mhurhangee/patent-ind-claim-en huggingface dataset:
Gingiva former comprising an implant fixing structure configured to fix the gingiva former to an implant construction fixed to a jaw of a patient, and an emergence profile portion configured to be positioned within a gingiva of the patient when the gingiva former is mounted to the implant construction, a mounting structure configured to connect an intermediate element (2; 3) to the gingiva former such that the intermediate element (2; 3) extends towards an oral cavity of the patient when the gingiva former is mounted to the implant construction, wherein the mounting structure comprises an indexing formation configured to index the orientation of the intermediate element (2; 3) when connected to the gingiva former and a clipping geometry configured to snap-fit with a corresponding clipping structure (212; 312) of the intermediate element (2; 3) to temporarily mount the intermediate element (2; 3) to the gingiva former . an implant fixing structure configured to fix the gingiva former to an implant construction fixed to a jaw of a patient, and an emergence profile portion configured to be positioned within a gingiva of the patient when the gingiva former is mounted to the implant construction, a mounting structure configured to connect an intermediate element (2; 3) to the gingiva former such that the intermediate element (2; 3) extends towards an oral cavity of the patient when the gingiva former is mounted to the implant construction, wherein the mounting structure comprises an indexing formation configured to index the orientation of the intermediate element (2; 3) when connected to the gingiva former and a clipping geometry configured to snap-fit with a corresponding clipping structure (212; 312) of the intermediate element (2; 3) to temporarily mount the intermediate element (2; 3) to the gingiva former .
An internal air vent for a vehicle, comprising: a frame defining an air outlet, said frame having a back end connectable to a ventilation system for receiving an air stream and a front end for releasing the air stream into the vehicle; at least one back vane arranged in the frame, each back vane being pivotally connected to the frame in order to redirect the air stream in a first plane (P1); a linkage structure connected to the at least one back vane ; a front vane unit arranged in front of said at least one back vane , wherein the front vane unit is pivotally connected to and supported by the linkage structure in order to redirect the air stream in a second plane (P2) which is perpendicular to the first plane (P1); and wherein the front vane unit is slidable along a sliding direction which is perpendicular to said second plane (P2), and wherein the linkage structure is configured to transfer a sliding motion of the front vane unit along the sliding direction to a pivoting motion of the at least one back vane thereby controlling the redirection of air in the first plane (P1), the internal air vent 2. further comprising an airflow rate control member arranged to protrude from the front vane unit away from the at least one back vane , wherein said airflow rate control member 2. is movable to control a flow rate of the air stream being ejected from the internal air vent . a frame defining an air outlet, said frame having a back end connectable to a ventilation system for receiving an air stream and a front end for releasing the air stream into the vehicle; at least one back vane arranged in the frame, each back vane being pivotally connected to the frame in order to redirect the air stream in a first plane (P1); a linkage structure connected to the at least one back vane ; a front vane unit arranged in front of said at least one back vane , wherein the front vane unit is pivotally connected to and supported by the linkage structure in order to redirect the air stream in a second plane (P2) which is perpendicular to the first plane (P1); and wherein the front vane unit is slidable along a sliding direction which is perpendicular to said second plane (P2), and wherein the linkage structure is configured to transfer a sliding motion of the front vane unit along the sliding direction to a pivoting motion of the at least one back vane thereby controlling the redirection of air in the first plane (P1), the internal air vent 2. further comprising an airflow rate control member arranged to protrude from the front vane unit away from the at least one back vane , wherein said airflow rate control member 2. is movable to control a flow rate of the air stream being ejected from the internal air vent .
