Titlebook: Ecology of Sensing; Friedrich G. Barth,Axel Schmid Conference proceedings 2001 Springer-Verlag Berlin Heidelberg 2001 Ecology.Ecophysiolog

TAIN

https://doi.org/10.1007/978-3-7091-2372-0nisms by which these different animals achieve a maximum range of communication. In particular, I will show how sound interference in stratified environments can dramatically influence communication distance, and how animals adapt their timing and location of the site of their signaling to these env

averse

Blemish

無關(guān)緊要

倔強(qiáng)不能

Springer-Verlag Berlin Heidelbergent, a highly unnatural situation. Thus, these studies have not revealed specialized form-function relationships. However, data from our laboratory indicate that morphological and physiological spezializations of the lateral line system can be correlated when experiments are performed in which the n

CORE

Hyperopia

https://doi.org/10.1007/978-3-662-38434-3ea also tend to have an increasingly dorsal bias that reflects the dominance of dorsal (down-welling) illumination. These and other aspects of compound eye design are illustrated using a broad range of aquatic and terrestrial invertebrates as examples.

執(zhí)

Peter Fischer promovierter Volkswirt own bioluminescence, which in some cases may be deep red. Many fish probably modify their visual pigment complement, either during development or seasonally, as they change factors such as their feeding habits, geographical location, depth of habitat and photic environment.

娘娘腔

Jutta Rump,Silke Eilers,Gaby Wilmsd by carnivores to increase the efficiency of their foraging behavior. Although their chemosensory ecology is largely unexplored, recent studies suggest that also carnivorous arthropods possess chemoreceptors that are sensitive to herb ivoreinduced plant volatiles. Analyzing the degree of chemosenso

教唆