This paper focuses on studying the effect of increasing the ambient temperature up to 160 °C on the power harvested by an MEMS piezoelectric micro-cantilever manufactured using an aluminum nitride-on-silicon fabrication process. An experimental study shows that the peak output power decreases by 60% to 70% depending on the input acceleration. A theoretical study establishes the relationship of all important parameters with temperature and includes them into a temperature-dependent model. This model shows that around 50% of the power drop can be explained by a decreasing quality factor, and that thermal stresses account for around 30% of this decrease
In the present era, the renewable sources of energy, e.g., piezoelectric materials are in great dema...
AbstractIn this paper a resonant micropower generator based on the transverse piezoelectric effect i...
Recent rapid advances in low-power portable electronic applications have motivated researchers and i...
This paper focuses on studying the effect of increasing the ambient temperature up to 160 °C on the ...
Energy harvesters withstanding high temperatures could provide potentially unlimited energy to senso...
AbstractA MEMS vibration energy harvester using an Aluminium Nitride (AlN) piezoelectric layer was d...
The growing interest in autonomous wireless sensor networks (WSNs) for industrial applications, wher...
The piezoelectric energy harvester has become a new powering option for some low-power electronic de...
This paper reports a low-cost, high-sensitivity CMOS-MEMS piezoelectric energy harvester with large...
Experiments have been performed to verify power-optimized modal models of piezoelectric vibration ha...
In this work, we demonstrate the simple fabrication process of AlN-based piezoelectric energy harves...
Much interest in energy harvesters has been focused on maintaining their conversion efficiency durin...
Vibration energy harvesting has been progressively developed in the advancement of technology and w...
Piezoelectric energy harvesting is a way of converting waste mechanical energy into usable electrica...
This paper reports the design, analysis and experimental characterisation of a piezoelectric MEMS ca...
In the present era, the renewable sources of energy, e.g., piezoelectric materials are in great dema...
AbstractIn this paper a resonant micropower generator based on the transverse piezoelectric effect i...
Recent rapid advances in low-power portable electronic applications have motivated researchers and i...
This paper focuses on studying the effect of increasing the ambient temperature up to 160 °C on the ...
Energy harvesters withstanding high temperatures could provide potentially unlimited energy to senso...
AbstractA MEMS vibration energy harvester using an Aluminium Nitride (AlN) piezoelectric layer was d...
The growing interest in autonomous wireless sensor networks (WSNs) for industrial applications, wher...
The piezoelectric energy harvester has become a new powering option for some low-power electronic de...
This paper reports a low-cost, high-sensitivity CMOS-MEMS piezoelectric energy harvester with large...
Experiments have been performed to verify power-optimized modal models of piezoelectric vibration ha...
In this work, we demonstrate the simple fabrication process of AlN-based piezoelectric energy harves...
Much interest in energy harvesters has been focused on maintaining their conversion efficiency durin...
Vibration energy harvesting has been progressively developed in the advancement of technology and w...
Piezoelectric energy harvesting is a way of converting waste mechanical energy into usable electrica...
This paper reports the design, analysis and experimental characterisation of a piezoelectric MEMS ca...
In the present era, the renewable sources of energy, e.g., piezoelectric materials are in great dema...
AbstractIn this paper a resonant micropower generator based on the transverse piezoelectric effect i...
Recent rapid advances in low-power portable electronic applications have motivated researchers and i...