This work reports the rubber electrostatic potential due to repeated strain as a function of time for periods as long as the lifetime of the sample. Rubber potential depends on two main contributions: hygroelectricity added to the mechanochemical reactions evidenced by spectroscopy and microscopy/microanalytical experiments. Hygroelectricity produces fast periodic charging in phase with rubber strain, while a slower charging process is assigned to the mechanochemical reaction products, in conjunction with residual hygroelectricity. This result explains the significant negative potential displayed by rubber over long periods in the absence of any external applied voltage. These findings may contribute to improving dielectric elastomer perfor...
Objectives. The main indicator that determines electrical conductivity of rubbers is specific volume...
The idea that a solid material can deform when stimulated by electricity originated in the late-18th...
The transient response of elastomeric polymers is dependent on polymer composition, temperature and ...
This work describes the conversion of mechanical energy to electricity, by periodically stretching r...
Rubber materials play an important role in robotics, due to their sensing and actuating abilities, t...
Studies addressing electroconductive composites based on rubber have attracted great interest for ma...
This paper deals with the problem of measuring the dielectric properties of rubber under various con...
This paper compares the performance of commercially available membranes made of styrenic rubber, nat...
Natural rubber has a good potential to be used as a material for the development of wave energy conv...
Rubber was produced by placing rubber latex between two electrodes between which an external voltage...
Electroactive polymers known as dielectric elastomers have shown considerable promise for transducer...
Recently, soft robots have attracted considerable attention; however, they often undergo large defor...
Dielectric Elastomer Transducers (DETs) are solid-state electrostatic devices with variable capacita...
Dielectric Elastomers (DE) are incompressible polymeric solids that experience finite elastic deform...
Objectives. The main indicator that determines electrical conductivity of rubbers is specific volume...
The idea that a solid material can deform when stimulated by electricity originated in the late-18th...
The transient response of elastomeric polymers is dependent on polymer composition, temperature and ...
This work describes the conversion of mechanical energy to electricity, by periodically stretching r...
Rubber materials play an important role in robotics, due to their sensing and actuating abilities, t...
Studies addressing electroconductive composites based on rubber have attracted great interest for ma...
This paper deals with the problem of measuring the dielectric properties of rubber under various con...
This paper compares the performance of commercially available membranes made of styrenic rubber, nat...
Natural rubber has a good potential to be used as a material for the development of wave energy conv...
Rubber was produced by placing rubber latex between two electrodes between which an external voltage...
Electroactive polymers known as dielectric elastomers have shown considerable promise for transducer...
Recently, soft robots have attracted considerable attention; however, they often undergo large defor...
Dielectric Elastomer Transducers (DETs) are solid-state electrostatic devices with variable capacita...
Dielectric Elastomers (DE) are incompressible polymeric solids that experience finite elastic deform...
Objectives. The main indicator that determines electrical conductivity of rubbers is specific volume...
The idea that a solid material can deform when stimulated by electricity originated in the late-18th...
The transient response of elastomeric polymers is dependent on polymer composition, temperature and ...