Abstract:
In this paper, the performance of nonlinear wireless power transfer (WPT) enabled by multiple radio-frequency (RF) sources is characterized. The harvested power is modell...Show MoreMetadata
Abstract:
In this paper, the performance of nonlinear wireless power transfer (WPT) enabled by multiple radio-frequency (RF) sources is characterized. The harvested power is modelled as a function of the RF powers received from multiple RF sources. Following the characterization, we prove the joint convexity of the harvested power under different sufficient conditions. In particular, based on these conditions, the joint convexity of the harvested power with respect to the reciprocals of the received powers is proved. Moreover, by providing an example design, we illustrate the benefits of exploiting the joint convexity for cooperative WPT enhancement.
Published in: IEEE Transactions on Vehicular Technology ( Volume: 71, Issue: 10, October 2022)
Funding Agency:
Keywords assist with retrieval of results and provide a means to discovering other relevant content. Learn more.
- IEEE Keywords
- Index Terms
- Wireless Power Transfer ,
- Convex Analysis ,
- Nonlinear Power ,
- Nonlinear Transfer ,
- Multiple Radio Frequency ,
- Multiple Radio Frequency Sources ,
- Sufficient Conditions ,
- Synchronization ,
- Multiple Signaling ,
- Input Signal ,
- Unmanned Aerial Vehicles ,
- Energy Harvesting ,
- Beamforming ,
- Path Loss ,
- Non-convex Problem ,
- Independent Signals ,
- Radio Frequency Signal ,
- Feasible Point ,
- Multiple Stations ,
- Multiple Receivers ,
- Wireless Power Transfer System ,
- Convexity Properties ,
- Waveform Design ,
- Single Radio Frequency
- Author Keywords
Keywords assist with retrieval of results and provide a means to discovering other relevant content. Learn more.
- IEEE Keywords
- Index Terms
- Wireless Power Transfer ,
- Convex Analysis ,
- Nonlinear Power ,
- Nonlinear Transfer ,
- Multiple Radio Frequency ,
- Multiple Radio Frequency Sources ,
- Sufficient Conditions ,
- Synchronization ,
- Multiple Signaling ,
- Input Signal ,
- Unmanned Aerial Vehicles ,
- Energy Harvesting ,
- Beamforming ,
- Path Loss ,
- Non-convex Problem ,
- Independent Signals ,
- Radio Frequency Signal ,
- Feasible Point ,
- Multiple Stations ,
- Multiple Receivers ,
- Wireless Power Transfer System ,
- Convexity Properties ,
- Waveform Design ,
- Single Radio Frequency
- Author Keywords