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脉冲电磁场(PEMFs)治疗应用的基础与实践方面。

Fundamental and practical aspects of therapeutic uses of pulsed electromagnetic fields (PEMFs).

作者信息

Bassett C A

机构信息

Department of Orthopedic Surgery, Columbia University, New York, New York.

出版信息

Crit Rev Biomed Eng. 1989;17(5):451-529.

PMID:2686932
Abstract

The beneficial therapeutic effects of selected low-energy, time-varying magnetic fields, called PEMFs, have been documented with increasing frequency since 1973. Initially, this form of athermal energy was used mainly as a salvage for patients with long-standing juvenile and adult nonunions. Many of these individuals were candidates for amputation. Their clearly documented resistance to the usual forms of surgical treatment, including bone grafting, served as a reasonable control in judging the efficacy of this new therapeutic method, particularly when PEMFs were the sole change in patient management. More recently, the biological effectiveness of this approach in augmenting bone healing has been confirmed by several highly significant double-blind and controlled prospective studies in less challenging clinical circumstances. Furthermore, double-blind evidence of therapeutic effects in other clinical disorders has emerged. These data, coupled with well-controlled laboratory findings on pertinent mechanisms of action, have begun to place PEMFs on a therapeutic par with surgically invasive methods but at considerably less risk and cost. As a result of these clinical observations and concerns about electromagnetic "pollution", interactions of nonionizing electromagnetic fields with biological processes have been the subject of increasing investigational activity. Over the past decade, the number of publications on these topics has risen exponentially. They now include textbooks, speciality journals, regular reviews by government agencies, in addition to individual articles, appearing in the wide spectrum of peer-reviewed, scientific sources. In a recent editorial in Current Contents, the editor reviews the frontiers of biomedical engineering focusing on Science Citation Index methods for identifying core research endeavors. Dr. Garfield chose PEMFs from among other biomedical engineering efforts as an example of a rapidly emerging discipline. Three new societies in the bioelectromagnetics, bioelectrochemistry, and bioelectrical growth and repair have been organized during this time, along with a number of national and international committees and conferences. These activities augment a continuing interest by the IEEE in the U.S. and the IEE in the U.K. This review focuses on the principles and practice behind the therapeutic use of "PEMFs". This term is restricted to time-varying magnetic field characteristics that induce voltage waveform patterns in bone similar to those resulting from mechanical deformation. These asymmetric, broad-band pulses affect a number of biologic processes athermally. Many of these processes appear to have the ability to modify selected pathologic states in the musculoskeletal and other systems.(ABSTRACT TRUNCATED AT 400 WORDS)

摘要

自1973年以来,越来越频繁地有文献记载了特定的低能量、随时间变化的磁场(称为脉冲电磁场​​)的有益治疗效果。最初,这种形式的非热能主要用于挽救患有长期青少年和成人骨不连的患者。这些患者中有许多是截肢的候选者。他们对包括骨移植在内的常规手术治疗形式的明显抵抗力,在判断这种新治疗方法的疗效时起到了合理的对照作用,特别是当脉冲电磁场是患者治疗中唯一的改变时。最近,在较不具挑战性的临床情况下,几项具有高度显著性的双盲和对照前瞻性研究证实了这种方法在促进骨愈合方面的生物学有效性。此外,在其他临床疾病中的治疗效果的双盲证据也已出现。这些数据,再加上对相关作用机制的严格控制的实验室研究结果,已开始使脉冲电磁场在治疗上与手术侵入性方法处于同等地位,但风险和成本要低得多。由于这些临床观察以及对电磁“污染”的关注,非电离电磁场与生物过程的相互作用已成为越来越多研究活动的主题。在过去十年中,关于这些主题的出版物数量呈指数级增长。它们现在包括教科书、专业期刊、政府机构的定期综述,以及出现在各种同行评审的科学来源中的个别文章。在最近一期《现刊目次》的一篇社论中,编辑回顾了生物医学工程的前沿领域,重点是用于识别核心研究工作的科学引文索引方法。加菲尔德博士从其他生物医学工程工作中选择了脉冲电磁场作为一个迅速兴起的学科的例子。在此期间,已经组织了生物电磁学、生物电化学和生物电生长与修复方面的三个新学会,以及一些国家和国际委员会及会议。这些活动增强了美国电气和电子工程师协会(IEEE)以及英国电气工程师学会(IEE)持续的兴趣。本综述重点关注“脉冲电磁场”治疗应用背后的原理和实践。这个术语仅限于随时间变化的磁场特性,这种特性会在骨骼中感应出与机械变形产生的电压波形模式相似的电压波形模式。这些不对称的宽带脉冲以非热方式影响许多生物过程。其中许多过程似乎有能力改变肌肉骨骼系统和其他系统中的特定病理状态。(摘要截于400字)

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