The exploration of deep-sea hydrothermal vents has depended on the use of manned submersibles, which are invariably equipped with high-intensity floodlights. But the eyes of many deep-sea crustaceans, which are exquisitely adapted for the dim conditions at such depths, can suffer permanent retinal damage as a result. We suggest that the use of floodlights has irretrievably damaged the eyes of many of the decapod shrimps (family Bresiliidae) that dominate the fauna at vents on the Mid-Atlantic Ridge
The brain architecture of shrimp living in deep-sea vents provides clues to how these organisms have...
1. We examined microspectrophotometrically the retinas of 3 species of stomatopods in the superfamil...
During a NOAA-OER funded research cruise, novel collecting techniques were used to collect live, dee...
Alvinocarid decapod shrimp are some of the most abundant mobile fauna at hydrothermal vents, occurri...
Animals that successfully use vision in the deep-sea environment possess some unusual adaptations to...
Using new collecting techniques with the Johnson-Sea-Link submersible, eight species of deep-sea ben...
During research cruises funded by the NOAA Ocean Exploration Program (Operation Deep-Scope 2005 and ...
Extraocular photoreception, the ability to detect and respond to light outside of the eye, has not b...
With little refuge and a three-dimensional hunting ground, mesopelagic (200-1000 m) animals have evo...
Most deep-sea adult shrimps have superposition compound eyes, which are adapted to maximize sensitiv...
During an Ocean Exploration funded research cruise in the Gulf of Mexico (Operation Deep-Scope 2005)...
The role of UV light in the deep-sea environment has been discounted in the past, due to the assumpt...
Adaptations of the visual systems of deep-sea crustaceans to dim light environments are driven not o...
In the world of midwater, mesopelagic animals, downwelling sunlight is filtered by the overlying wat...
Extraocular photoreception, the ability to detect and respond to light outside of the eye, has not b...
The brain architecture of shrimp living in deep-sea vents provides clues to how these organisms have...
1. We examined microspectrophotometrically the retinas of 3 species of stomatopods in the superfamil...
During a NOAA-OER funded research cruise, novel collecting techniques were used to collect live, dee...
Alvinocarid decapod shrimp are some of the most abundant mobile fauna at hydrothermal vents, occurri...
Animals that successfully use vision in the deep-sea environment possess some unusual adaptations to...
Using new collecting techniques with the Johnson-Sea-Link submersible, eight species of deep-sea ben...
During research cruises funded by the NOAA Ocean Exploration Program (Operation Deep-Scope 2005 and ...
Extraocular photoreception, the ability to detect and respond to light outside of the eye, has not b...
With little refuge and a three-dimensional hunting ground, mesopelagic (200-1000 m) animals have evo...
Most deep-sea adult shrimps have superposition compound eyes, which are adapted to maximize sensitiv...
During an Ocean Exploration funded research cruise in the Gulf of Mexico (Operation Deep-Scope 2005)...
The role of UV light in the deep-sea environment has been discounted in the past, due to the assumpt...
Adaptations of the visual systems of deep-sea crustaceans to dim light environments are driven not o...
In the world of midwater, mesopelagic animals, downwelling sunlight is filtered by the overlying wat...
Extraocular photoreception, the ability to detect and respond to light outside of the eye, has not b...
The brain architecture of shrimp living in deep-sea vents provides clues to how these organisms have...
1. We examined microspectrophotometrically the retinas of 3 species of stomatopods in the superfamil...
During a NOAA-OER funded research cruise, novel collecting techniques were used to collect live, dee...