Weihs, Bruno Konrad

An embossing system comprising an open frame structure. The open frame structure comprises a first side structure which is longitudinally shaped, as a first arm of a U-shape, a second side structure which is longitudinally shaped, as a second arm of the U-shape, and positioned opposite to the first side structure, as the first and second arms of the U-shape, a bottom structure configured to connect the first and the second side structures at a first of their respective extremities of their longitudinal shapes, as a bottom of the U-shape, and a frontal opening of the open frame structure defined by the first and the second side structures at a second one of their respective extremities opposite to the first extremity, as an opening of the U-shape. The embossing system further comprises a first embossing roller, and a second embossing roller, a first fixture configured for removably housing the first embossing roller and a second fixture configured for removably housing the second embossing roller, the first side structure and the second side structure respectively comprising a first seat and a second seat configured to receive and removably mount respectively the first fixture and the second fixture, the frontal opening being configured to enable a frontal access to an inner-frame space that is located between the first embossing roller and the second embossing roller, and is further delimited by the bottom structure. The first embossing roller comprises first embossing structures and the second embossing roller comprises second embossing structures, each one of the second embossing structures corresponding to one of the first embossing structures, which is inversely congruent to the one of the second embossing structures. The embossing system further comprises roller gap adjustment means configured to apply forces between the first and the second embossing roller to variably adjust a roller distance that separates the first embossing roller from the second embossing roller, thereby varying the inner-frame space, anti-deformation means configured to prevent a deformation of the open frame structure, and preserve an adjusted roller distance; and synchronizing means configured to radially position a number of the first embossing structures in front of corresponding second embossing structures at a time of engaging the first and the second embossing rollers with the roller gap adjustment means, in an embossing position for an embossing.

Nonintrusive approaches for vital signs detection and tracking represent appealing methods for improving wellness in broad population ranges and detecting/monitoring health conditions among medical patients. Both industry and academia have shown significant interest in providing reliable contactless reading of vital signs using common video sensors and light modulation properties coming from blood circulation in human skin. Existing approaches propose solutions that can extract the heart rate signal from human faces; they also address the noise challenges from the environment with partial success. We aim to provide accurate heart rate readings from human subjects and human face in situations where temporary in-band noise from subject head motion and lightness changes may occur. Our contribution creates multiple reading channels and brings forth a detection-and tracking method that can efficiently cope with the noise, providing reliable heart-rate readings in stressful conditions. In addition, the method we propose does not rely on sophisticated Al blocks and is, thus, applicable for implementation on embedded and mobile devices with limited processing resources. We demonstrate the claim by implementing and running our method on several embedded and mobile platforms.

La présente invention concerne un système (2) de gestion de l'eau pour un réseau de distribution de l'eau comprenant au moins un point d'entrée de l'eau (22) et au moins un point de distribution de l'eau (24), comprenant : des moyens de détection (4) placé entre l'au moins un point d'entrée de l'eau (22) et l'au moins un point de distribution de l'eau (24) et configurés pour mesurer un débit de l'eau ; une vanne (26) configuré pour contrôler le débit de l'eau entre l'au moins un point d'entrée de l'eau (22) et l'au moins un point de distribution de l'eau (24) ; un module de contrôle (10) configuré pour : recevoir et analyser des données (DA) mesurées par les moyens de détection (4) ; détecter et signaler une ou plusieurs anomalies liées au débit de l'eau, et, donner un ordre (OR) à l'au moins une vanne (26) de modifier le débit d'eau en cas de détection d'anomalie.

Le châssis télescopique pour résidences mobiles en zones inondables combine plusieurs fonctions pour assurer la mobilité et la sécurité des modules d'habitation lors de submersion des terres. La conception du châssis dont la structure constitue l'ossature principale du module, permet à la fois son transport, son montage rapide, son élévation lors d'une submersion ou son déplacement d'urgence. Il est composé d'un support (1) remorquable, équipé de guides verticaux (12) pour la mise en station, d'un noyau central (21a, 21b, 22) emboité avec le support (1) sur lequel vient se déployer l'ossature du module. Lors de l'inondation, le module s'élève verticalement autour de ses guides (12) grâce aux flotteurs gonflables (38) situés sous le plancher autour du support.

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A scintillation device including a silicon plate having a rectangular shape and having a first side and a second side opposite the first side, wherein the first side includes a plurality of first channels arranged to be in parallel with each other extending in a first direction, wherein walls in the silicon plate that form the first channels are coated with an optically reflective or dielectric layer, and wherein the first channels are filled with a scintillation resin in a solid state forming a first waveguide.