Abstract: An electromagnetic sensing device comprising: a reference microfluidic reservoir to receive a reference substance with magnetic nanoparticles; an analyte microfluidic reservoir to receive an analyte and magnetic nanoparticles; a first excitation magnetic coil to subject the reference microfluidic reservoir to an alternating magnetic field at a first frequency; a second excitation magnetic coil to subject the analyte microfluidic reservoir to an alternating magnetic field at the first frequency; a third excitation magnetic coil to subject the reference microfluidic reservoir to an alternating magnetic field at a second frequency distinct from the first frequency; a fourth excitation magnetic coil to subject the analyte microfluidic reservoir to an alternating magnetic field at the second frequency; a first detection magnetic coil to detect a response magnetic field of the magnetic nanoparticles in the reference microfluidic reservoir; a second detection magnetic coil to detect a response magnetic field of the

Abstract: An electromagnetic sensing device comprising: a reference microfluidic reservoir to receive a reference substance with magnetic nanoparticles; an analyte microfluidic reservoir to receive an analyte and magnetic nanoparticles; a first excitation magnetic coil to subject the reference microfluidic reservoir to an alternating magnetic field at a first frequency; a second excitation magnetic coil to subject the analyte microfluidic reservoir to an alternating magnetic field at the first frequency; a third excitation magnetic coil to subject the reference microfluidic reservoir to an alternating magnetic field at a second frequency distinct from the first frequency; a fourth excitation magnetic coil to subject the analyte microfluidic reservoir to an alternating magnetic field at the second frequency; a first detection magnetic coil to detect a response magnetic field of the magnetic nanoparticles in the reference microfluidic reservoir; a second detection magnetic coil to detect a response magnetic field of the

Abstract: The endoprosthesis is designed to be implanted in an aneurysm (12) of a patient, the aneurysm (12) resulting from deformation of a vessel wall, in particular the wall of an artery (14), the endoprosthesis including: a tubular envelope (22, 24) that extends in a direction (Y-Y?), and a plurality of pressure probes (26) fixed on the envelope (22, 24), each probe (26) including: a sensor (28) for measuring pressure, and elements (34, 36) for transmitting the pressure measurement to a monitoring apparatus located outside the patient. The elements (34, 36) for transmitting the pressure measurement from each probe (26) are designed to generate an electromagnetic pressure measurement transmission signal including at least one distinctive characteristic of the probe (26) of which these elements (34, 36) form part.

Abstract: The endoprosthesis is designed to be implanted in an aneurysm (12) of a patient, the aneurysm (12) resulting from deformation of a vessel wall, in particular the wall of an artery (14), the endoprosthesis including: a tubular envelope (22, 24) that extends in a direction (Y-Y'), and a plurality of pressure probes (26) fixed on the envelope (22, 24), each probe (26) including: a sensor (28) for measuring pressure, and elements (34, 36) for transmitting the pressure measurement to a monitoring apparatus located outside the patient. The elements (34, 36) for transmitting the pressure measurement from each probe (26) are designed to generate an electromagnetic pressure measurement transmission signal including at least one distinctive characteristic of the probe (26) of which these elements (34, 36) form part.