With the application requirements of wireless technology in implantable bioelectronics, knowledge of the fundamental limits for implanted antennas becomes critical. In this work, we investigated the variation of maximum power density within simplified body phantoms, caused by changes in the operating frequency, implantation depth, body phantom radius, and source size. Both spherical and planar body models are studied, and the corresponding results are compared to an efficient approximation method. The summarized results are used to derive design rules and can be used as benchmarks for the design of most implanted antennas, especially for shallow implants
We studied the possibility of wireless powering, the intra-abdominal implants using an anatomically ...
This thesis studied by simulations how the radiation efficiency of two implanted antennas depends on...
Human body phantom with electrical properties is widely used in electromagnetics solvers to model th...
In-body medical implants are one of the most promising solutions for increasing patient healthcare i...
International audienceThe wireless power transfer (WPT) efficiency to implanted bioelectronic device...
Medical implants with communication capability are becoming increasingly popular with today’s trends...
International audienceThe efficiency of an on-body wireless power transfer system for implant poweri...
Medical implants with communication capability are becoming increasingly popular with today’s trends...
In this work, the optimum homogeneous phantom size for an equivalent whole-body electromagnetic (EM)...
Design of medical sensor implants is very challenging due to numerous restrictions in terms of size ...
International audienceFundamental in-body limitations on achievable radiation efficiency could provi...
Fundamental in-body limitations on achievable radiation efficiency could provide decision-making ass...
International audienceIn-body antennas couple strongly to surrounding biological tissues, thus, resu...
Abstract — In this study, we assess the trade–off between size, gain and safety of implantable anten...
Implantable bioelectronics often relies on an RF-wireless link for communication and/or remote power...
We studied the possibility of wireless powering, the intra-abdominal implants using an anatomically ...
This thesis studied by simulations how the radiation efficiency of two implanted antennas depends on...
Human body phantom with electrical properties is widely used in electromagnetics solvers to model th...
In-body medical implants are one of the most promising solutions for increasing patient healthcare i...
International audienceThe wireless power transfer (WPT) efficiency to implanted bioelectronic device...
Medical implants with communication capability are becoming increasingly popular with today’s trends...
International audienceThe efficiency of an on-body wireless power transfer system for implant poweri...
Medical implants with communication capability are becoming increasingly popular with today’s trends...
In this work, the optimum homogeneous phantom size for an equivalent whole-body electromagnetic (EM)...
Design of medical sensor implants is very challenging due to numerous restrictions in terms of size ...
International audienceFundamental in-body limitations on achievable radiation efficiency could provi...
Fundamental in-body limitations on achievable radiation efficiency could provide decision-making ass...
International audienceIn-body antennas couple strongly to surrounding biological tissues, thus, resu...
Abstract — In this study, we assess the trade–off between size, gain and safety of implantable anten...
Implantable bioelectronics often relies on an RF-wireless link for communication and/or remote power...
We studied the possibility of wireless powering, the intra-abdominal implants using an anatomically ...
This thesis studied by simulations how the radiation efficiency of two implanted antennas depends on...
Human body phantom with electrical properties is widely used in electromagnetics solvers to model th...