyka, J. D. Pickard, P. J. Kirkpatrick, P. Smielewski, P. Hutchinson, eds: Intracranial Pressure and Brain Biochemical Monitoring
by Redaktion Buchbesprechungen
Swiss Arch. Neurol. Psychiatry Psychother. 2003, 154(2), 91; https://doi.org/10.4414/sanp.2003.01348 - 1 Jan 2003
Abstract
Unter der Terminologie «intrakranieller Druck» werden die unterschiedlichsten Aspekte in der Diagnostik und Therapie des Hydrozephalus, von Kopfverletzungen, subarachnoidalen Blutungen und zerebralen Ischämien zusammengefasst [...] Full article
588 KB  
Book Review
H. Göbel: Erfolgreich gegen Kopfschmerzen und Migräne
by EMH Swiss Medical Publishers Ltd.
Swiss Arch. Neurol. Psychiatry Psychother. 2003, 154(2), 91; https://doi.org/10.4414/sanp.2003.01347 - 1 Jan 2003
Abstract
«Kopfschmerzforschung und Kopfschmerztherapie haben sich in den letzten Jahren von einem Stiefkind der Medizin zu einem grossen zentralen Gesundheitsthema entwickelt [...] Full article
135 KB  
Conference Report
Cerveau et régénérescence
by Yvan Arsenijevic
Swiss Arch. Neurol. Psychiatry Psychother. 2003, 154(2), 86-90; https://doi.org/10.4414/sanp.2003.01346 - 1 Jan 2003
Cited by 1 | Viewed by 32
Abstract
Contrary to the dogma taught in decades which inferred that the brain contains at birth all the cells necessary for its organisation, it is now well established that certain regions of the brain generate new neurons in adulthood. In rodents and monkeys, the [...] Read more.
Contrary to the dogma taught in decades which inferred that the brain contains at birth all the cells necessary for its organisation, it is now well established that certain regions of the brain generate new neurons in adulthood. In rodents and monkeys, the olfactory bulb, the hippocampus and the associative cortex form neurons throughout life. The generation of new neurons is dependent on environmental factors such as stress, learning and exercise. In rodents neurogenesis can also occur after a lesion: focal lesions in the cortex stimulate the formation of new neurons able to connect to the right target showing the capacity of the brain to regenerate in certain situations. Neurogenesis was also revealed in the adult human hippocampus suggesting that the discoveries based on monkey studies could be transposed to the human brain. Neurogenic regions contain cells able to proliferate in vitro and to generate neurons and glia. This approach allows to study human neurogenesis in the laboratory in order to understand molecular mechanisms that control neuron survival and differentiation and to potentially produce neurons for cell transplantation studies. It appears that our brain maintains, throughout life, the capacity to generate new neurons in various brain areas, probably as a way of better adapting to environment fluctuations. This characteristic opens new perspectives for therapeutical approaches. Full article
146 KB  
Conference Report
L’accident vasculaire cérébral, une cause de mort rapide des neurones
by Lorenz Hirt and J. Bogousslavsky
Swiss Arch. Neurol. Psychiatry Psychother. 2003, 154(2), 81-85; https://doi.org/10.4414/sanp.2003.01345 - 1 Jan 2003
Viewed by 38
Abstract
Stroke is the third cause of death in industrialised countries and a major cause of disability. It results either from an intracerebral haemorrhage or more commonly from an ischaemia, a lack in blood supply to (part of) the brain. In the centre of [...] Read more.
Stroke is the third cause of death in industrialised countries and a major cause of disability. It results either from an intracerebral haemorrhage or more commonly from an ischaemia, a lack in blood supply to (part of) the brain. In the centre of an ischaemic lesion, the ischaemic core, the neurons die rapidly. The core is surrounded by the ischaemic penumbra, an area where neurons have suffered but can potentially be rescued. In human stroke, the only proven way to rescue these neurons is by intravenous administration of a clot-lysing agent, recombinant tissue plasminogen activator (rTPA) within 3 hours of the onset of symptoms. Such a narrow time-window and the potential complications of the treatment (symptomatic bleeding) in not carefully selected patients result in a very small percentage of patients which receive and benefit from this treatment. Experiments in animal models have allowed the study of complex mechanisms occurring in the penumbra, including excitotoxicity, inflammation and apoptosis but further efforts still need to be made in this area to obtain a pharmacological tool which would improve the outcome after stroke by significantly reducing neuronal death in the penumbra zone. From a clinical point of view, in the case of a stroke, the key procedure at present state is to ensure a very rapid hospitalisation and treatment by an experienced stroke team. The following article, summarising a public conference at the 2002 Brain Awareness Week, gives a short overview of this field. Full article
133 KB  
Conference Report
La sclérose latérale amyotrophique: une maladie progressive des neurones moteurs et de la microglie
by Thierry Kuntzer
Swiss Arch. Neurol. Psychiatry Psychother. 2003, 154(2), 76-80; https://doi.org/10.4414/sanp.2003.01344 - 1 Jan 2003
Cited by 1 | Viewed by 36
Abstract
Amyotrophic lateral sclerosis (ALS) is an adultonset neurodegenerative disease that produces progressive muscle weakness and wasting of the limb and bulbar muscles and eventual death from respiratory failure in most cases. The cell death process in amyotrophic lateral sclerosis is relatively selective for [...] Read more.
