Lukin S Yu, Soldatov Yu P, Stogov M V
Ilizarov Russian Scientific Center, 640014, Kurgan, Russia; Tyumen State Medical University, 625023, Tyumen, Russia.
Ilizarov Russian Scientific Center, 640014, Kurgan, Russia; City Hospital No. 36 'Traumatology', 620007, Ekaterinburg, Russia.
Vopr Kurortol Fizioter Lech Fiz Kult. 2018;95(6):58-66. doi: 10.17116/kurort20189506158.
Experimental and clinical studies have shown that a skeletal trauma causes a whole complex of pathophysiological disorders, both local and systemic. The main factors determining the severity of the trauma, as well as the nature of the course of the post-traumatic period, are the degree of hypoxia (acidosis), hypercoagulation and immune disorders. To influence these pathophysiological disorders in the patients presenting the with skeletal traumas, various approaches have been proposed, including the use of antihypoxants and antioxidants, the methods and means for the stimulation and support of the immune system, medications to regulate hemostasis. According to the literature publications, terahertz-frequency therapy is presently regarded as a promising method the minimally invasive interference in the metabolic processes proceeding in the tissues of the musculoskeletal system. The analysis of the literature data and clinical observations indicate that electromagnetic waves of the terahertz range are efficient in the treatment of many chronic diseases when applied both as monotherapy and in combination with other physical methods and medications strengthening and consolidating the therapeutic effect of the latter. The electromagnetic waves of the terahertz range are currently used in medicine as a biophysical factor for the correction of the microcirculatory disorders. It has been shown that the use of these waves for the combined restorative treatment of the patients suffering fractures of the limb bones not only improves the dynamics of fracture consolidation symptoms but also contributes to the prevention of posttraumatic complications (thrombosis, ossification of soft tissues). However, the experience with the application of the electromagnetic waves of the terahertz range waves in clinical traumatology and orthopedics is rather modest. The analysis of the results of fundamental research and experience with the application of electromagnetic waves in the terahertz range has shown that the systemic effects produced by the waves of this range promote the correction of such pathophysiological disorders as hypoxia, hypercoagulation, and impaired immunity. Given that these disorders develop during the post-traumatic period in the patients presenting with severe multiple and combined traumas, it can be assumed that the use of electromagnetic waves of the terahertz range for the the combined treatment of these patients provides a very promising tool for the stimulation of the reparative processes especially bearing in mind that the first results described in the literature, look quite optimistic. The investigation into the mechanisms regulating the regenerative capacity of connective tissue, the creation of the scientifically-sound foundations for its management with the help of the modern electronics devices is a promising task for the developers of the new biomedical technologies.
实验和临床研究表明,骨骼创伤会引发一系列局部和全身的病理生理紊乱。决定创伤严重程度以及创伤后病程性质的主要因素是缺氧(酸中毒)程度、高凝状态和免疫紊乱。为了影响骨骼创伤患者的这些病理生理紊乱,人们提出了各种方法,包括使用抗缺氧剂和抗氧化剂、刺激和支持免疫系统的方法及手段、调节止血的药物。根据文献报道,太赫兹频率疗法目前被认为是一种对肌肉骨骼系统组织中进行的代谢过程进行微创干预的有前景的方法。对文献数据和临床观察的分析表明,太赫兹波段的电磁波在作为单一疗法以及与其他强化和巩固后者治疗效果的物理方法及药物联合应用时,对许多慢性病的治疗是有效的。太赫兹波段的电磁波目前在医学中用作纠正微循环障碍的生物物理因素。已经表明,将这些波用于肢体骨折患者的联合康复治疗,不仅能改善骨折愈合症状的动态变化,还有助于预防创伤后并发症(血栓形成、软组织骨化)。然而,太赫兹波段电磁波在临床创伤学和矫形外科学中的应用经验相当有限。对基础研究结果以及太赫兹波段电磁波应用经验的分析表明,该波段的波产生的全身效应有助于纠正诸如缺氧、高凝状态和免疫受损等病理生理紊乱。鉴于这些紊乱在严重多发和复合创伤患者的创伤后时期出现,可以假设,将太赫兹波段的电磁波用于这些患者的联合治疗为刺激修复过程提供了一个非常有前景的工具,特别是考虑到文献中描述的初步结果看起来相当乐观。研究调节结缔组织再生能力的机制,借助现代电子设备为其管理建立科学合理的基础,是新生物医学技术开发者面临的一项有前景的任务。