AbstractRapid adaptive camouflage is the primary defense of soft-bodied cuttlefish. Previous studies have shown that cuttlefish body patterns are strongly influenced by visual edges in the substrate. The aim of the present study was to examine how cuttlefish body patterning is differentially controlled by various aspects of edges, including contrast polarity, contrast strength, and the presence or absence of “line terminators” introduced into a pattern when continuous edges are fragmented. Spatially high- and low-pass filtered white or black disks, as well as isolated, continuous and fragmented edges varying in contrast, were used to assess activation of cuttlefish skin components. Although disks of both contrast polarities evoked relativel...
International audienceCuttlefish rapidly change their appearance in order to camouflage on a given b...
[[abstract]]Cuttlefish, Sepia officinalis, can produce a variety of body patterns for camouflage on ...
Author Posting. © Marine Biological Laboratory, 2005. This article is posted here by permission of ...
AbstractRapid adaptive camouflage is the primary defense of soft-bodied cuttlefish. Previous studies...
The cuttlefish, Sepia officinalis, provides a fascinating opportunity to investigate the mechanisms ...
Juvenile cuttlefish (Sepia officinalis) camouflage themselves by changing their body pattern accordi...
Juvenile cuttlefish (Sepia officinalis) camouflage themselves by changing their body pattern accordi...
AbstractCuttlefish are cephalopod molluscs that achieve dynamic camouflage by rapidly extracting vis...
Cephalopod mollusks including octopus and cuttlefish are adept at adaptive camouflage, varying their...
[[abstract]]We investigated some visual background features that influence young cuttlefish, Sepia p...
AbstractDisruptive body coloration is a primary camouflage tactic of cuttlefish. Because rapid chang...
[[abstract]]Disruptive body coloration is a primary camouflage tactic of cuttlefish. Because rapid c...
[[abstract]]Cephalopods have at least 20 body patterns for camouflage, yet these can be organized in...
[[abstract]]Among the changeable camouflage patterns of cuttlefish, disruptive patterning is shown i...
AbstractCamouflage is the primary defense in cuttlefish. The rich repertoire of their body patterns ...
International audienceCuttlefish rapidly change their appearance in order to camouflage on a given b...
[[abstract]]Cuttlefish, Sepia officinalis, can produce a variety of body patterns for camouflage on ...
Author Posting. © Marine Biological Laboratory, 2005. This article is posted here by permission of ...
AbstractRapid adaptive camouflage is the primary defense of soft-bodied cuttlefish. Previous studies...
The cuttlefish, Sepia officinalis, provides a fascinating opportunity to investigate the mechanisms ...
Juvenile cuttlefish (Sepia officinalis) camouflage themselves by changing their body pattern accordi...
Juvenile cuttlefish (Sepia officinalis) camouflage themselves by changing their body pattern accordi...
AbstractCuttlefish are cephalopod molluscs that achieve dynamic camouflage by rapidly extracting vis...
Cephalopod mollusks including octopus and cuttlefish are adept at adaptive camouflage, varying their...
[[abstract]]We investigated some visual background features that influence young cuttlefish, Sepia p...
AbstractDisruptive body coloration is a primary camouflage tactic of cuttlefish. Because rapid chang...
[[abstract]]Disruptive body coloration is a primary camouflage tactic of cuttlefish. Because rapid c...
[[abstract]]Cephalopods have at least 20 body patterns for camouflage, yet these can be organized in...
[[abstract]]Among the changeable camouflage patterns of cuttlefish, disruptive patterning is shown i...
AbstractCamouflage is the primary defense in cuttlefish. The rich repertoire of their body patterns ...
International audienceCuttlefish rapidly change their appearance in order to camouflage on a given b...
[[abstract]]Cuttlefish, Sepia officinalis, can produce a variety of body patterns for camouflage on ...
Author Posting. © Marine Biological Laboratory, 2005. This article is posted here by permission of ...