Bioinspired Mechanisms and Sensorimotor Schemes for Flying: A Preliminary Study for a Robotic Bat

@inproceedings{Recchiuto2014BioinspiredMA,
  title={Bioinspired Mechanisms and Sensorimotor Schemes for Flying: A Preliminary Study for a Robotic Bat},
  author={Carmine Tommaso Recchiuto and Rezia Molfino and Anders Hedenstr{\"o}em and Herbert Peremans and Vittorio Cipolla and Aldo Frediani and Emanuele Rizzo and Giovanni Gerardo Muscolo},
  booktitle={TAROS},
  year={2014}
}
The authors present a critical review on flying motion and echolocation in robotics, directly derived from research on biology and flight mechanics of bats, aimed at designing and prototyping a new generation of robotic technologies. 
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References

SHOWING 1-10 OF 38 REFERENCES
From Swimming to Walking with a Salamander Robot Driven by a Spinal Cord Model
TLDR
A spinal cord model and its implementation in an amphibious salamander robot is presented that demonstrates how a primitive neural circuit for swimming can be extended by phylogenetically more recent limb oscillatory centers to explain the ability of salamanders to switch between swimming and walking.
From sensorimotor development to object perception
TLDR
A developmental sequence that allows a humanoid robot to learn about the shape of its body and successively about certain parts of the environment to improve its motor and perceptual skills by first constructing a "body-schema" and later by learning about objects.
Biorobotics: Methods and Applications
TLDR
This book unites scientists from diverse disciplines who are using biorobots to probe animal behavior and brain function and describes the sensory systems of bIORobotic crickets, lobsters, and ants and the visual system of flies.
Morphological computation for adaptive behavior and cognition
Biomechanics of morphing wings in a Bat-robot actuated by SMA muscles
Bats exhibit extraordinary flight capabilities that arise by virtue of a variety of unique mechanical features. These flying mammals have developed powerful muscles that provide the folding and
Learning Sensory-Motor Maps for Redundant Robots
TLDR
This work presents a solution to the problem of learning the forward/backward model, when the map is not injective, as in redundant robots, and proposes the use of a "minimum order SMM" that takes the desired image configuration and the DORs as input variables, while the non-redundant DOFs are viewed as outputs.
Early integration of vision and manipulation
  • G. Metta, P. Fitzpatrick
  • Psychology
    Proceedings of the International Joint Conference on Neural Networks, 2003.
  • 2003
TLDR
It is argued that following causal chains of events out from the robot's body into the environment allows for a very natural developmental progression of visual competence, and relates this idea to results in neuroscience.
Better Vision through Manipulation
TLDR
It is argued that following causal chains of events out from the robot's body into the environment allows for a very natural developmental progression of visual competence, and this idea is related to results in neuroscience.
Biomechanics of smart wings in a bat robot: morphing wings using SMA actuators.
TLDR
NiTi shape memory alloys acting as artificial biceps and triceps muscles are used for mimicking the morphing wing mechanism of the bat flight apparatus to implement a control architecture that allows an accurate and fast SMA actuation.
A Comparison between Two Force-Position Controllers with Gravity Compensation Simulated on a Humanoid Arm
TLDR
A comparison between two force-position controllers with gravity compensation simulated on the DEXTER bioinspired robotic arm shows that by varying the stiffness of the environment, with a correct setting of parameters, both systems ensure the achievement of the desired force regime and with great precision the desired position.
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