In this paper, we introduce the adoption of a magnetic metasurface whose response is opportunely controlled as a method to alleviate the misalignment issue in resonant inductive Wireless Power Transfer. In particular, we first present the analytical framework thanks to which the metasurface response can be homogenized, avoiding undesired truncation effects. Then, a numerical set-up is designed to demonstrate the validity of the proposed approach. The results obtained through accurate full-wave simulations show that a homogenized metasurface can outperform a traditional one in terms of misalignment robustness, while maintaining the same efficiency level. This work can pave the way to the adoption in WPT applications of response-controlled me...
Abstract The prosperity of market in multi‐charging devices has made the researches on multi‐load ma...
In this paper, a wireless power transfer system (WPT) with magnetically coupled resonators is studie...
In this paper, we investigate the electromagnetic response of a Huygens' metasurface (HMS) embedded ...
In this paper, we introduce the adoption of a magnetic metasurface whose response is opportunely con...
Abstract In this paper, we present the design of spatial filtering magnetic metasurfaces to overcome...
In this letter, we develop an accurate and effective analytical framework to arbitrarily manipulate ...
In this article, we introduce a general analytical procedure to unambiguously characterize a metasur...
In this paper, an analytic circuital approach to manipulate the response of magnetic metasurfaces is...
Wireless power transfer (WPT) has lately seen significant innovation and development; consequently, ...
Metamaterials (MMs) have been proposed to improve the performance of wireless power transfer (WPT) s...
Abstract As a unique group of advanced artificial materials, metamaterials have found many interesti...
We present a compact, magnetically dispersive engineered surface for resonant inductive wireless pow...
Magnetically coupled resonant (MCR) wireless power transfer (WPT) is a promising technology, which h...
This paper presents an investigation of the transmitted power in a wireless power transfer system th...
Many applications of wireless power transmission (WPT) require high misalignment tolerance. However,...
Abstract The prosperity of market in multi‐charging devices has made the researches on multi‐load ma...
In this paper, a wireless power transfer system (WPT) with magnetically coupled resonators is studie...
In this paper, we investigate the electromagnetic response of a Huygens' metasurface (HMS) embedded ...
In this paper, we introduce the adoption of a magnetic metasurface whose response is opportunely con...
Abstract In this paper, we present the design of spatial filtering magnetic metasurfaces to overcome...
In this letter, we develop an accurate and effective analytical framework to arbitrarily manipulate ...
In this article, we introduce a general analytical procedure to unambiguously characterize a metasur...
In this paper, an analytic circuital approach to manipulate the response of magnetic metasurfaces is...
Wireless power transfer (WPT) has lately seen significant innovation and development; consequently, ...
Metamaterials (MMs) have been proposed to improve the performance of wireless power transfer (WPT) s...
Abstract As a unique group of advanced artificial materials, metamaterials have found many interesti...
We present a compact, magnetically dispersive engineered surface for resonant inductive wireless pow...
Magnetically coupled resonant (MCR) wireless power transfer (WPT) is a promising technology, which h...
This paper presents an investigation of the transmitted power in a wireless power transfer system th...
Many applications of wireless power transmission (WPT) require high misalignment tolerance. However,...
Abstract The prosperity of market in multi‐charging devices has made the researches on multi‐load ma...
In this paper, a wireless power transfer system (WPT) with magnetically coupled resonators is studie...
In this paper, we investigate the electromagnetic response of a Huygens' metasurface (HMS) embedded ...