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[无可用内容]。

[Not Available].

作者信息

Hoffmann Klaus

机构信息

Max-Planck-Institut für Verhaltensphysiologie, Seewiesen und Erling-Andechs.

出版信息

Oecologia. 1969 Aug;3(2):184-206. doi: 10.1007/BF00416981.

DOI:10.1007/BF00416981
PMID:28308876
Abstract
  1. External cycles may influence biological functions by entraining their endogenous circadian oscillation or by directly influencing the function measured. In order to distinguish between these two possible effects it is necessary to record the free-running period of the circadian oscillation under constant conditions, before and after the exposure to an external cycle (Fig. 4) since otherwise the results might be obscured by masking effects (Figs. 1-3). Here only synchronization of the circadian cycle is called a Zeitgeber effect. 2. Whether the circadian oscillation is entrained by a Zeitgeber depends on the difference between the spontaneous circadian period and the period of the Zeitgeber, and the strength of the Zeitgeber (Fig. 5). The strength of the Zeitgeber also influences the duration of resynchronization after a phase shift of the Zeitgeber oscillation, and the phase relation between circadian cycle and Zeitgeber cycle during entrainment. These conclusions, which are derived from the assumption that the circadian periodicity is a self-sustained oscillation in the technical sense, have been experimentally verified for biological circadian oscillations (Figs. 6 and 7). 3. The statement that certain types of factors act as Zeitgebers and others do not, is not meaningful in such general terms, as shown by the experimental evidence. There are only different strengths of Zeitgeber modalities. However, in this respect one would expect large interspecific and even intraspecific differences, depending on organization and biology of the different organisms. An example for interspecific differences in Zeitgeber strength of light cycles is given (Fig. 9). 4. Light, temperature (Table 1 and 2), acoustical signals (Table 3) and electrical fields have so far been demonstrated to act as Zeitgebers. It is suposed that many other Zeitgeber modalities will be found, which will be different for different groups of organisms. The only valid generalization so far seems to be that temperature cycles are strong Zeitgebers in poikilothermic organisms, but only very weak ones in homoiotherms (Table 1 and 2). 5. It is mentioned that Zeitgeber effects may also contribute to the internal synchronization of different circadian oscillations within the organism.
摘要
  1. 外部周期可能通过带动其内源性昼夜节律振荡或直接影响所测量的功能来影响生物功能。为了区分这两种可能的效应,有必要在暴露于外部周期之前和之后,在恒定条件下记录昼夜节律振荡的自由运行周期(图4),否则结果可能会被掩盖效应(图1 - 3)所混淆。在此,只有昼夜节律周期的同步被称为授时因子效应。2. 昼夜节律振荡是否被授时因子带动取决于自发昼夜周期与授时因子周期之间的差异以及授时因子的强度(图5)。授时因子的强度还会影响授时因子振荡相移后的重新同步持续时间,以及带动过程中昼夜节律周期与授时因子周期之间的相位关系。这些结论是基于昼夜节律周期性在技术意义上是一种自持振荡这一假设得出的,并且已在生物昼夜节律振荡中得到实验验证(图6和图7)。3. 某些类型的因素作为授时因子而其他因素不是,这样笼统的说法是没有意义的,实验证据已表明了这一点。授时因子模式只有不同的强度。然而,在这方面,根据不同生物体的组织结构和生物学特性,预计会存在很大的种间甚至种内差异。给出了光周期授时因子强度种间差异的一个例子(图9)。4. 到目前为止,光、温度(表1和表2)、声学信号(表3)和电场已被证明可作为授时因子。据推测,还会发现许多其他授时因子模式,不同生物群体的授时因子模式会有所不同。目前唯一有效的普遍规律似乎是,温度周期在变温生物中是强授时因子,但在恒温生物中则非常弱(表1和表2)。5. 文中提到授时因子效应也可能有助于生物体内部不同昼夜节律振荡的同步。

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[Not Available].[无可用内容]。
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[Not Available].[无可用内容]
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