PubMed Health⌕ Search

PubMed · 8465531

[Arterial vascular training].

Abstract

By means of a specific arterial vessel training--indoor or outdoor--it is in any case possible to improve the individual walking performance. In the first phase of the training there is an increase of the arterial maximal flow, which then remains constant and may even rapidly decline without further training. The continual increase can be explained through metabolic, hemorheologic, and possibly microcirculatoric changes (microbiopsy studies, not yet published). At the moment it is only Germany where you can find the complete offer of all different vessel training. In Austria there is only the indoor training which works at the moment. The different German health-insurance pay the training-programs, the criteria for the education of "the vessel-trainer" are established by the health-insurance, by the "Deutsche Gesellschaft für Angiologie" and the "Deutsche Gesellschaft für Gefässsport (vessel training)". The vessel trainer has to achieve his diploma via the "A" and "coronar certificate". In Austria there are no obligatory criteria for this education--neither for the coronary nor for the vessel training--there is no observation of the education and no payment-system.

Explore related subjects

Keep this discovery

Explore connections, maps & timelines

BibTeXRIS

P Weidinger. 1993. [Arterial vascular training].. https://pubmed.ncbi.nlm.nih.gov/8465531/

Cite the original work for its findings. Save a collection to share your selection of sources.

KEEP EXPLORING

Related citations

Pulmonary arterial reconstruction for pulmonary coarctation in early infancy.

BACKGROUND: Pulmonary atresia with pulmonary coarctation may complicate diminished and unbalanced pulmonary development. The aim of this study is to assess the outcome of pulmonary arterial reconstruction with cardiopulmonary bypass in early infancy for sufficient and balanced pulmonary development. METHODS: We performed a retrospective review of 15 patients with pulmonary coarctation younger than 4 months of age who underwent pulmonary arterial reconstruction between 2001 and 2005. The mean age and weight were 42.2 days and 3.62 kg, respectively. The patient population included 5 biventricular repair candidates and 10 Fontan candidates. To evaluate the pulmonary arterial development, the preoperative and postoperative pulmonary arterial index and minimum diameter of the pulmonary artery were compared. RESULTS: No early or in-hospital deaths occurred, and there was no nonconfluent pulmonary artery development or segmental mal-development after a mean follow-up period of 14.9 months. Immediate pulmonary flow regulation was required in 2 patients because of excessive pulmonary flow. The mean pulmonary arterial index increased significantly from 103 mm2/m2 to 343 mm2/m2, and the mean minimum diameter of the pulmonary artery increased significantly from 2.02 mm to 4.45 mm. Four biventricular repair candidates completed definitive repair, and 2 required surgical reintervention in the pulmonary artery. Six Fontan candidates completed the Glenn procedure, and 1 completed the Fontan procedure. Three required surgical reintervention in the pulmonary artery. Two late deaths occurred after the Glenn procedure because of ventricular dysfunction and respiratory infection. CONCLUSIONS: Pulmonary arterial reconstruction in early infancy provides sufficient and balanced pulmonary arterial development for pulmonary atresia with pulmonary coarctation.

Arterial Occlusive Diseases↗