An inhalation-synchronized fluid dispenser device comprising a body provided with a mouthpiece , a fluid reservoir containing a fluid and a propellant gas being mounted to slide axially in said body , a metering valve including a valve member being assembled on said reservoir for selectively dispensing the fluid, said device further comprising: - an actuator element that is movable and/or deformable between a non-actuation position, in which said metering valve cannot be actuated, and an actuation position, in which said metering valve can be actuated, and - an inhalation-controlled trigger system including an inhalation-sensitive member (61; 65), deformable and/or movable under the effect of inhaling, said inhalation-sensitive member (61; 65), when it is deformed and/or moved, moving and/or deforming said actuator element from its non-actuation position towards its actuation position, characterized in that said actuator element is a locking element that, in non-actuation position, enables axial movement of said valve member of the metering valve together with said reservoir in the body , preventing the actuation of said metering valve when said reservoir is moved axially in the body without inhaling. - an actuator element that is movable and/or deformable between a non-actuation position, in which said metering valve cannot be actuated, and an actuation position, in which said metering valve can be actuated, and - an inhalation-controlled trigger system including an inhalation-sensitive member (61; 65), deformable and/or movable under the effect of inhaling, said inhalation-sensitive member (61; 65), when it is deformed and/or moved, moving and/or deforming said actuator element from its non-actuation position towards its actuation position,
A structural element for constructions comprising: i) a structure made of concrete and/or geopolymer and/or alkali activated material; ii) at least one strip made of a fibre-resin composite which surrounds at least part of said structure , compressing it; characterised in that said at least one strip comprises a plurality of superposed layers made of a fibre-resin composite which surround the structure ; said layers are superposed on one another, a more external layer being glued to a more internal layer without external means for maintaining a tension of said at least one strip , the more external layer covering at least partly a more internal layer, whereby the at least one strip at least partly surmounts an external surface of said structure . i) a structure made of concrete and/or geopolymer and/or alkali activated material; ii) at least one strip made of a fibre-resin composite which surrounds at least part of said structure , compressing it;
A method for producing an olefin based polymer comprising the steps of: providing a catalyst system; polymerizing one or more α-olefins in the presence of the catalyst system in one or more polymerization reactors, connected in parallel, series or combinations thereof; and thereby producing an olefin based polymer; wherein the catalyst system comprises the reaction product of the following: A) a procatalyst consisting of a metal-ligand complex of I3 or I5: and B) one or more cocatalysts. A) a procatalyst consisting of a metal-ligand complex of I3 or I5: and B) one or more cocatalysts.
A digital data processing method of determining data representing a mapping of optical signals described by image data of a reflecting surface of a structure to a three-dimensional surface geometry of the reflecting surface, the method comprising the following steps which are constituted to be executed by a computer: a) acquiring first image data describing an image of a reflection of broadband point light from the reflecting surface; b) acquiring second image data describing an image of a reflection of coloured or spectrally variable point light from the reflecting surface; c) acquiring third image data describing an image of a reflection of broadband linear light from the reflecting surface or an image of a transmission of broadband linear light through the structure ; d) acquiring surface geometry data describing a three-dimensional surface geometry of the reflecting surface; and e) determining , based on the first image data and the second image and the third image data and the surface geometry data, reflecting surface mapping data describing a mapping between the reflections described by the first image data, second image data and third image data, and the three-dimensional surface geometry of the reflecting surface. a) acquiring first image data describing an image of a reflection of broadband point light from the reflecting surface; b) acquiring second image data describing an image of a reflection of coloured or spectrally variable point light from the reflecting surface; c) acquiring third image data describing an image of a reflection of broadband linear light from the reflecting surface or an image of a transmission of broadband linear light through the structure ; d) acquiring surface geometry data describing a three-dimensional surface geometry of the reflecting surface; and e) determining , based on the first image data and the second image and the third image data and the surface geometry data, reflecting surface mapping data describing a mapping between the reflections described by the first image data, second image data and third image data, and the three-dimensional surface geometry of the reflecting surface.
A multiple-junction photovoltaic cell comprising: - a substrate of monocrystalline silicon; - a buffer layer deposited by epitaxy on top of said substrate; and - an active heterostructure deposited by epitaxy on top of said buffer layer, formed by at least two different alloys selected from the AlGaInAs and GaINAsP families having mesh parameters that are matched with one another and with the parameter of the buffer layer and comprising at least two stacked PN junctions having different forbidden bandwidths, characterised in that the buffer layer is made of an at least ternary III-V type alloy comprising aluminium, antimony and at least one other element from the V group. - a substrate of monocrystalline silicon; - a buffer layer deposited by epitaxy on top of said substrate; and - an active heterostructure deposited by epitaxy on top of said buffer layer, formed by at least two different alloys selected from the AlGaInAs and GaINAsP families having mesh parameters that are matched with one another and with the parameter of the buffer layer and comprising at least two stacked PN junctions having different forbidden bandwidths,
