This paper presents a multi-order parametric resonant MEMS piezoelectric disk membrane, for the purpose of broadening the operational frequency bandwidth of a vibration energy harvester by employing the nonlinearity-induced bandwidth broadening associated with this phenomenon as well as the multi-frequency response associated with the higher orders. The fundamental mode -3dB bandwidth at 2.0 g recorded 55 Hz, while the first parametric resonant peak exhibited 365 Hz and the -3dB of the first 8 orders accumulated to 604 Hz. The membrane parametric resonator also experimentally demonstrated over 3-folds improvement in power density compared to a conventional direct resonator (cantilever), when subjected to band-limited white noise
In the arena of vibration energy harvesting, the key technical challenges continue to be low power d...
This paper reports for the first time the achievement of autoparametric resonance in a piezoelectric...
Abstract—A piezoelectric MEMS energy harvester (EH) with low resonant frequency and wide operation b...
This paper presents a multi-order parametric resonant MEMS piezoelectric disk membrane, for the purp...
This paper contends to be the first to report the experimental observation of up to 28 orders of par...
The mechanical amplification effect of parametric resonance has the potential to outperform direct r...
Most MEMS piezoelectric vibration energy harvesters involve either cantilever-based topologies, doub...
The mechanical amplification effect of parametric resonance has the potential to outperform direct r...
Resonant-based vibration harvesters have conventionally relied upon accessing the fundamental mode o...
This study proposes a multi-frequency response piecewise-linear piezoelectric vibration energy harve...
Resonant-based vibration harvesters have conventionally relied upon accessing the fundamental mode o...
In this work, we discuss a novel mechanical resonator design for the realization of vibration Energy...
The overwhelming majority of microelectromechanical piezoelectric vibration energy harvesting topolo...
The mechanical amplification effect of parametric resonance has the potential to outperform direct r...
In the arena of vibration energy harvesting, the key technical challenges continue to be low power d...
This paper reports for the first time the achievement of autoparametric resonance in a piezoelectric...
Abstract—A piezoelectric MEMS energy harvester (EH) with low resonant frequency and wide operation b...
This paper presents a multi-order parametric resonant MEMS piezoelectric disk membrane, for the purp...
This paper contends to be the first to report the experimental observation of up to 28 orders of par...
The mechanical amplification effect of parametric resonance has the potential to outperform direct r...
Most MEMS piezoelectric vibration energy harvesters involve either cantilever-based topologies, doub...
The mechanical amplification effect of parametric resonance has the potential to outperform direct r...
Resonant-based vibration harvesters have conventionally relied upon accessing the fundamental mode o...
This study proposes a multi-frequency response piecewise-linear piezoelectric vibration energy harve...
Resonant-based vibration harvesters have conventionally relied upon accessing the fundamental mode o...
In this work, we discuss a novel mechanical resonator design for the realization of vibration Energy...
The overwhelming majority of microelectromechanical piezoelectric vibration energy harvesting topolo...
The mechanical amplification effect of parametric resonance has the potential to outperform direct r...
In the arena of vibration energy harvesting, the key technical challenges continue to be low power d...
This paper reports for the first time the achievement of autoparametric resonance in a piezoelectric...
Abstract—A piezoelectric MEMS energy harvester (EH) with low resonant frequency and wide operation b...