Linked from

The 54 pages that link to Bioluminescence, each with the reason it gives.

• FluorescenceCompared with: Its light originates in chemical reactions, unlike fluorescence's absorbed-radiation excitation.

• Adenosine triphosphateBroader topic: Firefly luciferase uses ATP in the reaction that produces light.

• ATPRelated: Some luciferase reactions consume ATP as part of the light-producing process.

• Mesopelagic zoneRelated: Organisms create light where sunlight is faint and photosynthesis cannot occur.

• KrillRelated: Many krill produce light with specialized organs, though its ecological role remains uncertain.

• Quorum sensingRelated: The classic Vibrio fischeri system uses quorum sensing to switch on light production at high cell density.

• AnglerfishRelated: Some deep-sea anglerfish use bacterial light in their esca to lure prey in darkness.

• CounterilluminationNarrower topic: Counterillumination is a camouflage function of bioluminescence.

• PhosphorCompared with: It is biologically generated, rather than emission from an excited phosphor material.

• Deep-sea fishRelated: Many deep-sea fish use biological light to lure prey, communicate, or avoid predators.

• Deep seaRelated: With sunlight absent, organisms use emitted light for hunting, defense, and signaling.

• Bathypelagic zoneRelated: Many bathypelagic animals use it for communication, prey capture, or defense.

• ChromatophoreCompared with: It creates light rather than changing how incident light is reflected or absorbed.

• ChemiluminescenceBroader topic: Bioluminescence is chemiluminescence occurring within biological systems.

• PhotophoreNarrower topic: Photophores are anatomical structures in which bioluminescence is produced or displayed.

• Abyssal zoneRelated: Some deep-sea animals use self-generated light to communicate, lure prey, or evade predators.

• Giant squidRelated: Light-producing deep-sea animals illuminate the environment where giant squid live and hunt.

• Green fluorescent proteinCompared with: Jellyfish bioluminescence involves aequorin, which can excite GFP without external illumination.

• LanternfishNarrower topic: Lanternfish photophores produce light through bioluminescent chemistry.

• DinoflagellateRelated: Some dinoflagellates emit flashes of blue light when disturbed by waves or movement.

• Deep-sea biodiversityRelated: Deep-sea animals use self-generated light for communication, prey capture, and avoiding predators.

• LophiiformesRelated: Some deep-sea anglerfish use glowing escas to attract prey or mates.

• BeetleRelated: Fireflies are beetles whose light signals mediate courtship and warning.

• DragonfishRelated: Many dragonfish produce light with photophores used in signaling, camouflage, or prey attraction.

• IlliciumRelated: Some anglerfish lures glow through bioluminescence, making the illicium conspicuous in darkness.

• Mesopelagic fishRelated: Many mesopelagic fish use biological light for camouflage, signaling, or prey detection.

• Bacterial bioluminescenceNarrower topic: Bacterial bioluminescence is one microbial form of this wider biological phenomenon.

• Bathyal zoneRelated: Bathyal animals use biological light for signaling, camouflage, and prey capture.

• EscaRelated: Some anglerfish escas glow, making light part of their lure.

• ViperfishNarrower topic: Viperfish produce light with organs along their bodies, a form of biological light production.

• Osamu ShimomuraNarrower topic: Shimomura’s investigations focused on the chemistry behind light in marine organisms.

• Vampire squidRelated: Light-producing organs help the squid startle predators and communicate in darkness.

• Martin ChalfieNarrower topic: GFP was discovered in a jellyfish whose light emission depends on a partner protein.

• Megamouth sharkRelated: Reflective tissue around the mouth may make it conspicuous to bioluminescent prey.

• SiphonophoreRelated: The roles and evolutionary origins of light-producing structures in some deep-sea siphonophores remain subjects of research.

• Aphotic zoneRelated: Many aphotic-zone animals use biological light for communication, defense, or prey capture.

• BarreleyeRelated: Faint flashes from deep-sea organisms can reveal prey against the dark water.

• Black seadevilNarrower topic: The black seadevil’s lure uses biological light rather than reflected sunlight.

• Colossal squidRelated: Large eyes may help detect faint biological light in the deep sea.

• GonostomatidaeRelated: Photophores on many bristlemouths produce light in deep water.

• Snipe eelRelated: Light-producing organisms are part of the dark environment where snipe eels forage.

• Cookiecutter sharkRelated: Luminous markings on its underside may attract larger animals within biting range.

• Frilled sharkCompared with: Unlike many deep-sea animals, the frilled shark is not known for producing light.

• MyctophiformesNarrower topic: It describes the light-making phenomenon behind many myctophid photophores.

• Pelican eelRelated: A luminous organ at the pelican eel’s tail tip may help attract prey.

• StomiiformesRelated: Many stomiiforms use photophores to emit light in dark ocean layers.

• AnomalopidaeNarrower topic: Flashlight fishes use bioluminescence to produce light beneath their eyes.

• BiophotonCompared with: Bioluminescence is conspicuous, adapted light production; biophoton emission is typically far weaker and incidental.

• Black swallowerRelated: Light production is a common deep-sea adaptation, though not the black swallower’s defining feeding trait.

• Deep-sea communityRelated: Deep-sea species use light for communication, prey attraction, camouflage, and defense.