mhurhangee/patent-ind-claim-en huggingface dataset:
An orthodontic lingual device for segmental distalization of a set of teeth in a patient comprising exactly two base surfaces, each adapted to be attached to a tooth, the two base surfaces consisting of a distal base surface (6; 6a; 6b; 6c; 6d; 6e) and a mesial base surface , and the device further comprising: an elongated central arm ; a distal part comprising the distal base surface (6; 6a; 6b; 6c; 6d) adapted to be attached to a lingual surface of a molar, wherein the distal part is located at a distal end of the elongated central arm ; a mesial part comprising the mesial base surface (5; 5a; 5b; 5c; 5d) adapted to be attached to a lingual surface of a premolar, wherein the mesial part is located at a mesial end of the elongated central arm , wherein the mesial part and/or the distal part comprises a first retention element for retention of a first end of an actuating element, and wherein the elongated central arm extends between the mesial base surface and the distal base surface and is shaped to substantially follow a lingual side of the set of teeth and wherein, the orthodontic lingual device is configured to be attached to a first premolar and one selected from a first, second and third molar, or the orthodontic lingual device is configured to be attached to a second premolar, and one selected from a second and third molar, and wherein the distal end region of the elongated arm is thinner than a neighbouring portion of the elongated central arm such that the distal end region of the elongated central arm is provided with flexibility whereby an angle (α) between the distal end region of the elongated central arm and the neighbouring portion of the elongated central arm can be adapted. an elongated central arm ; a distal part comprising the distal base surface (6; 6a; 6b; 6c; 6d) adapted to be attached to a lingual surface of a molar, wherein the distal part is located at a distal end of the elongated central arm ; a mesial part comprising the mesial base surface (5; 5a; 5b; 5c; 5d) adapted to be attached to a lingual surface of a premolar, wherein the mesial part is located at a mesial end of the elongated central arm , wherein the mesial part and/or the distal part comprises a first retention element for retention of a first end of an actuating element, and wherein the elongated central arm extends between the mesial base surface and the distal base surface and is shaped to substantially follow a lingual side of the set of teeth and wherein, the orthodontic lingual device is configured to be attached to a first premolar and one selected from a first, second and third molar, or the orthodontic lingual device is configured to be attached to a second premolar, and one selected from a second and third molar, and wherein the distal end region of the elongated arm is thinner than a neighbouring portion of the elongated central arm such that the distal end region of the elongated central arm is provided with flexibility whereby an angle (α) between the distal end region of the elongated central arm and the neighbouring portion of the elongated central arm can be adapted.
Method for deriving a wear state of a soil interaction component of a soil processing implement of a construction vehicle , wherein the method comprises - providing a geometry model regarding an assumed shape of the soil interaction component , - engaging the soil by using the soil interaction component and tracking a motion for deriving tracking data of the soil interaction component, - using the tracking data and the geometry model of the soil interaction component to derive an expected 3D surface model caused by the engaging, - after the engaging, providing visual 3D perception data of a soil area affected by the engaging with the soil interaction component , such that the visual 3D perception data and the expected 3D surface model can be referenced to one another, and - comparing the visual 3D perception data with the expected 3D surface model and, based thereof, determining a deviation of an effective shape of the soil interaction component from the assumed shape. - providing a geometry model regarding an assumed shape of the soil interaction component , - engaging the soil by using the soil interaction component and tracking a motion for deriving tracking data of the soil interaction component, - using the tracking data and the geometry model of the soil interaction component to derive an expected 3D surface model caused by the engaging, - after the engaging, providing visual 3D perception data of a soil area affected by the engaging with the soil interaction component , such that the visual 3D perception data and the expected 3D surface model can be referenced to one another, and - comparing the visual 3D perception data with the expected 3D surface model and, based thereof, determining a deviation of an effective shape of the soil interaction component from the assumed shape.
An apparatus for detecting and monitoring nasal pressure comprising: - a nasal probe adapted to be permanently placed inside a patient's nostril, wherein the nasal probe comprises: - a support ring which defines inside it a through opening and provided with an external surface adapted to come into contact with the patient's nostril, and - a housing seat defined within the external surface of the support ring for housing the end of a cannula adapted to be connected to a pressure transducer , characterized by the fact that it comprises an inflatable membrane associated with the support ring and configured to be selectively moved between: - a first configuration, in which it is inflated and completely occludes the through opening , and - a second configuration, in which it is deflated and leaves at least partially open the through opening . - a nasal probe adapted to be permanently placed inside a patient's nostril, wherein the nasal probe comprises: - a support ring which defines inside it a through opening and provided with an external surface adapted to come into contact with the patient's nostril, and - a housing seat defined within the external surface of the support ring for housing the end of a cannula adapted to be connected to a pressure transducer , - a first configuration, in which it is inflated and completely occludes the through opening , and - a second configuration, in which it is deflated and leaves at least partially open the through opening .
