Abstract: A sensor (220) for a body monitoring system (1), having analyte-measuring microneedles (210) that extend parallel to a main direction (Z) from a substrate (242) and define a working plane (Pt), wherein the sensor (220) has at least one conductivity electrode (600) with a metallic track (602), the end of the metallic track extending along the main direction (Z) to a position strictly between the substrate (242) and the working plane (Pt).

Abstract: An assembly having a patch (250) for a body-monitoring system, the patch having a main body (251) with an opening (252) of at least 2 mm diameter, the main body having a rigid zone (256) around the opening and a flexible zone (258) on either side of the rigid zone and preferably all around the rigid zone, and a capsule (220), the capsule being configured to be placed in the opening of the patch and to be rigidly attached to same. The capsule has microneedles (210) configured to be inserted in the skin in order to sample or analyse a bodily fluid of the wearer of a body-monitoring system when the system is positioned on a limb of a user, the rigid zone of the capsule enabling a transmission of the forces received by the patch to the capsule.

Abstract: A body-monitoring system (1), intended to be attached to a limb of a living being, having a first module (100) having fastening and clamping mechanisms (110) configured to hold and clamp the system (1) on a limb; a second module (200) having microneedles (210) configured to be inserted into the skin in order to sample and/or analyse a bodily fluid of the wearer of the body-monitoring system (1) when positioned on the limb, the two modules (100, 200) being able to be coupled together in position by a complementarity of shape. The first module (100) and the second module (200) are connected together by a separable link (300), the separable link being configured to be released when a tearing threshold is exceeded, the link also being reusable.

Abstract: The invention relates to a sensor for a body monitoring device comprising: an inner face (31) designed to come into contact with an individual's skin; at least one micro-needle (32) arranged on said inner face (32); at least one pad (34) arranged on the inner face of the substrate close to a microneedle and configured to absorb/adsorb moisture when the sensor (3) is on the skin.

Abstract: The present invention relates to a body monitoring system comprising a patch, the patch comprising a main body, the main body comprising a second face suitable for facing the skin of a user, the patch comprising an adhesive layer at least partially covering the second face, and a peelable cover covering the adhesive layer, the peelable cover comprising at least two separate portions, the portions being adjacent to each other, the main body and the adhesive layer comprise a central portion forming an opening suitable for receiving the capsule, the opening having a maximum diameter greater than 2 mm, preferably greater than 5 mm.

Abstract: The present invention relates to a sensor preparation assembly (30) for a body monitoring system, the sensor (30) comprising at least one needle, the preparation assembly comprising: a bag (26) comprising a volume of a preparation solution, the bag (26) being configured to be positioned under the sensor (30) and being configured to be pierced by the needle (32), a receptacle (28) on which the bag is arranged (26), bearing means (24) that arc movable in relation to the receptacle (28) toward a bearing position, the bearing means (24) in the bearing position being configured to cause the sensor (30) to pierce the bag (26). The invention further relates to a sensor preparation method, comprising the placement of the sensor (30) in a position that is interposed between the bearing means (24) and the bag (26), the needle (32) of the sensor (30) piercing the bag (26).

Abstract: The present invention relates to a method of a method of measuring a human body analyte concentration in an interstitial fluid, comprising the step of measuring a first electrical current I1 between a working electrode and a pseudo-reference electrode while applying a first potential between the working electrode and the pseudo-reference electrode, the first potential being less than a threshold potential, the magnitude of the first electrical current being greater than the magnitude of a predetermined first threshold current, and further measuring an output electrical current between the working electrode and the pseudo-reference electrode while applying a second electrical potential, the second electrical potential being greater than the first electrical potential.

Abstract: A sensor for a body monitoring system having at least one substrate intended to come into contact with the skin and at least one microneedle, the microneedle being fixedly mounted on the substrate. The substrate has an open channel that surrounds the base of the microneedle, the microneedle having a central axis of symmetry, and the channel having a minimum height in the direction of the central axis that is greater than 20 ?m and having a minimum width that is greater than 200 ?m in a radial direction to the central axis. The channel forms a cavity in which the microneedle is housed.

Abstract: The invention relates to a sensor for a body monitoring system comprising micro-needles for measuring body analyte, characterized in that it comprises a support base, at least one basic support plate, and at least one micro-needle distributed on the basic support plate, the basic support plate being adapted to be fixedly mounted on the support base.

Abstract: A sensor (220) for a body monitoring system (1), having analyte-measuring microneedles (210) that extend parallel to a main direction (Z) from a substrate (242) and define a working plane (Pt), wherein the sensor (220) has at least one conductivity electrode (600) with a metallic track (602), the end of the metallic track extending along the main direction (Z) to a position strictly between the substrate (242) and the working plane (Pt).

Abstract: An assembly having a patch (250) for a body-monitoring system, the patch having a main body (251) with an opening (252) of at least 2 mm diameter, the main body having a rigid zone (256) around the opening and a flexible zone (258) on either side of the rigid zone and preferably all around the rigid zone, and a capsule (220), the capsule being configured to be placed in the opening of the patch and to be rigidly attached to same. The capsule has microneedles (210) configured to be inserted in the skin in order to sample or analyse a bodily fluid of the wearer of a body-monitoring system when the system is positioned on a limb of a user, the rigid zone of the capsule enabling a transmission of the forces received by the patch to the capsule.

Abstract: A body-monitoring system (1), intended to be attached to a limb of a living being, having a first module (100) having fastening and clamping mechanisms (110) configured to hold and clamp the system (1) on a limb; a second module (200) having microneedles (210) configured to be inserted into the skin in order to sample and/or analyse a bodily fluid of the wearer of the body-monitoring system (1) when positioned on the limb, the two modules (100, 200) being able to be coupled together in position by a complementarity of shape. The first module (100) and the second module (200) are connected together by a separable link (300), the separable link being configured to be released when a tearing threshold is exceeded, the link also being reusable.

Abstract: A capsule (220), said capsule (220) having a coupling face (222) configured to be coupled to a complementary shape on a housing (120), and a microneedle array (210) that is positioned on a planar contact surface (229). The coupling face (222) has rotational symmetry about an axis of rotation (Z) which extends orthogonally to the planar surface (229) and about which at least two coupling positions are permitted with a single and unique complementary shape on a housing (120), there being, within a fixed reference frame, no microneedle (210) in the same location as that of a different microneedle (210), in the two positions.