We present a biomimetic angular acceleration sensor inspired by the vestibular system, as found e.g. in mammals and fish. The sensor consist of a fluid filled circular channel. When exposed to angular accelerations the fluid flows relative to the channel. Read-out is based on electromagnetic flow sensing (pseudo Hall effect). The sensor is made out of two 3D printed parts which, when put together, form a channel and which allow for easy mounting of permanent magnets and electrodes to measure the flow induced potential difference. Experiments indeed show an acceleration dependent output voltage. However, we find strong contributions from other than electromagnetic sources which, due to their nature and magnitude, are interesting for further ...
In the area of biomimetics, engineers use inspiration from natural systems to develop technical devi...
In biology, mechanosensors, equipped with differing hair-like structures for signal pick-up, are sen...
To study the sensing process of the human semicircular canals (HSCs) during head rotation, which is ...
Abstract—We present a biomimetic angular acceleration sensor inspired by the vestibular system, as f...
International audienceIn this paper, we introduce the development of a bio-inspired system that mimi...
We report on an angular accelerometer based on the semicircular channels of the vestibular system. T...
This paper presents an alternative approach for angular-rate sensing based on the way that the natur...
Flow sensors inspired from lateral line neuromasts of cavefish have been widely investigated over de...
Flow sensors inspired from lateral line neuromasts of cavefish have been widely investigat...
Crickets use so-called clavate hairs to sense (gravitational) acceleration to obtain information on ...
Evolution bestowed the blind cavefish with a resourcefully designed lateral-line of sensors that pla...
Background: Flow stimuli in the natural world are varied and contain a wide variety of directional i...
With increasing attention on the world’s oceans, a significant amount of research has been focused o...
We present the design, fabrication and testing of a novel all-optical 2D flow velocity sensor, inspi...
In biology, hair-based sensor systems are used regularly for measurement of physical quantities like...
In the area of biomimetics, engineers use inspiration from natural systems to develop technical devi...
In biology, mechanosensors, equipped with differing hair-like structures for signal pick-up, are sen...
To study the sensing process of the human semicircular canals (HSCs) during head rotation, which is ...
Abstract—We present a biomimetic angular acceleration sensor inspired by the vestibular system, as f...
International audienceIn this paper, we introduce the development of a bio-inspired system that mimi...
We report on an angular accelerometer based on the semicircular channels of the vestibular system. T...
This paper presents an alternative approach for angular-rate sensing based on the way that the natur...
Flow sensors inspired from lateral line neuromasts of cavefish have been widely investigated over de...
Flow sensors inspired from lateral line neuromasts of cavefish have been widely investigat...
Crickets use so-called clavate hairs to sense (gravitational) acceleration to obtain information on ...
Evolution bestowed the blind cavefish with a resourcefully designed lateral-line of sensors that pla...
Background: Flow stimuli in the natural world are varied and contain a wide variety of directional i...
With increasing attention on the world’s oceans, a significant amount of research has been focused o...
We present the design, fabrication and testing of a novel all-optical 2D flow velocity sensor, inspi...
In biology, hair-based sensor systems are used regularly for measurement of physical quantities like...
In the area of biomimetics, engineers use inspiration from natural systems to develop technical devi...
In biology, mechanosensors, equipped with differing hair-like structures for signal pick-up, are sen...
To study the sensing process of the human semicircular canals (HSCs) during head rotation, which is ...