Molecule having the structural formula (I): wherein R1 and R2 are independently selected from L is selected from T is selected from with the proviso that if R1 is then R2 is R1 and R2 are independently selected from L is selected from T is selected from with the proviso that if R1 is then R2 is
Prefabricated construction element , preferentially of wall type with integrated formwork comprising: - a first wall made of hydraulic material (M) disposed in a first plane (P1), - a second wall made of hydraulic material (M) disposed in a second plane (P2), the first plane (P1) and the second plane (P2) being substantially parallel to one another, - at least one connection element for linking, and maintaining at a distance from one another, the first wall and the second wall , so as to form between them a filling space of a thickness (E) that can and is intended to be filled by at least one hydraulic material, said at least one connection element being at least partly embedded in the first wall and the second wall and extending through the filling space , - at least one structural reinforcement embedded in the first wall and/or the second wall , the prefabricated construction element is characterized in that said at least one connection element comprises at least three connectors linked to one another by at least one link means , so as to form a module as a single-piece part and having a self-supporting structure, and in that said at least three connectors are maintained substantially parallel to one another by said at least one link means and spaced apart from one another, and in that said at least three connectors are at least partly embedded in the first wall and the second wall in portions of the first wall and the second wall without structural reinforcements and extend through the filling space . - a first wall made of hydraulic material (M) disposed in a first plane (P1), - a second wall made of hydraulic material (M) disposed in a second plane (P2), the first plane (P1) and the second plane (P2) being substantially parallel to one another, - at least one connection element for linking, and maintaining at a distance from one another, the first wall and the second wall , so as to form between them a filling space of a thickness (E) that can and is intended to be filled by at least one hydraulic material, said at least one connection element being at least partly embedded in the first wall and the second wall and extending through the filling space , - at least one structural reinforcement embedded in the first wall and/or the second wall , the prefabricated construction element is characterized in that said at least one connection element comprises at least three connectors linked to one another by at least one link means , so as to form a module as a single-piece part and having a self-supporting structure, and in that said at least three connectors are maintained substantially parallel to one another by said at least one link means and spaced apart from one another, and in that said at least three connectors are at least partly embedded in the first wall and the second wall in portions of the first wall and the second wall without structural reinforcements and extend through the filling space .
A computer-implemented method comprising: receiving a standard dynamic range, SDR, image ; generating composer metadata for mapping the SDR image to an enhanced dynamic range, EDR, image, the composer metadata specifying a backward reshaping mapping that is generated from a plurality of SDR-EDR image pairs in a training database, the plurality of SDR-EDR image pairs comprising a plurality of SDR images that do not include the SDR image and a plurality of EDR images that corresponds to the plurality of SDR images ; encoding the SDR image and the composer metadata in an output SDR video signal; and outputting the SDR video signal such as to enable an EDR display operating with a receiver of the output SDR video signal to render an EDR display image, the EDR display image being derived from a composed EDR image composed from the SDR image based on the composer metadata, wherein the method further comprises: extracting a plurality of image-related features from the SDR image ; and generating a set of parameters that specify the backward reshaping mapping based on the plurality of image-related features and a plurality of prediction coefficient values generated using the plurality of SDR-EDR image pairs. receiving a standard dynamic range, SDR, image ; generating composer metadata for mapping the SDR image to an enhanced dynamic range, EDR, image, the composer metadata specifying a backward reshaping mapping that is generated from a plurality of SDR-EDR image pairs in a training database, the plurality of SDR-EDR image pairs comprising a plurality of SDR images that do not include the SDR image and a plurality of EDR images that corresponds to the plurality of SDR images ; encoding the SDR image and the composer metadata in an output SDR video signal; and outputting the SDR video signal such as to enable an EDR display operating with a receiver of the output SDR video signal to render an EDR display image, the EDR display image being derived from a composed EDR image composed from the SDR image based on the composer metadata, wherein the method further comprises: extracting a plurality of image-related features from the SDR image ; and generating a set of parameters that specify the backward reshaping mapping based on the plurality of image-related features and a plurality of prediction coefficient values generated using the plurality of SDR-EDR image pairs.
