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绿色植物的发光现象。

Light production by green plants.

作者信息

STREHLER B L, ARNOLD W

出版信息

J Gen Physiol. 1951 Jul;34(6):809-20. doi: 10.1085/jgp.34.6.809.

DOI:10.1085/jgp.34.6.809
PMID:14850702
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC2147280/
Abstract
  1. Green plants have been found to emit light of approximately the same color as their fluorescent light for several minutes following illumination. This light is about 10(-3) the intensity of the fluorescent light, about one-tenth second after illumination below saturation or 10(-6) of the intensity of the absorbed light. 2. The decay curve follows bimolecular kinetics at 6.5 degrees C. and reaction order 1.6 at 28 degrees C. 3. This light saturates as does photosynthesis at higher light intensities and in about the same intensity range as does photosynthesis. 4. An action spectrum for light emitted as a function of the wave length of exciting light has been determined. It parallels closely the photosynthetic action spectrum. 5. The intensity of light emission was studied as a function of temperature and found to be optimal at about 37 degrees C. with an activation energy of approximately 19,500 calories. Two-temperature studies indicated that the energy may be trapped in the cold, but that temperatures characteristic for enzymatic reactions are necessary for light production. 6. Illumination after varying dark periods showed initial peaks of varying height depending on the preceding dark period. 7. 5 per cent CO(2) reversibly depresses the amount of light emitted by about 30 per cent. About 3 minutes are required for this effect to reach completion at room temperatures. 8. Various inhibitors of photosynthesis were tested for their effect on luminescence and were all inhibitory at appropriate concentrations. 9. Irradiation with ultraviolet light (2537A) inhibits light production at about the same rate as it inhibits photosynthesis. 10. This evidence suggests that early and perhaps later chemical reactions in photosynthesis may be partially reversible.
摘要
  1. 人们发现绿色植物在光照后几分钟内会发出与荧光颜色大致相同的光。这种光的强度约为荧光强度的10⁻³,在低于饱和光照后约十分之一秒时为荧光强度的十分之一,或吸收光强度的10⁻⁶。2. 衰变曲线在6.5℃时遵循双分子动力学,在28℃时反应级数为1.6。3. 这种光在较高光强下会饱和,且饱和时的光强范围与光合作用的大致相同。4. 已确定了作为激发光波长函数的发光作用光谱。它与光合作用作用光谱密切平行。5. 研究了发光强度随温度的变化,发现约37℃时发光最佳,活化能约为19500卡。双温度研究表明,能量可能在低温下被捕获,但光产生需要酶促反应的特征温度。6. 在不同暗期后进行光照,会出现高度不同的初始峰值,这取决于之前的暗期。7. 5%的二氧化碳会使发光量可逆地降低约30%。在室温下,这种效应约需3分钟才能完全显现。8. 测试了各种光合作用抑制剂对发光的影响,在适当浓度下它们都具有抑制作用。9. 用紫外线(2537埃)照射抑制光产生的速率与抑制光合作用的速率大致相同。10. 这些证据表明光合作用早期甚至可能后期的化学反应可能部分是可逆的。

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本文引用的文献

1
Factors influencing the response of the bioluminescent reaction to adenosine triphosphate.影响生物发光反应对三磷酸腺苷响应的因素。
Arch Biochem. 1949 Jul;22(3):420-33.