Design, fabrication and characterization of micro flow sensor were investigated based on the inspiration of biological hair cell in a nature. The micro scale artificial hair cell sensor was designed as considering two parts; first the high aspect ratio cilium structure which works as a hair cell of fish and second the mechanoreceptor structure where the drag force by flow are actually measured. Parameters of cilium structure were designed based on static modelling as follow: 300 mu m diameter and 2 mm height. The high aspect ratio cilium structure was precisely fabricated using a hot embossing process with the developed separated micro mold system prepared by LIGA (from the German Lithographi, Galvanoformung, Abformung) process. The mechano...
Biologically inspired sensor-designs are investigated as a possible path to surpass the performance ...
In nature, there exist numerous and diverse, highly sensitive and well-evolved biological hair cell ...
We seek to harness microelectromechanical systems (MEMS) technologies to build biomimetic devices fo...
MasterThe aim of this work is to design and fabricate a flow sensor using an artificial hair cell (A...
This thesis describes the attempt to design and fabricate flow sensors based on the function of sens...
Using biological sensors, aquatic animals like fishes are capable of performing impressive behaviour...
We report the development of a new class of miniature all-polymer flow sensors that closely mimic th...
Abstract—Nature and biology utilize a myriad of structures, materials, and schemes to achieve superb...
980-986This paper demonstrates the modeling of the biomimetic flow sensor based artificial hair cel...
This article uses finite volume and finite element methods for optimization of the artificial hair c...
The paper reports the development of biomimetic haircell sensors inspired by the neuromast sensors p...
We report the development of a new class of miniature all-polymer flow sensors that closely mimic th...
We report the development of a new class of miniature all-polymer flow sensors that closely mimic th...
Hair cells are ubiquitous in nature. These natural and efficient mechanoreceptors are exploited as e...
We present the fabrication of an artificial MEMS hair bundle sensor designed to approximate the stru...
Biologically inspired sensor-designs are investigated as a possible path to surpass the performance ...
In nature, there exist numerous and diverse, highly sensitive and well-evolved biological hair cell ...
We seek to harness microelectromechanical systems (MEMS) technologies to build biomimetic devices fo...
MasterThe aim of this work is to design and fabricate a flow sensor using an artificial hair cell (A...
This thesis describes the attempt to design and fabricate flow sensors based on the function of sens...
Using biological sensors, aquatic animals like fishes are capable of performing impressive behaviour...
We report the development of a new class of miniature all-polymer flow sensors that closely mimic th...
Abstract—Nature and biology utilize a myriad of structures, materials, and schemes to achieve superb...
980-986This paper demonstrates the modeling of the biomimetic flow sensor based artificial hair cel...
This article uses finite volume and finite element methods for optimization of the artificial hair c...
The paper reports the development of biomimetic haircell sensors inspired by the neuromast sensors p...
We report the development of a new class of miniature all-polymer flow sensors that closely mimic th...
We report the development of a new class of miniature all-polymer flow sensors that closely mimic th...
Hair cells are ubiquitous in nature. These natural and efficient mechanoreceptors are exploited as e...
We present the fabrication of an artificial MEMS hair bundle sensor designed to approximate the stru...
Biologically inspired sensor-designs are investigated as a possible path to surpass the performance ...
In nature, there exist numerous and diverse, highly sensitive and well-evolved biological hair cell ...
We seek to harness microelectromechanical systems (MEMS) technologies to build biomimetic devices fo...