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Energy harvesting wireless sensor for achieving self-powered structural health monitoring system
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Purpose
On average, a medium-sized satellite consist of almost 500 sensors where powering these sensors in space in such an unreachable environment is critical. Backing this, a compact energy harvester for powering up distant sensors is discussed here is the purpose of this paper. This is in line with the geostationary satellite-powered using the available electromagnetic energy on the satellite panels in space.
Design/methodology/approach
The designed rectenna makes use of a compact wideband receiving antenna operating at the targeted frequency band from 8 to 18 GHz. It also consists of a simple dual diode rectifier topology with a matching circuit, bandpass filter and a resistive load to convert the received radio frequency energy into usable direct current (DC) voltage.
Findings
The rectenna measurement is performed using three different configuration setups. This shows that a maximum DC voltage of 1.8 V and 5-10 mV is harvested from rectifier and rectenna (includes antenna and rectifier) when 20 dBm power is transmitted from the transmitting antenna operating at X and Ku band. This makes the rectenna feasible to power wireless sensors in a structural health monitoring system.
Originality/value
The measurements are performed by considering a real-time environment in space in terms of the distance between the transmitting and receiving antenna, which depends on the far-field of the transmitting antenna in a satellite.
Title: Energy harvesting wireless sensor for achieving self-powered structural health monitoring system
Description:
Purpose
On average, a medium-sized satellite consist of almost 500 sensors where powering these sensors in space in such an unreachable environment is critical.
Backing this, a compact energy harvester for powering up distant sensors is discussed here is the purpose of this paper.
This is in line with the geostationary satellite-powered using the available electromagnetic energy on the satellite panels in space.
Design/methodology/approach
The designed rectenna makes use of a compact wideband receiving antenna operating at the targeted frequency band from 8 to 18 GHz.
It also consists of a simple dual diode rectifier topology with a matching circuit, bandpass filter and a resistive load to convert the received radio frequency energy into usable direct current (DC) voltage.
Findings
The rectenna measurement is performed using three different configuration setups.
This shows that a maximum DC voltage of 1.
8 V and 5-10 mV is harvested from rectifier and rectenna (includes antenna and rectifier) when 20 dBm power is transmitted from the transmitting antenna operating at X and Ku band.
This makes the rectenna feasible to power wireless sensors in a structural health monitoring system.
Originality/value
The measurements are performed by considering a real-time environment in space in terms of the distance between the transmitting and receiving antenna, which depends on the far-field of the transmitting antenna in a satellite.
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