Abstract: A sensors assembly for physiological measurements includes an electrode comprising a contact surface configured to be in contact with a user, an optical unit movable relative to the contact surface of the electrode between a rest position and a displaced position, the optical unit including an interaction surface configured to be in contact with a user, the interaction surface being adjacent to the contact surface, an optical sensor, and a force sensor configured to determine information relating to the force exerted on the optical unit in the displaced position.

Abstract: An optical unit includes an optical sensor includes at least one light source and at least one light receiver, a dome defining an interior volume, the optical sensor being arranged in the interior volume, the dome including an interaction surface facing the optical sensor, the dome including at the interaction surface a plurality of transparent portions facing each light source and light receiver respectively. The thickness of the transparent parts defines a lower plane and an upper plane, the transparent parts being connected by a connecting piece extending over a portion entirely outside a zone delimited by the lower plane and the upper plane.

Abstract: A sensors assembly for physiological measurements includes an electrode including a contact surface, the contact surface being configured to be in contact with a user, the contact surface being elongated in a main direction, an optical unit including an optical sensor and an interaction surface configured to be in contact with a user. The contact surface includes a first section and a second section along the main direction. The interaction surface is positioned along the main direction between the first section and the second section. The first section is longer than the second section along the main direction.

Abstract: An optical assembly includes an optical unit, a deformable printed circuit board, the optical unit being physically mounted on and electronically connected to the printed circuit board, and a force sensor configured to determine information relating to the deformation of the printed circuit board.

Abstract: A portable physiological measurement device holdable by a user includes a housing with an elongated shape in one extension direction and including, in the extension direction, one end, a stethoscope positioned at the tip and including a diaphragm extending in a diaphragm plane, a display, arranged on the housing, the display extending in a direction orthogonal to the membrane plane, a physical interface, functionally connected to the display and positioned on the housing between the display and the membrane along the extension direction.

Abstract: A portable physiological measurement device holdable by a user, includes a housing of elongated shape along a direction of extension (X) and including, along the direction of extension, a first end and a second end, a first physiological end sensor positioned at the first end, a second physiological end sensor positioned at the second end, a physiological finger sensor arranged on the housing near the first end or the second end.

Abstract: The disclosure is directed to a sensing device, configured to be installed in a bedding, for monitoring a user's sleep, the device comprising: a sensing part, for acquiring/determining a value representative of an a force or pressure and/or a value representative of a variation of a force or pressure, a housing comprising at least a pressure transducer and an electronic processing unit, a microphone connected to the electronic processing unit, wherein the electronic processing unit is configured to process first and second electrical signals delivered respectively by the microphone and the pressure converter, wherein the electronic processing unit is either configured to deduce locally at least a breathing disturbance therefrom or configured to send data representative of the first and second electrical signals to a remote device.

Abstract: A weighing device, configured to measure at least the weight of a person or an object, comprising a control unit, a sensory plate, a top plate, spacer pads, interposed between the plates, wherein the sensory plate has an emission transducer configured to generate, a burst of Lamb waves at the surface of the sensory plate, a reception transducer, to receive echoed Lamb waves propagated through the sensory plate, the temporal profile of the echoed Lamb waves being dependent on the weight applied to the top plate and passed by the spacer pads to the sensory plate, wherein the control unit determines the weight applied to the top plate by analysis of the temporal profile of the echoed Lamb waves.

Abstract: A thermometer device for temporal artery area measurement, configured to be used in a skin-touching stationary position, comprising an elongated body and a front portion having an end border arranged on a sensing plane (P), an array of N infrared sensors, with N greater than 8, a sensing region (SR) extending in the sensing plane over an area denoted SRA, at a distance denoted LF from a plane P2 containing the infrared sensors, the sensing region being encompassed within the border of the front end, an optical lens, interposed between the infrared sensors and the sensing region, to deviate light rays, wherein LF2<K×SRA, with K=3.

Abstract: A weighing device, configured to measure at least the weight of a person or an object, comprising a control unit, a sensory plate, a top plate, spacer pads, interposed between the plates, wherein the sensory plate has an emission transducer configured to generate, a burst of Lamb waves at the surface of the sensory plate, a reception transducer, to receive echoed Lamb waves propagated through the sensory plate, the temporal profile of the echoed Lamb waves being dependent on the weight applied to the top plate and passed by the spacer pads to the sensory plate, wherein the control unit determines the weight applied to the top plate by analysis of the temporal profile of the echoed Lamb waves.

Abstract: A thin personal weighing device comprising a bottom plate, extending along a reference plane, a top plate movably mounted with regard to the bottom plate along a direction perpendicular to the reference plane, four resilient elements directly interposed between the top and the bottom plate, four LC circuits positioned at a vicinity of an edge of the bottom plate, and a conductive material coating, arranged on the top plate, the four LC resonators and the at least conductive material coating exhibiting an inductance. Movement of the conductive material coating relative to each of the four LC resonators introduces a variation of the inductance. A computation unit detecting the variations of the inductance is electronically coupled with the LC resonators and configured to correlate the variations of the inductance with an actual weight placed on the weighing device. The thickness of the weighing device is less than 25 mm.

Abstract: A thermometer device for temporal artery area measurement, configured to be used in a skin-touching stationary position, comprising an elongated body and a front portion having an end border arranged on a sensing plane (P), an array of N infrared sensors, with N greater than 8, a sensing region (SR) extending in the sensing plane over an area denoted SRA, at a distance denoted LF from a plane P2 containing the infrared sensors, the sensing region being encompassed within the border of the front end, an optical lens, interposed between the infrared sensors and the sensing region, to deviate light rays, wherein LF2<K×SRA, with K=3.

Abstract: A thin personal weighing device comprising a bottom plate, extending along a reference plane, a top plate movably mounted with regard to the bottom plate along a direction perpendicular to the reference plane, four resilient elements directly interposed between the top and the bottom plate, four LC circuits positioned at a vicinity of an edge of the bottom plate, and a conductive material coating, arranged on the top plate, the four LC resonators and the at least conductive material coating exhibiting an inductance. Movement of the conductive material coating relative to each of the four LC resonators introduces a variation of the inductance. A computation unit detecting the variations of the inductance is electronically coupled with the LC resonators and configured to correlate the variations of the inductance with an actual weight placed on the weighing device. The thickness of the weighing device is less than 25 mm.