Stand for a lighting device comprising: a resilient stay rotatable about a rotation axis and comprising a bridge portion connecting two transversal portions at a respective first end thereof, each transversal portion at a second end thereof having a respective axial portion extending over the rotation axis , two facing supports , at least one support comprising a seat , the seat being elongated in a length direction (Ld) transverse to the rotation axis, said length direction and rotation axis define in a plane P, each axial portion being at least partly accommodated in a respective axially extending hole , provided in a respective support , the respective holes and seat being positioned aligned on the rotation axis, at least one transversal portion having a connect portion connecting the transversal portion at the second end with its axial portion, whereby in a seated position of the stay the connect portion extends through the seat in plane P and at an angle a with the length direction (Ld), with a in a range of 25° to 75°, preferably 30° to 60° the stay being configured to enable disengagement of the at least one connect portion from the seat through resilient deformation of the stay for enabling rotation of the stay about the rotation axis . a resilient stay rotatable about a rotation axis and comprising a bridge portion connecting two transversal portions at a respective first end thereof, each transversal portion at a second end thereof having a respective axial portion extending over the rotation axis , two facing supports , at least one support comprising a seat , the seat being elongated in a length direction (Ld) transverse to the rotation axis, said length direction and rotation axis define in a plane P, each axial portion being at least partly accommodated in a respective axially extending hole , provided in a respective support , the respective holes and seat being positioned aligned on the rotation axis, at least one transversal portion having a connect portion connecting the transversal portion at the second end with its axial portion, whereby in a seated position of the stay the connect portion extends through the seat in plane P and at an angle a with the length direction (Ld), with a in a range of 25° to 75°, preferably 30° to 60° the stay being configured to enable disengagement of the at least one connect portion from the seat through resilient deformation of the stay for enabling rotation of the stay about the rotation axis .
A variable container system for creating modular units , which are arranged next to each other and/or on top of each other, wherein the container system comprises the modular units , characterised in that each modular unit comprises: a) a floor element that serves as a lower base, having a total of four wedge-shaped saddle elements , each being arranged at a respective corner and having an inclined guide surface for placing two end-face wall elements , b) a roof element that serves as an upper cover, having a total of four wedge-shaped saddle elements , each being arranged at a respective corner and having an inclined guide surface for being placed on the two end-face wall elements , c) two end-face wall elements , each having two inclined lower corner guides for being placed on the saddle elements of the floor element and two inclined upper corner guides for placing the saddle elements of the roof element on the end-face wall element , wherein d) each guide surface of the floor element is inclined downwardly in the direction of the two saddle elements that are respectively arranged opposite each other; and e) each guide surface of the roof element is inclined upwardly in the direction of the two saddle elements that are respectively arranged opposite each other; and f) the corner guides of the end-face wall elements have inclinations that are complementary to the respective guide surfaces . a) a floor element that serves as a lower base, having a total of four wedge-shaped saddle elements , each being arranged at a respective corner and having an inclined guide surface for placing two end-face wall elements , b) a roof element that serves as an upper cover, having a total of four wedge-shaped saddle elements , each being arranged at a respective corner and having an inclined guide surface for being placed on the two end-face wall elements , c) two end-face wall elements , each having two inclined lower corner guides for being placed on the saddle elements of the floor element and two inclined upper corner guides for placing the saddle elements of the roof element on the end-face wall element , d) each guide surface of the floor element is inclined downwardly in the direction of the two saddle elements that are respectively arranged opposite each other; and e) each guide surface of the roof element is inclined upwardly in the direction of the two saddle elements that are respectively arranged opposite each other; and f) the corner guides of the end-face wall elements have inclinations that are complementary to the respective guide surfaces .
