Neuromast sensors found in fishes detect flows around their body and are known to generate hydrodynamic awareness. This work reports the development of superficial neuromast (SN) and canal neuromast (CN) inspired MEMS flow sensors. The MEMS artificial neuromast sensors mimic the key features of the SN and the CN such as the shape and the mechanical properties of the cupula. In case of both SN and CN MEMS sensors, hydrogels with varying initiator concentrations were used to replicate the Young’s modulus of the biological cupula. The MEMS SN and CN sensors were experimentally characterized in steady-state and oscillatory flows respectively
In this work, we present the development and experimental testing of two types of bio-inspired MEMS ...
Biological sensory systems often display great performance, inspiring engineers to develop artificia...
Flexible, self-powered, miniaturized, ultrasensitive flow sensors are in high demand for human motio...
Neuromast sensors found in fishes detect flows around their body and are known to generate hydrodyna...
Evolution bestowed the blind cavefish with a resourcefully designed lateral-line of sensors that pla...
Blind cavefishes are known to detect objects through hydrodynamic vision enabled by arrays of biolog...
We present the development and testing of superficial neuromast-inspired flow sensors that also atta...
We present the design, fabrication and testing of a novel all-optical 2D flow velocity sensor, inspi...
Fish sense water motions with their lateral line. The lateral line is a sensory system that contains...
Flow sensors inspired from lateral line neuromasts of cavefish have been widely investigated over de...
In the area of biomimetics, engineers use inspiration from natural systems to develop technical devi...
Flow sensors inspired from lateral line neuromasts of cavefish have been widely investigat...
Using biological sensors, aquatic animals like fishes are capable of performing impressive behaviour...
The paper reports the development of biomimetic haircell sensors inspired by the neuromast sensors p...
In fish the lateral line is a sensory organ used to perceive water movement in the surrounding envir...
In this work, we present the development and experimental testing of two types of bio-inspired MEMS ...
Biological sensory systems often display great performance, inspiring engineers to develop artificia...
Flexible, self-powered, miniaturized, ultrasensitive flow sensors are in high demand for human motio...
Neuromast sensors found in fishes detect flows around their body and are known to generate hydrodyna...
Evolution bestowed the blind cavefish with a resourcefully designed lateral-line of sensors that pla...
Blind cavefishes are known to detect objects through hydrodynamic vision enabled by arrays of biolog...
We present the development and testing of superficial neuromast-inspired flow sensors that also atta...
We present the design, fabrication and testing of a novel all-optical 2D flow velocity sensor, inspi...
Fish sense water motions with their lateral line. The lateral line is a sensory system that contains...
Flow sensors inspired from lateral line neuromasts of cavefish have been widely investigated over de...
In the area of biomimetics, engineers use inspiration from natural systems to develop technical devi...
Flow sensors inspired from lateral line neuromasts of cavefish have been widely investigat...
Using biological sensors, aquatic animals like fishes are capable of performing impressive behaviour...
The paper reports the development of biomimetic haircell sensors inspired by the neuromast sensors p...
In fish the lateral line is a sensory organ used to perceive water movement in the surrounding envir...
In this work, we present the development and experimental testing of two types of bio-inspired MEMS ...
Biological sensory systems often display great performance, inspiring engineers to develop artificia...
Flexible, self-powered, miniaturized, ultrasensitive flow sensors are in high demand for human motio...