Dynamic response of a sensor element made of magnetic hybrid elastomer with controllable properties

•Research on a magnetic hybrid elastomer (MHE) made of magnetically hard and soft particles.•Examination of the structure formation of the magnetic fillers in an elastic matrix.•Study of free bending vibrations of MHE beams controlled by a uniform magnetic field.•Identification of the deflection of...

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Published inJournal of magnetism and magnetic materials Vol. 449; pp. 77 - 82
Main Authors Becker, T.I., Zimmermann, K., Borin, D.Yu, Stepanov, G.V., Storozhenko, P.A.
Format Journal Article
LanguageEnglish
Published Amsterdam Elsevier B.V 01.03.2018
Elsevier BV
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Abstract •Research on a magnetic hybrid elastomer (MHE) made of magnetically hard and soft particles.•Examination of the structure formation of the magnetic fillers in an elastic matrix.•Study of free bending vibrations of MHE beams controlled by a uniform magnetic field.•Identification of the deflection of magnetised MHE beams by magnetic field distortion.•Magnetic-field controlled behaviour of MHEs can be used in systems with variable sensitivity. Smart materials like magnetic hybrid elastomers (MHEs) are based on an elastic composite with a complex hybrid filler of magnetically hard and soft particles. Due to their unique magnetic field depending characteristics, these elastomers offer great potential for designing sensor systems with a complex adaptive behaviour and operating sensitivity. The present paper deals with investigations of the material properties and motion behaviour displayed by synthesised MHE beams in the presence of a uniform magnetic field. The distribution and structure formation of the magnetic components inside the elastic matrix depending on the manufacturing conditions are examined. The specific magnetic features of the MHE material during the magnetising process are revealed. Experimental investigations of the in-plane free vibrational behaviour displayed by the MHE beams with the fixed-free end conditions are performed for various magnitudes of an imposed uniform magnetic field. For the samples pre-magnetised along the length axis, it is demonstrated that the deflection of the beam can be identified unambiguously by magnetic field distortion measurements. It is shown that the material properties of the vibrating MHE element can be specifically adjusted by means of an external magnetic field control. The dependence of the first eigenfrequency of free bending vibrations of the MHE beams on the strength of an imposed uniform magnetic field is obtained. The results are aimed to assess the potential of MHEs to design acceleration sensor systems with an adaptive magnetically controllable sensitivity range.
AbstractList Smart materials like magnetic hybrid elastomers (MHEs) are based on an elastic composite with a complex hybrid filler of magnetically hard and soft particles. Due to their unique magnetic field depending characteristics, these elastomers offer great potential for designing sensor systems with a complex adaptive behaviour and operating sensitivity. The present paper deals with investigations of the material properties and motion behaviour displayed by synthesised MHE beams in the presence of a uniform magnetic field. The distribution and structure formation of the magnetic components inside the elastic matrix depending on the manufacturing conditions are examined. The specific magnetic features of the MHE material during the magnetising process are revealed. Experimental investigations of the in-plane free vibrational behaviour displayed by the MHE beams with the fixed-free end conditions are performed for various magnitudes of an imposed uniform magnetic field. For the samples pre-magnetised along the length axis, it is demonstrated that the deflection of the beam can be identified unambiguously by magnetic field distortion measurements. It is shown that the material properties of the vibrating MHE element can be specifically adjusted by means of an external magnetic field control. The dependence of the first eigenfrequency of free bending vibrations of the MHE beams on the strength of an imposed uniform magnetic field is obtained. The results are aimed to assess the potential of MHEs to design acceleration sensor systems with an adaptive magnetically controllable sensitivity range.
•Research on a magnetic hybrid elastomer (MHE) made of magnetically hard and soft particles.•Examination of the structure formation of the magnetic fillers in an elastic matrix.•Study of free bending vibrations of MHE beams controlled by a uniform magnetic field.•Identification of the deflection of magnetised MHE beams by magnetic field distortion.•Magnetic-field controlled behaviour of MHEs can be used in systems with variable sensitivity. Smart materials like magnetic hybrid elastomers (MHEs) are based on an elastic composite with a complex hybrid filler of magnetically hard and soft particles. Due to their unique magnetic field depending characteristics, these elastomers offer great potential for designing sensor systems with a complex adaptive behaviour and operating sensitivity. The present paper deals with investigations of the material properties and motion behaviour displayed by synthesised MHE beams in the presence of a uniform magnetic field. The distribution and structure formation of the magnetic components inside the elastic matrix depending on the manufacturing conditions are examined. The specific magnetic features of the MHE material during the magnetising process are revealed. Experimental investigations of the in-plane free vibrational behaviour displayed by the MHE beams with the fixed-free end conditions are performed for various magnitudes of an imposed uniform magnetic field. For the samples pre-magnetised along the length axis, it is demonstrated that the deflection of the beam can be identified unambiguously by magnetic field distortion measurements. It is shown that the material properties of the vibrating MHE element can be specifically adjusted by means of an external magnetic field control. The dependence of the first eigenfrequency of free bending vibrations of the MHE beams on the strength of an imposed uniform magnetic field is obtained. The results are aimed to assess the potential of MHEs to design acceleration sensor systems with an adaptive magnetically controllable sensitivity range.
Author Stepanov, G.V.
Borin, D.Yu
Zimmermann, K.
Storozhenko, P.A.
Becker, T.I.
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Keywords Magnetic hybrid elastomer
Vibrating sensor element
Magneto-sensitive elastomer
Eigenfrequency
Magnetic properties
Bending vibrations
Language English
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Snippet •Research on a magnetic hybrid elastomer (MHE) made of magnetically hard and soft particles.•Examination of the structure formation of the magnetic fillers in...
Smart materials like magnetic hybrid elastomers (MHEs) are based on an elastic composite with a complex hybrid filler of magnetically hard and soft particles....
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SubjectTerms Adaptive systems
Beams (structural)
Bending vibrations
Dynamic response
Eigenfrequency
Elastomers
Magnetic fields
Magnetic hybrid elastomer
Magnetic properties
Magneto-sensitive elastomer
Sensitivity
Sensors
Smart materials
Stability
Studies
Vibrating sensor element
Title Dynamic response of a sensor element made of magnetic hybrid elastomer with controllable properties
URI https://dx.doi.org/10.1016/j.jmmm.2017.09.081
https://www.proquest.com/docview/1990446969/abstract/
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