This paper develops a numerical model to examine the performance of the vibration energy harvester with one-rod (unimorph) of Iron-Gallium (Galfenol). The device\u27s principle of operation is based on inverse magnetostrictive effect of the Galfenol rod. In order to take into consideration the anisotropy of the Galfenol, the Armstrong model is employed that is implemented into a static 3-D finite element model (FEM) of the energy harvester. The predicted results from the numerical model are compared to the measured ones
We investigate a L-shaped vibrational energy harvesting device using magnetostrictive material (Galf...
The paper addresses the problem of vibration-to-electric energy conversion using magnetostrictive ma...
This paper summarizes and extends the modeling state of the art of magnetostrictive energy harvester...
This paper develops a numerical model to examine the performance of the vibration energy harvester w...
We propose a micro energy-harvesting device, using an iron-gallium alloy (Galfenol), capable of gene...
This paper presents the validation of a thermodynamic magneto-mechanical model to analyze a galfenol...
In this paper the novel design of Galfenol based vibration energy harvester is presented. The device...
This article presents the implementation of an equivalent stress model to analyze a Galfenol-based m...
Abstract The theoretical model of a Galfenol cantilever energy harvester is investigated for vibrati...
The field of harvesting electrical energy from ambient vibration has grown with rapid interest. Perp...
This paper utilizes a thermodynamic approach based on Helmholtz free energy density and a finite ele...
Galfenol traditional cantilever energy harvesters (TCEHs) have bigger electrical output only at reso...
The paper addresses the problem of vibration-to-electric energy conversion using magnetostrictive ma...
Magnetostrictive energy harvesting has drawn attention in recent years for its high energy conversio...
Vibration energy harvesting is becoming increasingly attractive in line with the development of wire...
We investigate a L-shaped vibrational energy harvesting device using magnetostrictive material (Galf...
The paper addresses the problem of vibration-to-electric energy conversion using magnetostrictive ma...
This paper summarizes and extends the modeling state of the art of magnetostrictive energy harvester...
This paper develops a numerical model to examine the performance of the vibration energy harvester w...
We propose a micro energy-harvesting device, using an iron-gallium alloy (Galfenol), capable of gene...
This paper presents the validation of a thermodynamic magneto-mechanical model to analyze a galfenol...
In this paper the novel design of Galfenol based vibration energy harvester is presented. The device...
This article presents the implementation of an equivalent stress model to analyze a Galfenol-based m...
Abstract The theoretical model of a Galfenol cantilever energy harvester is investigated for vibrati...
The field of harvesting electrical energy from ambient vibration has grown with rapid interest. Perp...
This paper utilizes a thermodynamic approach based on Helmholtz free energy density and a finite ele...
Galfenol traditional cantilever energy harvesters (TCEHs) have bigger electrical output only at reso...
The paper addresses the problem of vibration-to-electric energy conversion using magnetostrictive ma...
Magnetostrictive energy harvesting has drawn attention in recent years for its high energy conversio...
Vibration energy harvesting is becoming increasingly attractive in line with the development of wire...
We investigate a L-shaped vibrational energy harvesting device using magnetostrictive material (Galf...
The paper addresses the problem of vibration-to-electric energy conversion using magnetostrictive ma...
This paper summarizes and extends the modeling state of the art of magnetostrictive energy harvester...