Ryan M J
Brain Behav Evol. 1986;28(1-3):70-82. doi: 10.1159/000118693.
Numerous studies have investigated selective forces that appear to influence the evolution of acoustic communication systems. I review a number of constraints on evolution in these systems. A species' history is of undeniable importance in the analysis of any trait. However, studies have given little or no attention to phylogenetic patterns of acoustic signals. This precludes the identification of phylogenetic constraints, and should be viewed as a serious constraint on our ability to understand how communication systems evolve. Morphological constraints influence the energetic efficiency of acoustic communication. To maximize transmission distance of signals used in long-range communication, the animal's morphology favors signals with high frequencies. Thus morphology acts in opposition to properties of the environment, which favor low frequencies for use in long-range communication. Sensory receptors also play an important role in the evolution of acoustic signals. There is significant variation in the frequency range to which an inner-ear organ of the frog is sensitive. Different lineages of frogs are characterized by ear organs with different ranges of sensitivity. This variation should influence the frequency range over which calls evolved and, as a consequence, might have influenced the rate at which different lineages of anurans speciate.
许多研究调查了似乎影响声学通信系统进化的选择力。我回顾了这些系统进化中的一些限制因素。在分析任何性状时,一个物种的历史具有不可否认的重要性。然而,研究很少或根本没有关注声学信号的系统发育模式。这妨碍了对系统发育限制因素的识别,并且应该被视为对我们理解通信系统如何进化的能力的一个严重限制。形态学限制因素影响声学通信的能量效率。为了最大化用于远程通信的信号的传输距离,动物的形态有利于高频信号。因此,形态学与环境特性相反,环境特性有利于低频用于远程通信。感觉受体在声学信号的进化中也起着重要作用。青蛙内耳器官敏感的频率范围存在显著差异。不同谱系的青蛙具有不同敏感范围的耳器官。这种差异应该会影响叫声进化的频率范围,因此可能会影响无尾目不同谱系的物种形成速率。