The biophysical modelling of the medical devices in the field of biophysics

J. Vincze, Gabriella Vincze-Tiszay
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Abstract

In medicine we live the period of enthusiastic use of the models that use, one way or the other, various devices created and invented on the basis of theoretical knowledge of biophysics. Further on we will deal with only three directions: ultrasound application, computer tomography and magnetic resonance. Currently, the widest field of application of the ultrasounds in medicine is the one of exploration and diagnostic. The computer tomography (CT) used X rays to perform detailed images of the structures of the organism. A part of the scanner can be tilted, which allows taking images of the studied are in various positions. The images are memorized in a computer. The images of the computer tomography scanner can be taken before or after the administration of the contrast substance. With the MRI examination, very small lesions (1-2 mm) can be detected and there is the possibility of Multiplan representation. In the case of medical investigations using MRI, the body of the patient is placed on a horizontal table along a very strong magnetic field and with a coil another type of radiofrequency is used which subsequently is recorded. The first uncertainty relation: Living organism cannot be studied in the space, at any small or big dimensions because at the level of those subsystems or extrasystems the characteristics of life disappear. The second uncertainty relation: Living organisms cannot be studied in time, at any long or short intervals, because at the level of these time values the living system do not have the characteristics of life.
生物物理学领域中医疗器械的生物物理建模
在医学领域,我们生活在热衷于使用模型的时期,这些模型以这样或那样的方式使用各种各样的设备,这些设备是基于生物物理学的理论知识创造和发明的。进一步,我们将只处理三个方向:超声应用,计算机断层扫描和磁共振。目前,超声在医学上最广泛的应用领域是探索和诊断。计算机断层扫描(CT)使用X射线对生物体的结构进行详细的成像。扫描仪的一部分可以倾斜,这样就可以在不同的位置拍摄被研究对象的图像。这些图像被存储在计算机中。计算机断层扫描仪的图像可以在施用造影剂之前或之后拍摄。通过MRI检查,可以检测到非常小的病变(1-2 mm),并且有Multiplan表现的可能性。在使用核磁共振成像进行医学调查的情况下,病人的身体沿着一个非常强的磁场放在一个水平的桌子上,然后用一个线圈使用另一种类型的射频,随后记录下来。第一个不确定性关系:生命有机体不能在空间中,在任何小或大的维度上进行研究,因为在这些子系统或外系统的水平上,生命的特征消失了。第二个不确定性关系:生物体不能在时间上进行研究,无论时间间隔是长是短,因为在这些时间值的水平上,生命系统不具有生命的特征。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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