{"title":"生物系统的自发超弱光子发射与内源光场。","authors":"Herbert Schwabl, Herbert Klima","doi":"10.1159/000083960","DOIUrl":null,"url":null,"abstract":"<p><p>Still one of the most astonishing biological electromagnetic phenomena is the ultraweak photon emission (UPE) from living systems. Organisms and tissues spontaneously emit measurable intensities of light, i.e. photons in the visible part of the electromagnetic spectrum (380-780 nm), in the range from 1 to 1,000 photons x s-1 x cm-2, depending on their condition and vitality. It is important not to confuse UPE from living systems with other biogenic light emitting processes such as bioluminescence or chemiluminescence. This article examines with basic considerations from physics on the quantum nature of photons the empirical phenomenon of UPE. This leads to the description of the non-thermal origin of this radiation. This is in good correspondence with the modern understanding of life phenomena as dissipative processes far from thermodynamic equilibrium. UPE also supports the understanding of life sustaining processes as basically driven by electromagnetic fields. The basic features of UPE, like intensity and spectral distribution, are known in principle for many experimental situations. The UPE of human leukocytes contributes to an endogenous light field of about 1011 photons x s-1 which can be influenced by certain factors. Further research is needed to reveal the statistical properties of UPE and in consequence to answer questions about the underlying mechanics of the biological system. In principle, statistical properties of UPE allow to reconstruct phase-space dynamics of the light emitting structures. Many open questions remain until a proper understanding of the electromagnetic interaction of the human organism can be achieved: which structures act as receptors and emitters for electromagnetic radiation? How is electromagnetic information received and processed within cells?</p>","PeriodicalId":80278,"journal":{"name":"Forschende Komplementarmedizin und klassische Naturheilkunde = Research in complementary and natural classical medicine","volume":"12 2","pages":"84-9"},"PeriodicalIF":0.0000,"publicationDate":"2005-04-01","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://sci-hub-pdf.com/10.1159/000083960","citationCount":"24","resultStr":"{\"title\":\"Spontaneous ultraweak photon emission from biological systems and the endogenous light field.\",\"authors\":\"Herbert Schwabl, Herbert Klima\",\"doi\":\"10.1159/000083960\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"<p><p>Still one of the most astonishing biological electromagnetic phenomena is the ultraweak photon emission (UPE) from living systems. Organisms and tissues spontaneously emit measurable intensities of light, i.e. photons in the visible part of the electromagnetic spectrum (380-780 nm), in the range from 1 to 1,000 photons x s-1 x cm-2, depending on their condition and vitality. It is important not to confuse UPE from living systems with other biogenic light emitting processes such as bioluminescence or chemiluminescence. This article examines with basic considerations from physics on the quantum nature of photons the empirical phenomenon of UPE. This leads to the description of the non-thermal origin of this radiation. This is in good correspondence with the modern understanding of life phenomena as dissipative processes far from thermodynamic equilibrium. UPE also supports the understanding of life sustaining processes as basically driven by electromagnetic fields. The basic features of UPE, like intensity and spectral distribution, are known in principle for many experimental situations. The UPE of human leukocytes contributes to an endogenous light field of about 1011 photons x s-1 which can be influenced by certain factors. Further research is needed to reveal the statistical properties of UPE and in consequence to answer questions about the underlying mechanics of the biological system. In principle, statistical properties of UPE allow to reconstruct phase-space dynamics of the light emitting structures. Many open questions remain until a proper understanding of the electromagnetic interaction of the human organism can be achieved: which structures act as receptors and emitters for electromagnetic radiation? 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引用次数: 24
摘要
最令人惊讶的生物电磁现象之一是来自生命系统的超弱光子发射(UPE)。生物体和组织自发地发出可测量强度的光,即电磁波谱可见部分(380-780纳米)的光子,其范围为1至1,000光子x s-1 x cm-2,取决于它们的状况和活力。重要的是不要将来自生命系统的UPE与其他生物发光过程(如生物发光或化学发光)混淆。本文从光子的量子性质出发,从物理学的基本观点出发,考察了UPE的经验现象。这就引出了对这种辐射的非热源的描述。这很好地符合现代对生命现象的理解,即远离热力学平衡的耗散过程。UPE还支持对生命维持过程的理解,这些过程基本上是由电磁场驱动的。UPE的基本特征,如强度和光谱分布,在许多实验情况下原则上是已知的。人白细胞的UPE产生约1011光子x s-1的内源光场,可受某些因素的影响。需要进一步的研究来揭示UPE的统计特性,从而回答有关生物系统潜在机制的问题。原则上,UPE的统计特性允许重建发光结构的相空间动力学。在对人体组织的电磁相互作用有了正确的理解之前,还有许多悬而未决的问题:哪些结构充当电磁辐射的受体和发射器?细胞内是如何接收和处理电磁信息的?
Spontaneous ultraweak photon emission from biological systems and the endogenous light field.
Still one of the most astonishing biological electromagnetic phenomena is the ultraweak photon emission (UPE) from living systems. Organisms and tissues spontaneously emit measurable intensities of light, i.e. photons in the visible part of the electromagnetic spectrum (380-780 nm), in the range from 1 to 1,000 photons x s-1 x cm-2, depending on their condition and vitality. It is important not to confuse UPE from living systems with other biogenic light emitting processes such as bioluminescence or chemiluminescence. This article examines with basic considerations from physics on the quantum nature of photons the empirical phenomenon of UPE. This leads to the description of the non-thermal origin of this radiation. This is in good correspondence with the modern understanding of life phenomena as dissipative processes far from thermodynamic equilibrium. UPE also supports the understanding of life sustaining processes as basically driven by electromagnetic fields. The basic features of UPE, like intensity and spectral distribution, are known in principle for many experimental situations. The UPE of human leukocytes contributes to an endogenous light field of about 1011 photons x s-1 which can be influenced by certain factors. Further research is needed to reveal the statistical properties of UPE and in consequence to answer questions about the underlying mechanics of the biological system. In principle, statistical properties of UPE allow to reconstruct phase-space dynamics of the light emitting structures. Many open questions remain until a proper understanding of the electromagnetic interaction of the human organism can be achieved: which structures act as receptors and emitters for electromagnetic radiation? How is electromagnetic information received and processed within cells?