The effect of ferrite fraction, in 0.17-0.8 wt{\%} C steels with ferrite-pearlite microstructures, on multi-frequency electromagnetic (EM) sensor readings has been studied. The measured initial relative permeability values agreed well with finite element microstructure model predictions. The EM sensor low frequency inductance value is sensitive to changes in relative permeability and the sensor can measure ferrite fraction in dual-phase steels. Therefore, EM sensors could be used to assess dual-phase (ferrite+pearlite/bainite/martensite) steel microstructures in a non-contact, non-destructive manner. {\textcopyright} 2014 Elsevier Ltd
This paper presents results from a multi-frequency electromagnetic sensor used to characterize the m...
Phase composition is dominant in determining mechanical properties of carbon steels therefore is one...
The mechanical properties of steel are strongly influenced by its microstructural features such as p...
The effect of ferrite fraction, in 0.17-0.8 wt{\%} C steels with ferrite-pearlite microstructures, o...
AbstractThe effect of ferrite fraction, in 0.17–0.8wt% C steels with ferrite–pearlite microstructure...
The link between the electromagnetic properties of steel and its microstructure is a complex one, de...
Steel properties are controlled by its microstructural parameters, such as grain size, phase balanc...
In an accompanying paper being presented in NDESAI, the utility of Multifrequency electromagnetic ...
It is desirable to be able to non-destructively evaluate the microstructural features and/or mechani...
The magnetic properties of steels are sensitive to temperature and currently the only way to determi...
An electromagnetic (EM) sensor, capable of detecting the formation of ferromagnetic ferrite from par...
This paper presents results from a multi-frequency electromagnetic (EM) sensor used to cha...
This paper presents results from a multi-frequency electromagnetic sensor used to evaluate the micro...
An industrial-scale electromagnetic (EM) sensor is employed to non-destructively and dynamically mon...
The characterization of steel microstructures is an important tool for metallurgists as mechanical...
This paper presents results from a multi-frequency electromagnetic sensor used to characterize the m...
Phase composition is dominant in determining mechanical properties of carbon steels therefore is one...
The mechanical properties of steel are strongly influenced by its microstructural features such as p...
The effect of ferrite fraction, in 0.17-0.8 wt{\%} C steels with ferrite-pearlite microstructures, o...
AbstractThe effect of ferrite fraction, in 0.17–0.8wt% C steels with ferrite–pearlite microstructure...
The link between the electromagnetic properties of steel and its microstructure is a complex one, de...
Steel properties are controlled by its microstructural parameters, such as grain size, phase balanc...
In an accompanying paper being presented in NDESAI, the utility of Multifrequency electromagnetic ...
It is desirable to be able to non-destructively evaluate the microstructural features and/or mechani...
The magnetic properties of steels are sensitive to temperature and currently the only way to determi...
An electromagnetic (EM) sensor, capable of detecting the formation of ferromagnetic ferrite from par...
This paper presents results from a multi-frequency electromagnetic (EM) sensor used to cha...
This paper presents results from a multi-frequency electromagnetic sensor used to evaluate the micro...
An industrial-scale electromagnetic (EM) sensor is employed to non-destructively and dynamically mon...
The characterization of steel microstructures is an important tool for metallurgists as mechanical...
This paper presents results from a multi-frequency electromagnetic sensor used to characterize the m...
Phase composition is dominant in determining mechanical properties of carbon steels therefore is one...
The mechanical properties of steel are strongly influenced by its microstructural features such as p...