Table 1.
Category | Animal | Anatomical Structures | Anatomical Advantages | Engineering Application | References |
---|---|---|---|---|---|
Flying | Birds | Limbs and feathers | The forces of lift, thrust, drag, and gravity influence the flight patterns of birds | Flapping UAVs | [7] |
Owls | Feathers | Fly silently and help to absorb aerodynamic sound and suppress vibrations when waves of sound come crushing over the wing | UAVs Wind turbines |
[7] | |
Wild geese | Wings | Ascending air current with less effort | AIRBUS | [8] | |
Insects (dragonfly) |
Multiple wings and legs | Pressure gradients for lift and thrust by flapping | small UAVs (micro aerial vehicles) | [9] | |
Flapping wings | Wake capture occurs when wings change direction | Biomimetic MAV | [10] | ||
Insects (mosquito) |
Flapping wing and membrane wing | Flaps at a moderately high frequency relative to similar insects | Miniature unmanned autonomous (robots) | [11] | |
Bats | Limbs | The membrane of skin that stretches between arms and legs helps to produce lift | small UAVs (micro aerial vehicles) | [9,12,13] | |
Aquatic | Whale | Flipper (Tubercles effect) |
Tubercles on the leading edge produce greater lift and less drag than a smooth surface fin | small UAVs (micro aerial vehicles) | [14,15,16,17,18,19] |
Tuna | Median fins | Hydrofoils produce sideways lift force when the fin plane is at an angle with the fluid flow direction | Autonomous underwater vehicles | [20,21] |