Use of Topical Gaseous Nitric Oxide/Plasma Energy in the Treatment of Recalcitrant Wounds.

IF 0.8 Q4 SURGERY Surgical technology international Pub Date : 2023-12-15 DOI:10.52198/23.STI.43.WH1707
Terry Treadwell
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Abstract

Nitric oxide (NO) is involved in many biological functions and has been demonstrated to be important in wound healing. When delivered to a wound in its gaseous state, NO stimulates vasodilatation and angiogenesis, inhibits platelet and erythrocyte aggregation, reduces leukocyte adhesion, and is an important anti-inflammatory and antimicrobial agent. Many patients with chronic and hard-to-heal wounds have a deficiency of NO in their tissues ,which may contribute to slow and even arrested healing. However, it has been difficult to use NO for treatment because of its short half-life, which is measured in seconds. A recently developed device provides a way to generate NO and combine it with a stream of plasma energy, which extends its half-life to the point that it can provide a clinical effect. This device creates NO from the ambient air, and no other gases are needed. The combination of atmospheric oxygen and nitrogen at a high temperature generated by an electric arc results in NO and plasma energy (N2 + O2 = 2NO + 181 KJ energy). After generation, the NO/plasma energy-containing gas flow is cooled to 18-20°C, and NO is delivered to the tissues in a "dose" between 800 and 1000 ppm. When NO gas was combined with the plasma energy stream, the NO was found to penetrate intact skin or tissue up to 3cm to treat an underlying problem. Studies have shown that NO/plasma energy therapy promotes healing. This report summarizes current applications of this unique approach in the treatment of chronic, hard-to-heal and infected wounds.

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局部使用气态一氧化氮/等离子体能量治疗顽固性伤口。
一氧化氮(NO)参与许多生物学功能,并已被证明在伤口愈合中起重要作用。当一氧化氮以气态被送到伤口时,它能刺激血管扩张和血管生成,抑制血小板和红细胞聚集,减少白细胞粘附,是一种重要的抗炎和抗菌药物。许多患有慢性和难以愈合伤口的患者组织中缺乏NO,这可能导致愈合缓慢甚至停止。然而,由于一氧化氮的半衰期很短,以秒为单位测量,因此很难使用它进行治疗。最近开发的一种装置提供了一种产生一氧化氮的方法,并将其与等离子体能量流结合起来,从而延长其半衰期,达到可以提供临床效果的程度。该装置从周围空气中产生一氧化氮,不需要其他气体。电弧产生的高温下大气中的氧和氮结合产生一氧化氮和等离子体能量(N2 + O2 = 2NO + 181 KJ能量)。生成后,将含NO/等离子体能量的气流冷却至18-20℃,将NO以800 - 1000ppm的“剂量”输送到组织中。当NO气体与等离子体能量流结合时,发现NO可以穿透完整的皮肤或组织达3厘米,以治疗潜在的问题。研究表明NO/等离子体能量疗法促进愈合。本报告总结了目前这种独特方法在治疗慢性、难以愈合和感染伤口中的应用。
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CiteScore
2.00
自引率
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发文量
141
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