Amyotrophic lateral sclerosis (ALS) is an adultonset neurodegenerative disease that produces progressive muscle weakness and wasting of the limb and bulbar muscles and eventual death from respiratory failure in most cases. The cell death process in amyotrophic lateral sclerosis is relatively selective for lower motoneuron groups in the spinal cord and brain stem, and for upper motor neurons in the motor cortex. The precise molecular pathways leading to motor neuron injury and cell death in amyotrophic lateral sclerosis remain incompletely understood. A body of evidence has emerged to indicate that the neuronal injury in amyotrophic lateral sclerosis reflects a complex interaction between genetic factors, imbalance of the glutamatergic transmitter system and oxidative stress. There is also emerging evidence that motor neurons may die by a programmed cell death pathway and that microglia may release factors that are toxic for the neurons. In relation to several of these factors, there are cell-specific features which may render motoneurons susceptible to injury.This article discusses the main areas of investigation and reviews the findings. Full article
115 KB  
Article
Mot de bienvenue
by EMH Swiss Medical Publishers Ltd.
Swiss Arch. Neurol. Psychiatry Psychother. 2003, 154(2), 75; https://doi.org/10.4414/sanp.2003.01340 - 1 Jan 2003
Viewed by 40
Abstract
La «Semaine du Cerveau» est une campagne d’information pour le grand public sur l’importance de la recherche sur le cerveau et sur les progrès récents dans ce domaine. Cette campagne a été lancée en 1996 aux Etats-Unis par la «Dana Alliance for Brain [...] Read more.
La «Semaine du Cerveau» est une campagne d’information pour le grand public sur l’importance de la recherche sur le cerveau et sur les progrès récents dans ce domaine. Cette campagne a été lancée en 1996 aux Etats-Unis par la «Dana Alliance for Brain Initiatives» et reprise en Europe par la «European Dana Alliance for the Brain» (EDAB) [...] Full article
166 KB  
Article
Les crises d’épilepsie dans la phase précoce des accidents vasculaires cérébraux
by Dresse I. Hottinger, J. Bogousslavsky and G. Van Melle
Swiss Arch. Neurol. Psychiatry Psychother. 2003, 154(2), 66-74; https://doi.org/10.4414/sanp.2003.01342 - 1 Jan 2003
Viewed by 39
Abstract
Vascular epileptic seizures are well known and have been studied by numerous authors. The different conclusions of these reports relate to methodological differences due to variability in the number of included patients, inclusion and exclusion, definition of acute seizure (24 hours to 2 [...] Read more.
Vascular epileptic seizures are well known and have been studied by numerous authors. The different conclusions of these reports relate to methodological differences due to variability in the number of included patients, inclusion and exclusion, definition of acute seizure (24 hours to 2 weeks), so that direct comparison of these studies is limited. In general timing of seizures parallels the bimodal distribution of post traumatic epilepsy, with a first peak in the first two weeks, and a second peak after 6 to 12 months. Studies show that for cerebral infarction approximately one third of patients have their first seizure within 2 weeks and the majority (68–73%) within a year. There is no specific study of seizures during acute phase of stroke, defined as the first hours following onset of neurological deficit. The term “vascular precursor epilepsy” has been used to describe this phenomenon but most studies have been criticised because of the small patient groups. None of them has studied seizures announcing a vascular disorder in hours or days preceding.We propose that such seizures may reflect early progressive ischaemia which may evolve into an infarction hours or days afterwards. Recognising precursive seizures might help to predict, or even prevent onset of stroke and its extension. We studied patients that presented one or several seizure(s) in the acute phase of stroke (few hours before [precursive], at the time of with stroke symptoms [inaugural] or less than 24 hours after onset of stroke). These patients were compiled from the Lausanne stroke Registry, a collective of 3628 acute stroke patients referred to the Centre Hospitalier Universitaire Vaudois (CHUV) between 1978 and 1996. 43 (1.18%) patients presented seizure(s) in the acute phase of stroke.The predominance of vascular causes for seizures in the elderly has already been confirmed. Mean age of our recruited patients was 50 for women and 57 for men, which is younger than the average for the studied registry (mean age of 63 years). 60% of epileptic seizure were inaugural. 