A method performed by a user equipment, UE , for transmission timing enhancement for different numerologies in a non-terrestrial network, NTN, the method comprising: receiving downlink control information, DCI, on a downlink, DL, channel of the NTN, the DL channel being received in a first slot, the DL channel being a Physical Downlink Control Channel, PDCCH, the PDCCH reception ending in the first slot; and performing an uplink, UL, transmission on a UL channel of the NTN in a second slot separated from the first slot, wherein: the UL transmission includes Channel State Information, CSI; and a CSI reference resource that corresponds to the CSI is provided in the DL transmission in a third n - n CSI_ref , where n = n ′ − K offset ⋅ 2 μ DL 2 μ UL , wherein: n is the first slot, n CSI_ref is an offset value determined by the UE , n' the second slot in which the CSI is transmitted, μ DL is a subcarrier spacing of the DL channel, μ UL is a subcarrier spacing of the UL channel, and K offset an additional offset value for compensating a required timing advance, TA, and a processing delay for operation in the NTN. receiving downlink control information, DCI, on a downlink, DL, channel of the NTN, the DL channel being received in a first slot, the DL channel being a Physical Downlink Control Channel, PDCCH, the PDCCH reception ending in the first slot; and performing an uplink, UL, transmission on a UL channel of the NTN in a second slot separated from the first slot, wherein: the UL transmission includes Channel State Information, CSI; and a CSI reference resource that corresponds to the CSI is provided in the DL transmission in a third n - n CSI_ref , where n = n ′ − K offset ⋅ 2 μ DL 2 μ UL , wherein: n is the first slot, n CSI_ref is an offset value determined by the UE , n' the second slot in which the CSI is transmitted, μ DL is a subcarrier spacing of the DL channel, μ UL is a subcarrier spacing of the UL channel, and K offset an additional offset value for compensating a required timing advance, TA, and a processing delay for operation in the NTN. the UL transmission includes Channel State Information, CSI; and a CSI reference resource that corresponds to the CSI is provided in the DL transmission in a third n - n CSI_ref , where n = n ′ − K offset ⋅ 2 μ DL 2 μ UL , wherein: n is the first slot, n CSI_ref is an offset value determined by the UE , n' the second slot in which the CSI is transmitted, μ DL is a subcarrier spacing of the DL channel, μ UL is a subcarrier spacing of the UL channel, and K offset an additional offset value for compensating a required timing advance, TA, and a processing delay for operation in the NTN. n CSI_ref is an offset value determined by the UE , n' the second slot in which the CSI is transmitted, μ DL is a subcarrier spacing of the DL channel, μ UL is a subcarrier spacing of the UL channel, and K offset an additional offset value for compensating a required timing advance, TA, and a processing delay for operation in the NTN.
A computer-implemented method for transferring data over the air (OTA) from a backend server to a fleet of vehicles , the method comprising: S30) determining a download load (DL) of the backend server; S40) determining whether the download load (DL) is above a threshold; S50) when it is determined that the download load (DL) is above the threshold, activating a V2V distribution mode for distributing the data over the air (OTA) to the fleet; S60) when it is determined that the download load (DL) is below the threshold, deactivating the V2V distribution mode and activating a direct distribution mode for distributing the data over the air (OTA) to the fleet; wherein the method comprises: when the V2V distribution mode is activated: when data is to be transferred over the air (OTA) to vehicles of the fleet: S230) selecting vehicles of the fleet as distributor vehicles ; S240) transferring or attempting to transfer the data over the air (OTA) from the backend server to the distributor vehicles ; S260) transferring or attempting to transfer said data over the air (OTA) from at least one distributor vehicle to at least one non-distributor vehicle of the fleet; and, when the direct distribution mode is activated: S120) when data is to be transferred over the air (OTA) to vehicles of the fleet, transferring or attempting to transfer the data over the air (OTA) to all vehicles of the fleet of vehicles directly from the backend server to the vehicles. S30) determining a download load (DL) of the backend server; S40) determining whether the download load (DL) is above a threshold; S50) when it is determined that the download load (DL) is above the threshold, activating a V2V distribution mode for distributing the data over the air (OTA) to the fleet; S60) when it is determined that the download load (DL) is below the threshold, deactivating the V2V distribution mode and activating a direct distribution mode for distributing the data over the air (OTA) to the fleet; when the V2V distribution mode is activated: when data is to be transferred over the air (OTA) to vehicles of the fleet: S230) selecting vehicles of the fleet as distributor vehicles ; S240) transferring or attempting to transfer the data over the air (OTA) from the backend server to the distributor vehicles ; S260) transferring or attempting to transfer said data over the air (OTA) from at least one distributor vehicle to at least one non-distributor vehicle of the fleet; and, S230) selecting vehicles of the fleet as distributor vehicles ; S240) transferring or attempting to transfer the data over the air (OTA) from the backend server to the distributor vehicles ; S260) transferring or attempting to transfer said data over the air (OTA) from at least one distributor vehicle to at least one non-distributor vehicle of the fleet; and, when the direct distribution mode is activated: S120) when data is to be transferred over the air (OTA) to vehicles of the fleet, transferring or attempting to transfer the data over the air (OTA) to all vehicles of the fleet of vehicles directly from the backend server to the vehicles.
