abstract: Basilisk lizards are often studied for their unique ability to run across the surface of water. Due to the complicated fluid dynamics of this process, the forces applied on the water’s surface cannot be measured using traditional methods. This thesis presents a novel technique of measuring the forces using a fluid dynamic force platform (FDFP), a light, rigid box immersed in water. This platform, along with a motion capture system, can be used to characterize the kinematics and dynamics of a basilisk lizard running on water. This could ultimately lead to robots that can run on water in a similar manner.Dissertation/ThesisMasters Thesis Mechanical Engineering 201
Understanding animal locomotion requires modeling the interaction of the organism with its environme...
ABSTRACT Few vertebrates run on water. The largest animals to accomplish this feat are western and C...
AbstractThe extraordinary climbing skills of gecko lizards have been under investigation for a long ...
abstract: Current robotic systems have difficulties traversing and interacting with complex and defo...
Water provides a unique challenge for legged locomotion because it readily yields to any applied for...
abstract: The Basilisk lizard is known for its agile locomotion capabilities on granular and aquatic...
Abstract — This paper introduces a novel robot which can run on the surface of water in a manner sim...
The Basilisk Lizard’s striking ability to sustain highly dynamic legged locomotion on a range of sur...
Access to thesis restricted until 07/2025.Successful locomotion is essential for an animal’s surviva...
Recently, various kinds of biomimetic robots have been studied. Among these biomimetic robots, water...
The locomotion of organisms whether by running, flying, or swimming is the result of multiple degree...
Abstract: This study describes the amphibious study of a novel robot, which attempts to emulate the ...
air–water interface, unsteady flow, biomechanics, running on water. (983). However, without a fundam...
In nature, salamanders adapted to terrestrial and aquatic environments as well as varying substrate ...
Many outstanding questions about the evolution and function of fish morphology are linked to swimmin...
Understanding animal locomotion requires modeling the interaction of the organism with its environme...
ABSTRACT Few vertebrates run on water. The largest animals to accomplish this feat are western and C...
AbstractThe extraordinary climbing skills of gecko lizards have been under investigation for a long ...
abstract: Current robotic systems have difficulties traversing and interacting with complex and defo...
Water provides a unique challenge for legged locomotion because it readily yields to any applied for...
abstract: The Basilisk lizard is known for its agile locomotion capabilities on granular and aquatic...
Abstract — This paper introduces a novel robot which can run on the surface of water in a manner sim...
The Basilisk Lizard’s striking ability to sustain highly dynamic legged locomotion on a range of sur...
Access to thesis restricted until 07/2025.Successful locomotion is essential for an animal’s surviva...
Recently, various kinds of biomimetic robots have been studied. Among these biomimetic robots, water...
The locomotion of organisms whether by running, flying, or swimming is the result of multiple degree...
Abstract: This study describes the amphibious study of a novel robot, which attempts to emulate the ...
air–water interface, unsteady flow, biomechanics, running on water. (983). However, without a fundam...
In nature, salamanders adapted to terrestrial and aquatic environments as well as varying substrate ...
Many outstanding questions about the evolution and function of fish morphology are linked to swimmin...
Understanding animal locomotion requires modeling the interaction of the organism with its environme...
ABSTRACT Few vertebrates run on water. The largest animals to accomplish this feat are western and C...
AbstractThe extraordinary climbing skills of gecko lizards have been under investigation for a long ...