14 of 43 patients presented only one seizure and only 3 developed a status epilepticus. Seizure(s) may be the only presenting symptom of stroke, especially of small cortical ischaemic lesion origin.Mechanisms of epileptogenesis in subcortical injury remain poorly understood. Few patients showed an association between deep and superficial lesion, the latter probably responsible for seizure. Frontal strokes are more epileptogenic. In our collective, strokes associated with seizures almost always affected cerebral hemispheres and in most cases cortico subcortical structures. The proportion of primary haemorrhage is high (17/43; 39.5%). Frequency of seizures in haemorrhagical stroke is 4.8%, compared to 0.8% (p <0.05) in ischaemic stroke. Hypertension was responsible for 1⁄3 of strokes. The same proportion of rupture of vascular malformation was observed. One third of the ischaemic lesions showed an embolic origin that was cardiac in most cases. 26/43 patients showed generalised tonico clonic seizure without focal onset preceding for 16 (37%). Abnormal EEG is found in almost all cases but specific epileptic patterns were observed in only 5 (14%). In a multivariable analysis, only alcoholism seemed to modify occurrence of early seizures in stroke. Cardiovascular risk factors like hypertension, hypercholesterolaemia and smoking were not risk factors for epileptic seizures in stroke.The extent and evolution of neurological deficit were more exacerbated in patients with a seizure: we noticed a greater fluctuation and even a progression of symptoms, particularly in the first hours following stroke. Full article
142 KB  
Article
Frontal lobe dysfunction in cerebrovascular disease
by Julien Bogousslavsky
Swiss Arch. Neurol. Psychiatry Psychother. 2003, 154(2), 59-65; https://doi.org/10.4414/sanp.2003.01343 - 1 Jan 2003
Cited by 2 | Viewed by 46
Abstract
The frontal lobe is the largest lobe of the brain and it is thus commonly involved in stroke. Moreover, almost one in five strokes is limited to the prerolandic areas.This high frequency of anatomical involvement is in sharp contrast with the apparent rarity [...] Read more.
The frontal lobe is the largest lobe of the brain and it is thus commonly involved in stroke. Moreover, almost one in five strokes is limited to the prerolandic areas.This high frequency of anatomical involvement is in sharp contrast with the apparent rarity of clinical frontal dysfunction in stroke. It is remarkable that frontal behavioural syndromes have rather uncommonly been reported in patients with stroke as compared to patients with other diseases, such as brain tumour. This fact is paradoxical, because an acute process (stroke) is expected to yield more clinical dysfunction than a more chronic disease (tumour). A volume effect may be the main factor leading to this phenomenon. Another interesting aspect of frontal strokes is the contribution of so-called “silent”strokes, the recurrence of which may nevertheless lead to intellectual decline and compromise recovery from another stroke with more specific neurologic dysfunction. The contribution of stroke to understanding of frontal lobe dysfunction is important, because of the focal nature of this disease, and a great opportunity for clinical-topographic classification correlations. One of the first modern attempts to develop a clinical-topographic classification of frontal lobe lesions came from the school of Luria, who tried to delineate three main types of frontal lobe syndromes (premotor syndrome, prefrontal syndrome, medial-frontal syndrome). Recent anatomic correlates using MRI make it possible to improve this classification.We suggest considering six main clinical-anatomic frontal stroke syndromes: (1) prefrontal, (2) premotor, (3) superior medial, (4) orbital-medial, (5) basal forebrain, (6) white matter. Finally, another fascinating topic relates to frontal lobe symptomatology due to stroke sparing the frontal cortex or white matter. This occurs mainly in three instances: lenticulo-capsular stroke, caudate stroke and thalamic stroke. Studies using blood-flow or metabolism measurements suggest that diaschisis (frontal lobe dysfunction from a remote lesion) may play a role. We believe that this is more likely to be related to dynamic interruption of complex circuitry than to static frontal lobe deactivation. Full article
376 KB  
Review
Histoire de l’anatomie du thalamus de l’antiquité à la fin du XIXe siècle
by Philippe Gailloud, Antonio Carota, J. Bogousslavsky and J. Fasel
Swiss Arch. Neurol. Psychiatry Psychother. 2003, 154(2), 49-58; https://doi.org/10.4414/sanp.2003.01341 - 1 Jan 2003
Cited by 6 | Viewed by 32
Abstract
The physicians of the Alexandrine school seem to have been able to follow the way of the optic nerves from the retina to the brain. It was very probable that they should discover the thalamus. Sadly, anatomic knowledge, deriving from the first scientific [...] Read more.
