This paper presents the latest investigations of thin film sensor developments based on amorphous hydrogenated carbon films. The piezo resistive layer is deposited in a plasma enhanced chemical vapour deposition process in a thickness of 4-6 m. The advantage of this film is a excellent tribological behaviour with a hardness of 20-40 GPa and a coefficient of friction of 0,2 as it is well known from the diamond like carbon layers combined with a piezo resistive characteristic. This layer can detect loads without the need of elongation. A special sensor system in the shape of a washer can be easily integrated in screw joints to detect the normal load distribution
Commercial load sensor technology is based on strain gauges or piezoelectrical materials like quarz ...
DE 19954164 A UPAB: 20010809 NOVELTY - Use of an amorphous carbon layer with piezo-resistive propert...
The two most important measurement categories in production are temperature and load. Therefore comm...
The main part of the sensor system is an amorphous hydrogenated carbon layer, deposited in a plasma ...
For optimizing the quality of production processes the integration of thin film sensors in high load...
Thin film sensor systems based on hydrogenated carbon have the advantage to combine two very importa...
This paper deals with novel thin film sensors for measurement of load and temperature in adaptronic ...
Amorphous diamond-like carbon films are well known for their excellent tribological properties. In t...
This paper deals with the static and dynamic characterisation of novel piezo resisitive diamond like...
The investigation of a novel sensor system, integrated in the main load region of forming machines, ...
The investigation of a novel sensor system, integrated in the main load region of forming machines, ...
This paper deals with the preparation and investigation of nano structured diamond-like-carbon films...
Commercial load sensor technology is based on strain gauges or piezoelectrical materials like quarz ...
In this contribution amorphous carbon (a-C) films are integrated as strain gauges in micromachined s...
Amorphous carbon thin films also named diamond-like-carbon (DLC) are well known for their hardness, ...
Commercial load sensor technology is based on strain gauges or piezoelectrical materials like quarz ...
DE 19954164 A UPAB: 20010809 NOVELTY - Use of an amorphous carbon layer with piezo-resistive propert...
The two most important measurement categories in production are temperature and load. Therefore comm...
The main part of the sensor system is an amorphous hydrogenated carbon layer, deposited in a plasma ...
For optimizing the quality of production processes the integration of thin film sensors in high load...
Thin film sensor systems based on hydrogenated carbon have the advantage to combine two very importa...
This paper deals with novel thin film sensors for measurement of load and temperature in adaptronic ...
Amorphous diamond-like carbon films are well known for their excellent tribological properties. In t...
This paper deals with the static and dynamic characterisation of novel piezo resisitive diamond like...
The investigation of a novel sensor system, integrated in the main load region of forming machines, ...
The investigation of a novel sensor system, integrated in the main load region of forming machines, ...
This paper deals with the preparation and investigation of nano structured diamond-like-carbon films...
Commercial load sensor technology is based on strain gauges or piezoelectrical materials like quarz ...
In this contribution amorphous carbon (a-C) films are integrated as strain gauges in micromachined s...
Amorphous carbon thin films also named diamond-like-carbon (DLC) are well known for their hardness, ...
Commercial load sensor technology is based on strain gauges or piezoelectrical materials like quarz ...
DE 19954164 A UPAB: 20010809 NOVELTY - Use of an amorphous carbon layer with piezo-resistive propert...
The two most important measurement categories in production are temperature and load. Therefore comm...