This contribution gives a review of our results characterizing the propagation in lossy biological tissues. These results were mainly obtained using a simplified spherical model allowing a description in spherical wave decomposition. This model is of course simple, but has the advantage of providing rapidly a deep insight in the main loss mechanisms linked to implanted or wearable antennas, and thus derive efficient design rules for BAN antennas
Emerging wireless in-body devices pave the way to many breakthroughs in healthcare and clinical rese...
Wireless wearable medical devices located on the opposite side of the body communicate through creep...
With the application requirements of wireless technology in implantable bioelectronics, knowledge of...
Implantable bioelectronics often relies on an RF-wireless link for communication and/or remote power...
International audienceWith the development of generalized connectivity and the increased use of Body...
With the development of generalized connectivity and the increased use of Body Area Networks, wearab...
Fundamental limits for implanted antennas should be able to evaluate the bounds on losses with the k...
Design of medical sensor implants is very challenging due to numerous restrictions in terms of size ...
In a lot of studies from literature was analyzed the influence of antennas on human body. In this ar...
Medical implants with communication capability are becoming increasingly popular with today’s trends...
Proposed is the first in-body path loss model in homogeneous human muscle tissue at 2.4 GHz for impl...
International audienceIn-body antennas couple strongly to surrounding biological tissues, thus, resu...
International audienceEmerging wireless in-body devices pave the way to many breakthroughs in health...
A wireless body area network (WBAN) consists of a wireless network with devices placed close to, att...
Emerging wireless in-body devices pave the way to many breakthroughs in healthcare and clinical rese...
Wireless wearable medical devices located on the opposite side of the body communicate through creep...
With the application requirements of wireless technology in implantable bioelectronics, knowledge of...
Implantable bioelectronics often relies on an RF-wireless link for communication and/or remote power...
International audienceWith the development of generalized connectivity and the increased use of Body...
With the development of generalized connectivity and the increased use of Body Area Networks, wearab...
Fundamental limits for implanted antennas should be able to evaluate the bounds on losses with the k...
Design of medical sensor implants is very challenging due to numerous restrictions in terms of size ...
In a lot of studies from literature was analyzed the influence of antennas on human body. In this ar...
Medical implants with communication capability are becoming increasingly popular with today’s trends...
Proposed is the first in-body path loss model in homogeneous human muscle tissue at 2.4 GHz for impl...
International audienceIn-body antennas couple strongly to surrounding biological tissues, thus, resu...
International audienceEmerging wireless in-body devices pave the way to many breakthroughs in health...
A wireless body area network (WBAN) consists of a wireless network with devices placed close to, att...
Emerging wireless in-body devices pave the way to many breakthroughs in healthcare and clinical rese...
Wireless wearable medical devices located on the opposite side of the body communicate through creep...
With the application requirements of wireless technology in implantable bioelectronics, knowledge of...