Sensor drift is a phenomenon which indicates unexpected variations in the sensory signal responses beneath the same working conditions. In this paper, a competitive co-evolutionary (ComCoE) Multilayer Perceptron artificial neural network (MLPN) is applied to detect chemical gas sensor drift. The efficiency of the ComCoE MLPN in detecting chemical gas sensor drift is evaluated as well as compared with the performance of other classification methods from the literature. The proposed ComCoE MLPN has shown promising preliminary results in this applicatio
Due to the lack in selectivity and separability of most common gas sensors, the use of sensor arrays...
Thanks to their high sensitivity and low-cost, metal oxide gas sensors (MOX) are widely used in gas ...
An array of commercial gas sensors and nanotechnology sensors has been integrated to quantify gas co...
In this paper, a new mSom neural network methodology has been developed and applied to improve the c...
International audienceArtificial olfaction systems; which mimic human olfaction by using arrays of g...
AbstractThe observations of natural olfaction led to the evidence that the processing of olfactory r...
Gas chemical sensors are strongly affected by drift, i.e., changes in sensors' response with time, t...
During the last years the application of Artificial Neural networks (ANN) has proved to be a model i...
The drift of metal oxide semiconductor (MOX) chemical sensors is one of the most important topics in...
Despite their advantages regarding production costs and flexibility, chemiresistive gas sensors ofte...
In this study, a comparative study was performed for the quantitative identification of individual g...
The applied chemical sensor research focuses on sensor arrays and signal evaluation methods, to impr...
Multivariate statistics is the standard instrument to analyze the data of chemical sensor arrays. Ho...
Gas sensors are present in almost every environmental monitoring application. They can be realized u...
Artificial neural networks (ANNs) are generally considered as the most promising pattern recognition...
Due to the lack in selectivity and separability of most common gas sensors, the use of sensor arrays...
Thanks to their high sensitivity and low-cost, metal oxide gas sensors (MOX) are widely used in gas ...
An array of commercial gas sensors and nanotechnology sensors has been integrated to quantify gas co...
In this paper, a new mSom neural network methodology has been developed and applied to improve the c...
International audienceArtificial olfaction systems; which mimic human olfaction by using arrays of g...
AbstractThe observations of natural olfaction led to the evidence that the processing of olfactory r...
Gas chemical sensors are strongly affected by drift, i.e., changes in sensors' response with time, t...
During the last years the application of Artificial Neural networks (ANN) has proved to be a model i...
The drift of metal oxide semiconductor (MOX) chemical sensors is one of the most important topics in...
Despite their advantages regarding production costs and flexibility, chemiresistive gas sensors ofte...
In this study, a comparative study was performed for the quantitative identification of individual g...
The applied chemical sensor research focuses on sensor arrays and signal evaluation methods, to impr...
Multivariate statistics is the standard instrument to analyze the data of chemical sensor arrays. Ho...
Gas sensors are present in almost every environmental monitoring application. They can be realized u...
Artificial neural networks (ANNs) are generally considered as the most promising pattern recognition...
Due to the lack in selectivity and separability of most common gas sensors, the use of sensor arrays...
Thanks to their high sensitivity and low-cost, metal oxide gas sensors (MOX) are widely used in gas ...
An array of commercial gas sensors and nanotechnology sensors has been integrated to quantify gas co...