Andere Kunden interessierten sich auch für
![Piezoelectric Transformers in Power Electronics]( "Piezoelectric Transformers in Power Electronics")
Piezoelectric Transformers in Power Electronics32,99 €![HIGH TEMPERATURE PIEZOELECTRIC CERAMICS]( "HIGH TEMPERATURE PIEZOELECTRIC CERAMICS")
HIGH TEMPERATURE PIEZOELECTRIC CERAMICS38,99 €![Design and Analysis of Axial Flow Fans]( "Design and Analysis of Axial Flow Fans")
Design and Analysis of Axial Flow Fans32,99 €![Piezoelectric Accelerometers with Integral Electronics]( "Piezoelectric Accelerometers with Integral Electronics")
Piezoelectric Accelerometers with Integral Electronics97,99 €![Piezoelectric MEMS Resonators]( "Piezoelectric MEMS Resonators")
Piezoelectric MEMS Resonators126,99 €![Development of an Adaptive Piezoelectric Harvesting System for Wireless Remote Power Supply]( "Development of an Adaptive Piezoelectric Harvesting System for Wireless Remote Power Supply")
Development of an Adaptive Piezoelectric Harvesting System for Wireless Remote Power Supply42,95 €![Advanced Piezoelectric Materials]( "Advanced Piezoelectric Materials")
Advanced Piezoelectric Materials180,99 €
The two most remarkable characteristics of
piezoelectric fans are their low noise levels and
their low power consumption. These features render
piezoelectric fans well-suited to applications in the
thermal management of portable electronic devices.
Feasibility studies conducted on piezoelectric fans
have demonstrated the viability of using these
devices in electronics cooling applications. However,
these studies lack a detailed characterization of
these devices to an extent which would lead to their
optimal integration. The cooling performance of these
fans are experimentally characterized in detail.
Experimentally it is shown that for the same cooling
performance axial fans consumed approximately 10
times more power than piezoelectric actuators. A
two-dimensional numerical model is also developed and
validated with experimental measurements. The
numerical model is used to develop fan curves for the
piezoelectric fans, using a methodology similar to
that used in constructing pump or fan curves for
conventional fans. A simplified model based on
stagnation region heat transfer in impingement flows
is also proposed to estimate the heat transfer from a
piezoelectric fan.
piezoelectric fans are their low noise levels and
their low power consumption. These features render
piezoelectric fans well-suited to applications in the
thermal management of portable electronic devices.
Feasibility studies conducted on piezoelectric fans
have demonstrated the viability of using these
devices in electronics cooling applications. However,
these studies lack a detailed characterization of
these devices to an extent which would lead to their
optimal integration. The cooling performance of these
fans are experimentally characterized in detail.
Experimentally it is shown that for the same cooling
performance axial fans consumed approximately 10
times more power than piezoelectric actuators. A
two-dimensional numerical model is also developed and
validated with experimental measurements. The
numerical model is used to develop fan curves for the
piezoelectric fans, using a methodology similar to
that used in constructing pump or fan curves for
conventional fans. A simplified model based on
stagnation region heat transfer in impingement flows
is also proposed to estimate the heat transfer from a
piezoelectric fan.