International audienceAutonomous implantable bioelectronics requires efficient radiating structures for data transfer and wireless powering. The radiation of body-implanted capsules is investigated to obtain the explicit radiation optima for E- and B-coupled sources of arbitrary dimensions and properties. The analysis uses the conservation-of-energy formulation within dispersive homogeneous and stratified canonical body models. The results reveal that the fundamental bounds exceed by far the efficiencies currently obtained by conventional designs. Finally, a practical realization of the optimal source based on a dielectric-loaded cylindrical-patch structure is presented. The radiation efficiency of the structure closely approaches the theor...
Miniature wireless implantable bioelectronics provide powerful capabilities for biotelemetry, therap...
Fundamental limits on radiation performance of implantable antennas serve as the design quality gaug...
Fundamental in-body limitations on achievable radiation efficiency could provide decision-making ass...
International audienceAutonomous implantable bioelectronics requires efficient radiating structures ...
Autonomous implantable bioelectronics requires efficient radiating structures for data transfer and ...
Fundamental bounds on achievable radiation efficiency serve as the design quality gauge, facilitate ...
Fundamental bounds on achievable radiation efficiency serve as the design quality gauge, facilitate ...
Fundamental in-body limitations on achievable radiation efficiency could provide decision-making ass...
International audienceAutonomous wireless body-implanted devices for biotelemetry, telemedicine, and...
Autonomous wireless body-implanted devices for biotelemetry, telemedicine, and neural interfacing co...
Body-implanted bioelectronics rely on antennas to interface with external on- or off-body equipment....
Miniature wireless implantable bioelectronics provide powerful capabilities for biotelemetry, therap...
With the application requirements of wireless technology in implantable bioelectronics, knowledge of...
Miniature wireless implantable bioelectronics provide powerful capabilities for biotelemetry, therap...
Fundamental limits on radiation performance of implantable antennas serve as the design quality gaug...
Fundamental in-body limitations on achievable radiation efficiency could provide decision-making ass...
International audienceAutonomous implantable bioelectronics requires efficient radiating structures ...
Autonomous implantable bioelectronics requires efficient radiating structures for data transfer and ...
Fundamental bounds on achievable radiation efficiency serve as the design quality gauge, facilitate ...
Fundamental bounds on achievable radiation efficiency serve as the design quality gauge, facilitate ...
Fundamental in-body limitations on achievable radiation efficiency could provide decision-making ass...
International audienceAutonomous wireless body-implanted devices for biotelemetry, telemedicine, and...
Autonomous wireless body-implanted devices for biotelemetry, telemedicine, and neural interfacing co...
Body-implanted bioelectronics rely on antennas to interface with external on- or off-body equipment....
Miniature wireless implantable bioelectronics provide powerful capabilities for biotelemetry, therap...
With the application requirements of wireless technology in implantable bioelectronics, knowledge of...
Miniature wireless implantable bioelectronics provide powerful capabilities for biotelemetry, therap...
Fundamental limits on radiation performance of implantable antennas serve as the design quality gaug...
Fundamental in-body limitations on achievable radiation efficiency could provide decision-making ass...