Linking biomechanics and ecology through predator-prey interactions: flight performance of dragonflies and their prey.
about
BEEtag: A Low-Cost, Image-Based Tracking System for the Study of Animal Behavior and LocomotionFlight of the dragonflies and damselfliesOdonata (dragonflies and damselflies) as a bridge between ecology and evolutionary genomicsMass enhances speed but diminishes turn capacity in terrestrial pursuit predatorsWhen hawks attack: animal-borne video studies of goshawk pursuit and prey-evasion strategiesThe Killer Fly Hunger Games: Target Size and Speed Predict Decision to Pursuit.Rattlesnakes are extremely fast and variable when striking at kangaroo rats in nature: Three-dimensional high-speed kinematics at night.Vertical leaping mechanics of the Lesser Egyptian Jerboa reveal specialization for maneuverability rather than elastic energy storageTowards Quantitative Optical Cross Sections in Entomological Laser Radar - Potential of Temporal and Spherical Parameterizations for Identifying Atmospheric Fauna.Realistic Instrumentation Platform for Active and Passive Optical Remote Sensing.Falling Victim to Wasps in the Air: A Fate Driven by Prey Flight Morphology?Eight pairs of descending visual neurons in the dragonfly give wing motor centers accurate population vector of prey directionEnhanced flight performance by genetic manipulation of wing shape in Drosophila.Neural control and precision of flight muscle activation in Drosophila.Energetics and evasion dynamics of large predators and prey: pumas vs. hounds.Unpredictability of escape trajectory explains predator evasion ability and microhabitat preference of desert rodents.When Optimal Strategy Matters to Prey Fish.Internal models direct dragonfly interception steering.Rules to fly by: pigeons navigating horizontal obstacles limit steering by selecting gaps most aligned to their flight direction.Nasal airflow simulations suggest convergent adaptation in Neanderthals and modern humans.Outrun or Outmaneuver: Predator-Prey Interactions as a Model System for Integrating Biomechanical Studies in a Broader Ecological and Evolutionary Context.Wing morphology variations in a natural population of Phlebotomus tobbi Adler and Theodor 1930.Do free-ranging rattlesnakes use thermal cues to evaluate prey?Balancing Biomechanical Constraints: Optimal Escape Speeds When There Is a Trade-off between Speed and Maneuverability.Flies evade looming targets by executing rapid visually directed banked turns.A faster escape does not enhance survival in zebrafish larvae.Predator-induced flow disturbances alert prey, from the onset of an attack.Neuroscience: Dragonflies predict and plan their hunts.Can the narrow red bands of dragonflies be used to perceive wing interference patterns?The evolution of anti-bat sensory illusions in moths.Unpredictable movement as an anti-predator strategyThe price of looking sexy: visual ecology of a three-level predator-prey system
P2860
Q27321541-B6E1BB54-DEA2-48AC-99FD-C12D69D48EBFQ27323299-256B9871-E499-47F9-B280-9DABEE5E8C92Q28069974-A825385F-E073-4FC5-AA08-5990D0C93F7BQ28610432-7665FF41-728E-4A4E-85FB-FDA592B8B2DAQ30406809-A4AF1EDC-8064-42F4-A4DF-7EAB59613AAFQ30669726-18C1324D-7F07-46D6-B20F-6EB515A1AF5FQ30834857-57BB87E5-5F1A-4EDB-8821-5E052591261AQ33869100-544CAD57-7307-48E8-9430-9D0FEBC2CB0FQ35752251-3F548CCB-6CA3-4FC3-942D-60D2F446AD76Q35895414-A5E3F1A4-FA95-4ADF-95B1-BF6777EEB16EQ35980069-842DEF6A-9560-43A4-A584-F3850691475EQ36535374-A8055CF9-678E-4BD3-9BBD-C13F6AB1996EQ36637440-BB67094B-9145-47E2-AF7F-13EA5138B1D6Q39036073-0B76426F-5151-4E63-842A-C1DBBCFBF09DQ40487844-A5794ECE-51F3-45D5-8DB6-707219F74FE6Q41619778-8B4BBD60-A0D8-4955-9206-D3D05581F188Q43542057-0D4190DC-3A8F-4916-8A77-F36A0069F83FQ45006884-86310A4B-4510-4217-8C89-EB1E1BCC7B97Q46196274-0AA84759-D1D7-4321-B517-8B90E88E4C65Q46271733-BFD7BDF7-5FAF-49D2-9EDE-E783ADAB8A37Q46708645-3447C846-9184-482A-B153-74108E1BD0E1Q47618854-FA00DE55-26D2-49FF-BEA8-79681F6BA2BBQ47794431-E8EEEC0B-BB8A-4AF1-95BB-B4D6EF2A10FDQ50564674-17EEE876-5B5F-465C-B3D0-3326D8E4B6D7Q50619526-60012AEE-5FC8-43F9-93F8-3DB916AFF050Q51216216-EA4BDCBF-6C8D-4048-A631-64FE982D958FQ51427752-DCCC65BE-214A-4B8C-979A-D5BDDCEB6016Q52784609-0A313E38-C6CF-4BFE-94B6-66818E21D354Q55262150-4D91C948-64C7-4133-8A65-055011CC08CEQ55459406-7D813BB2-6F55-4739-9F0F-B69DF29F6D06Q57168122-498A6404-5C22-428E-902F-4BF67CE0B74CQ58266463-67E82B06-6D00-4B3A-8485-3C91CF370D96
P2860
Linking biomechanics and ecology through predator-prey interactions: flight performance of dragonflies and their prey.
description
2012 nî lūn-bûn
@nan
2012年の論文
@ja
2012年学术文章
@wuu
2012年学术文章
@zh
2012年学术文章
@zh-cn
2012年学术文章
@zh-hans
2012年学术文章
@zh-my
2012年学术文章
@zh-sg
2012年學術文章
@yue
2012年學術文章
@zh-hant
name
Linking biomechanics and ecolo ...... of dragonflies and their prey.
@en
Linking biomechanics and ecolo ...... of dragonflies and their prey.
@nl
type
label
Linking biomechanics and ecolo ...... of dragonflies and their prey.
@en
Linking biomechanics and ecolo ...... of dragonflies and their prey.
@nl
prefLabel
Linking biomechanics and ecolo ...... of dragonflies and their prey.
@en
Linking biomechanics and ecolo ...... of dragonflies and their prey.
@nl
P2093
P356
P1476
Linking biomechanics and ecolo ...... of dragonflies and their prey
@en
P2093
P304
P356
10.1242/JEB.059394
P577
2012-03-01T00:00:00Z