Piezoelectric wind energy harvesters based on flow-induced vibration are attracting
widespread attention because they can provide long-term sustainable power to wireless …

Fluid-structure interaction can be utilized to harvest the low-speed wind energy for
sustaining the low-power sensors for structural health monitoring. To enhance the low …

Previous works verified experimentally that interactions between vortex-induced vibration
(VIV) and galloping may greatly improve the performance of piezoelectric wind energy …

The indirect-excitation piezoelectric wind energy harvesters have shown great potential in
providing power to sensor network nodes as well as wireless electronic devices. To improve …

This study performs a comprehensive parametric study and optimization of a piezoelectric
wind energy harvester subjected to the conjunction of vortex-induced vibration (VIV) and …

In this study, a piezoelectric wind energy harvester was demonstrated, which aimed at
addressing the limitations of the existing approaches including single-directional operation …

Energy harvesting from wind-induced vibrations is considered to be a promising solution for
the power requirements of wireless sensor nodes. This paper proposes an enhanced …

Most wind energy harvesters (WEHs) that have been reported in the literature collect wind
energy using only one type of wind-induced vibration, such as vortex-induced vibration …

This study proposes to change the inclination angle (α) of a circular cylinder with respect to
oncoming flow in order to broaden the effective wind speed bandwidth of the piezoelectric …

The interaction between vortex-induced vibration (VIV) and galloping could enhance the
performance of wind energy harvesters (WEHs). Though VIV-galloping interaction may …