医学中的光子学和激光-溶解在多样性中

C. Philipp, R. Sroka
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引用次数: 0

摘要

自从西奥多·梅曼首次在公众面前展示脉冲激光束以来,已经过去了50多年。从那时起,这种独特的能量来源-即通过受激辐射(激光)进行光放大-开创了外科和医学的新时代。在激光技术发明后的最初几年,只有一小部分国际临床医生和研究人员致力于改进外科手术程序和临床疗法的开发,这些手术和临床疗法对那些无法用传统方法成功治疗或可以通过激光技术比以前更好地治疗的患者是有利的。在这些发展的推动下,形成了国家激光学会,如美国激光医学与外科学会(ASLMS)和德国激光医学学会(DGLM),随后是第一个国际学会,国际激光外科与医学学会(ISLSM)。因此,在10年内,全球医疗激光用户的数量增加到数千人。在接下来的几十年里,激光手术和医学发展到一个令人瞩目的阶段,应用越来越多。它是一种用于传输能量以消融、凝固或光化学或光化学方式改变组织,以及改变组织功能或阐明组织特定信息的技术;所有这些方法都允许其多学科应用-并稳步增长。激光现在已经在许多医学学科中得到了很好的应用,并且已经被国家和私人健康计划所普遍接受。目前,诊断和治疗应用正在以不同的速度发展。虽然激光诊断研究在该领域处于领先地位,但最近只有少数治疗技术实现了从实验室到床边的飞跃。值得注意的是,相当多的激光和生物光子学技术已经被纳入医学指南,而且它们正在医学学科而不是生物光子学领域内进行讨论。然而,关于激光和生物光子学在医学上的研究数量正在稳步增加,因为用户和他们的目的和以前一样多样化。在这一过程中,激光医学和生物光子学不仅涉及到临床应用。有许多研究领域,但只有少数关键的应用,与其他竞争技术也在增加。社会福利计划的费用报销仍然是一个关键问题,工业投资和研究经费不足以弥合临床和临床之间的差距。尽管如此,在实验室医学、组织学和病理学、激光和光的应用以及诊断程序方面,已经有了许多光学创新。
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Photonics & Lasers in Medicine – Dissolved in diversity
It has been more than 50 years since Theodore Maiman first presented the pulsed laser beam in public. Since then this unique energy source – namely, light amplification by stimulated emission of radiation (LASER) – has initiated a new age in surgery and medicine. In the early years after its invention only a relatively small group of international clinicians and researchers were engaged in the development of improved surgical procedures and clinical therapies that were advantageous for those patients who either could not be treated successfully in a conventional way, or could be treated better than before by using LASER. Driven by these developments, national laser societies were formed, such as the American Society for Laser Medicine and Surgery (ASLMS) and the German Society for Laser Medicine (DGLM), followed by the first international society, the International Society for Laser Surgery and Medicine (ISLSM). As a result, within 10 years the number of medical LASER users increased to several thousand worldwide. In the following decades laser surgery and medicine developed into remarkable stage with an ever-increasing number of applications. It is a technique that is used to transport energy to ablate, coagulate or alter tissue photomechanically or photochemically, as well as to change function or elucidate specific information from the tissue; all these methods allow its multidisciplinary use – with steady growth. The LASER is now well established in many medical disciplines and it has found general acceptance by national and private health plans. Currently diagnostic and therapeutic applications are being developed with different speed. While laser diagnostics research is leading the field, only a few therapeutic techniques have made the leap from bench to bedside lately. It is interesting to note here that a considerable number of LASER and biophotonic techniques have already been integrated into the medical guidelines and that they are being discussed within the medical disciplines rather than within the biophotonics community. However, the amount of research regarding LASER and biophotonics in medicine is steadily increasing, in that the users and their aims are as diverse as they ever were. Within this process, laser medicine and biophotonics are not only related to clinical application. There are many research fields but only a few key applications, with other competitive technologies also on the increase. Reimbursement of costs by social welfare schemes still remains a critical point and industrial investment and research funding are not enough to bridge the gap between the bench and the bedside. In spite of this, there have been many optical innovations in laboratory medicine, histology and pathology, LASER and light applications, and diagnostic procedures.
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