This work reports the fabrication of a titanium carbide nanoparticle-based inkjet printed flexible bidirectional flow sensor. The design of the flow sensor consists of an inkjet printed titanium carbide piezoresistive strain gauge on a polyester cantilever. The sensors demonstrated a normalized flow sensitivity of 1.043/(ms-1) in the velocity range ~ 0.15 – 0.55 m/s (for water flow). The fabrication method reported in this work potentially opens a new direction for fabrication of a class of robust, repeatable, and inexpensive flexible flow sensors
The rapid prototyping of low-cost sensors is assuming strategic importance in several application fi...
We present an investigation of inkjet printed strain gauges based on two-dimensional (2D) materials....
In the past few years, inkjet printing has been emerging as a cost effective, environment friendly, ...
This work reports the fabrication of a titanium carbide nanoparticle-based inkjet printed flexible b...
This paper reports the fabrication and characterization of a flexible piezoresistive flow sensor com...
Inkjet printing is a promising low-cost fabrication technique capable of depositing functional mater...
The research aims to the development of sensors for strain measurements using inkjet technology for ...
This dissertation demonstrates how to fabricate piezoelectric/pyroelectric thin films by using diffe...
Inkjet-printing technology enables the contactless deposition of functional materials such as conduc...
A resistive sensor for strain measurements that uses inkjet technology for biomedical applications h...
This contribution deals with preparation of functional interdigited flexible sensors for room temper...
Inkjet printing has emerged as a powerful method to fabricate two- and three-dimensional structures....
In order to build upon the exceptional interest for flexible sensors based on carbon nanotube networ...
This research focuses on developing sensors for properties of aerodynamic interest (i.e., flow and p...
Strain sensors with different architectures such as single sensors, sensor array and matrix have bee...
The rapid prototyping of low-cost sensors is assuming strategic importance in several application fi...
We present an investigation of inkjet printed strain gauges based on two-dimensional (2D) materials....
In the past few years, inkjet printing has been emerging as a cost effective, environment friendly, ...
This work reports the fabrication of a titanium carbide nanoparticle-based inkjet printed flexible b...
This paper reports the fabrication and characterization of a flexible piezoresistive flow sensor com...
Inkjet printing is a promising low-cost fabrication technique capable of depositing functional mater...
The research aims to the development of sensors for strain measurements using inkjet technology for ...
This dissertation demonstrates how to fabricate piezoelectric/pyroelectric thin films by using diffe...
Inkjet-printing technology enables the contactless deposition of functional materials such as conduc...
A resistive sensor for strain measurements that uses inkjet technology for biomedical applications h...
This contribution deals with preparation of functional interdigited flexible sensors for room temper...
Inkjet printing has emerged as a powerful method to fabricate two- and three-dimensional structures....
In order to build upon the exceptional interest for flexible sensors based on carbon nanotube networ...
This research focuses on developing sensors for properties of aerodynamic interest (i.e., flow and p...
Strain sensors with different architectures such as single sensors, sensor array and matrix have bee...
The rapid prototyping of low-cost sensors is assuming strategic importance in several application fi...
We present an investigation of inkjet printed strain gauges based on two-dimensional (2D) materials....
In the past few years, inkjet printing has been emerging as a cost effective, environment friendly, ...