The physicians of the Alexandrine school seem to have been able to follow the way of the optic nerves from the retina to the brain. It was very probable that they should discover the thalamus. Sadly, anatomic knowledge, deriving from the first scientific human dissection performed in history, was destroyed in the fire of the Alexandrine Library. When, in the second century A.D., Galen introduced the term thalamus opticus, he was describing the central part of the lateral ventricles of the brain. After Galen, an anatomy with philosophical inferences substituted an anatomy based on direct observation. At that time the purpose was to find the site of the soul. During the thirteen centuries following Galen, including the Byzantine epoch and the High Middle Ages, the knowledge of the anatomy of the central nervous system did not make any substantial progress. The deep location of the thalamus contributed, for a very long time, to make it invisible to the eyes of the anatomists. It was Mondino da Luzzi, during the thirteenth century A.D., who gave the first incontestable description of the thalamus. He named the thalamus anchae (buttocks). Nevertheless, we should also consider the hypothesis that Galen, from whom Mondino always got his inspiration, could already have used the Latin term nates to name the pulvinar of the thalamus. Three centuries later,Andreas Vesalius, the true father of modern anatomy, first illustrated the thalamus in his artwork De humani corporis fabrica (1543). The thalamus was perfectly represented by Vesalio. He provided figures of the thalamus with accurate legends in many brain sections with different perspectives but, strangely, he did not mention it in the text. In the seventeenth century, Jean Riolan and Thomas Willis inaugurated the use of the term “thalamus” in its actual meaning, probably as a consequence of an inaccurate interpretation or the transcription of Galen’s writings. The thalamus has superbly been represented by Willis and Vieussens in their De Cerebri Anatome (1664) and Neuronographia Universalis (1684). These works were the first monographs of the human history to be integrally devoted to the central nervous system. During the eighteenth century the anatomic illustration began to conform itself more to a scientific than an artistic approach. Nevertheless, despite the presence of the thalamus in most atlases, only little scientific progress was made in its understanding. During that century,Alexander Monro (Monro Primus, 1697–1767) described the hypothalamic sulcus and the interventricular foramens clarifying their topography with the thalamic walls. Giovanni Domenico Santorini (1681–1737) accurately reported the link between the optic tracts and the structure he first named as the lateral geniculate body of the thalamus. François Pourfour du Petit (1664–1741), Santorini and then Félix Vicq d’Azyr (1748–1794) described the mammillothalamic tract. The physicians of the Alexandrine school seem to have been able to follow the way of the optic nerves from the retina to the brain. It was very probable that they should discover the thalamus. Sadly, anatomic knowledge, deriving from the first scientific human dissection performed in history, was destroyed in the fire of the Alexandrine Library. When, in the second century A.D., Galen introduced the term thalamus opticus, he was describing the central part of the lateral ventricles of the brain. After Galen, an anatomy with philosophical inferences substituted an anatomy based on direct observation. At that time the purpose was to find the site of the soul. During the thirteen centuries following Galen, including the Byzantine epoch and the High Middle Ages, the knowledge of the anatomy of the central nervous system did not make any substantial progress. The deep location of the thalamus contributed, for a very long time, to make it invisible to the eyes of the anatomists. It was Mondino da Luzzi, during the thirteenth century A.D., who gave the first incontestable description of the thalamus. He named the thalamus anchae (buttocks). Nevertheless, we should also consider the hypothesis that Galen, from whom Mondino always got his inspiration, could already have used the Latin term nates to name the pulvinar of the thalamus. Three centuries later,Andreas Vesalius, the true father of modern anatomy, first illustrated the thalamus in his artwork De humani corporis fabrica (1543). The thalamus was perfectly represented by Vesalio. He provided figures of the thalamus with accurate legends in many brain sections with different perspectives but, strangely, he did not mention it in the text. In the seventeenth century, Jean Riolan and Thomas Willis inaugurated the use of the term “thalamus” in its actual meaning, probably as a consequence of an inaccurate interpretation or the transcription of Galen’s writings. The thalamus has superbly been represented by Willis and Vieussens in their De Cerebri Anatome (1664) and Neuronographia Universalis (1684). These works were the first monographs of the human history to be integrally devoted to the central nervous system. During the eighteenth century the anatomic illustration began to conform itself more to a scientific than an artistic approach. Nevertheless, despite the presence of the thalamus in most atlases, only little scientific progress was made in its understanding. During that century,Alexander Monro (Monro Primus, 1697–1767) described the hypothalamic sulcus and the interventricular foramens clarifying their topography with the thalamic walls. Giovanni Domenico Santorini (1681–1737) accurately reported the link between the optic tracts and the structure he first named as the lateral geniculate body of the thalamus. François Pourfour du Petit (1664–1741), Santorini and then Félix Vicq d’Azyr (1748–1794) described the mammillothalamic tract. Full article
Show Figures

Figure 1

Previous Issue
Next Issue
Back to TopTop