A process for the manufacture of a fermented dairy product comprising a. subjecting a milk base from mammals to fermentation with a starter comprising of a weakly post-acidifying bacterial culture, until a desired pH value in the range of 4.0 and 5.0 is reached (end of fermentation); b. optionally cooling the fermented milk base obtained in step (a); and c. packaging the fermented dairy product, wherein the starter comprises at least one weakly post-acidifying bacterial culture of the genus Streptococcus, of the strain Streptococcus salivarius thermophilus, and wherein the pH value of the fermented dairy product does not fluctuate more than 0.3 pH unit upon storage from day 1 after end of fermentation until day 28 after end of fermentation; and wherein the weakly post-acidifying bacterial culture is defined as having a two-phase acidification profile, as determined by the continuous recordation of the pH as a function of time, in a Dutch milk composition comprising 1.5% (w/w) fat, 3.6% (w/w) protein, 4.6% (w/w) carbohydrates and 2% RSM powder and/or a Chinese milk composition comprising 2.9 % (w/w) protein, 3.6 % (w/w) fat, 4.7 % (w/w) carbohydrates at 42°C, comprising an initial period between inoculation and end of fermentation followed by a period at 30°C between 1 and 40 days in which the pH value does not fluctuate more than 0.3 unit, and wherein the Streptococcus salivarius thermophilus strain is selected from the group consisting of CBS129457 and CBS129458 deposited on 6 May 2011 at the Centraalbureau voor Schimmelcultures (Fungal Biodiversity Centre), Utrecht, The Netherlands. a. subjecting a milk base from mammals to fermentation with a starter comprising of a weakly post-acidifying bacterial culture, until a desired pH value in the range of 4.0 and 5.0 is reached (end of fermentation); b. optionally cooling the fermented milk base obtained in step (a); and c. packaging the fermented dairy product,
A method of decoding video data, the method comprising: receiving a lossless coding syntax element for a current block of video data, the lossless coding syntax element indicating that the current block of video data is encoded using a lossless coding mode, wherein the current block of video data is a coding unit, CU, of video data; receiving a quantization group, QG, size; determining that the CU has a size greater than or equal to the QG size, the CU being a current quantization block; assigning a delta quantization parameter, dQP, value of zero for the current quantization block if a dQP is not signaled for the current quantization block, wherein the dQP value is a difference between the QP value and a value of a QP predictor; determining a quantization parameter, QP, value for the current quantization block based on the assigned dQP value and the QP Predictor; and decoding the current quantization block according to the lossless coding mode and the determined QP value, wherein the determined QP value is used for subsequent QP prediction. receiving a lossless coding syntax element for a current block of video data, the lossless coding syntax element indicating that the current block of video data is encoded using a lossless coding mode, wherein the current block of video data is a coding unit, CU, of video data; receiving a quantization group, QG, size; determining that the CU has a size greater than or equal to the QG size, the CU being a current quantization block; assigning a delta quantization parameter, dQP, value of zero for the current quantization block if a dQP is not signaled for the current quantization block, wherein the dQP value is a difference between the QP value and a value of a QP predictor; determining a quantization parameter, QP, value for the current quantization block based on the assigned dQP value and the QP Predictor; and decoding the current quantization block according to the lossless coding mode and the determined QP value, wherein the determined QP value is used for subsequent QP prediction.
Joining machine equipped for manufacturing a bag for medical purposes, having a station generating economic benefits for a film, having an opening and closing processing tool at the station generating economic benefit, the film being conveyed in a machine direction through the joining machine and, for introducing the film into the opened machining tool, a driven inserting device is provided, which comprises a gripper , which is devised to move the film during the feeding operation in a gripping area and move away from the film with a removal movement, characterized in that the joining machine is set up to add a benefit at least partially to the gripping area, in that the joining machine is configured to process that the gripping area, in order to process the film over or around the gripping area, so that the gripping area does not become scrap , at least not completely, in that the joining machine is so configured so as to produce a peripheral weld of the bag at least around a portion of the gripping area and / or a welded seam extending through the gripping area.
A decoration member for a cosmetic container, the decoration member comprising: a color expression layer comprising a light reflecting layer and a light absorbing layer provided on the light reflecting layer ; and a substrate for a cosmetic container provided on one surface of the color expression layer , characterized in that the light absorbing layer comprises a metal oxynitride, and in that the substrate for the cosmetic container comprises a plastic molding for a cosmetic container, wherein the plastic molding comprises one or more kinds among polypropylene (PP), polystyrene (PS), polyvinyl acetate (PVAC), polyacrylate, polyvinyl chloride (PVC), polymethyl methacrylate (PMMA), ethylene-vinyl acetate copolymer (EVA), polyamide, styrene-acrylonitrile copolymer (SAN). a color expression layer comprising a light reflecting layer and a light absorbing layer provided on the light reflecting layer ; and a substrate for a cosmetic container provided on one surface of the color expression layer , characterized in that the light absorbing layer comprises a metal oxynitride, and in that the substrate for the cosmetic container comprises a plastic molding for a cosmetic container, wherein the plastic molding comprises one or more kinds among polypropylene (PP), polystyrene (PS), polyvinyl acetate (PVAC), polyacrylate, polyvinyl chloride (PVC), polymethyl methacrylate (PMMA), ethylene-vinyl acetate copolymer (EVA), polyamide, styrene-acrylonitrile copolymer (SAN).