A method for fabricating an object , comprising: (a) depositing a given layer of powder over a removable support plate in a powder bed, the support plate having a first release layer ; (b) fusing the given layer of powder in the powder bed to form a given fused region; (c) depositing a subsequent layer of powder; and (d) repeating steps (b) and (c) until the object is formed in the powder bed, and (e) separating the object from the support plate by melting the first release layer or by dissolving the first release layer ; characterized in that separating the object from the support plate by melting the first release layer comprises removing a residual release layer using electroplating, and separating the object from the support plate by dissolving the first release layer comprises submerging the object and the removable support plate in a plating bath to undergo an electrolysis. (a) depositing a given layer of powder over a removable support plate in a powder bed, the support plate having a first release layer ; (b) fusing the given layer of powder in the powder bed to form a given fused region; (c) depositing a subsequent layer of powder; and (d) repeating steps (b) and (c) until the object is formed in the powder bed, and (e) separating the object from the support plate by melting the first release layer or by dissolving the first release layer ; characterized in that separating the object from the support plate by melting the first release layer comprises removing a residual release layer using electroplating, and separating the object from the support plate by dissolving the first release layer comprises submerging the object and the removable support plate in a plating bath to undergo an electrolysis.
A system comprising a work platform including slats , the system being configured to adjust extension lengths of the slats of the work platform relative to an outer surface of a rotatable workpiece positioned in working relation to the work platform , the system further comprising: one or more sensors configured to collect first data associated with a position of the outer surface of the workpiece at a height of the slats ; actuators configured to extend or retract the slats ; and a controller coupled to the one or more sensors and to the actuators , wherein the controller is configured to receive the first data and second data associated with rotation of the workpiece from the one or more sensors , wherein the controller is configured to provide signals to the actuators based on the first data and the second data, and wherein the signals cause the actuators to adjust or maintain extension lengths of the slats of the work platform to maintain separation distances between ends of the slats and the outer surface of the workpiece within a separation distance range as the workpiece rotates. one or more sensors configured to collect first data associated with a position of the outer surface of the workpiece at a height of the slats ; actuators configured to extend or retract the slats ; and a controller coupled to the one or more sensors and to the actuators , wherein the controller is configured to receive the first data and second data associated with rotation of the workpiece from the one or more sensors , wherein the controller is configured to provide signals to the actuators based on the first data and the second data, and wherein the signals cause the actuators to adjust or maintain extension lengths of the slats of the work platform to maintain separation distances between ends of the slats and the outer surface of the workpiece within a separation distance range as the workpiece rotates.
A variable shelf comprising at least two cuboidal shelf boxes having a shelf , a shelf cover , and two shelf walls arranged perpendicular to the shelf and the cover, wherein the shelf boxes are vertically stacked on each other, characterized in that • the shelf and the shelf cover each have an opening , • a rod-shaped connection element is guided through at least one opening of each cuboidal shelf box , • the shelf boxes are connected to each other by the connecting element , and • the cuboidal shelf boxes are rotatable by 360° about the connecting element , • the cuboidal shelf boxes consist of corrugated cardboard, cardboard, paper, or paperboard. • the shelf and the shelf cover each have an opening , • a rod-shaped connection element is guided through at least one opening of each cuboidal shelf box , • the shelf boxes are connected to each other by the connecting element , and • the cuboidal shelf boxes are rotatable by 360° about the connecting element , • the cuboidal shelf boxes consist of corrugated cardboard, cardboard, paper, or paperboard.
A method for determining a visualization of content to be displayed to a surgeon on a display of a portable display device , the method comprising: obtaining first pose data indicative a first pose (P 1 ) of an anatomical feature of a patient in an operating room; obtaining second pose data indicative of a second pose (P 5 ) of a portable display device in the operating room; estimating , based on the first pose data and the second pose data, a third pose (P 10 ) of a surgeon relative to the patient ; and determining , based on the estimated third pose (P 10 ), a visualization of content to be displayed to the surgeon on a display of the portable display device , the method further comprising: obtaining a fourth pose (P 8 ) of the surgeon relative to the portable display device , wherein the third pose (P 10 ) is estimated further based on the fourth pose (P 8 ), wherein the fourth pose (P 8 ) is determined based on a predefined spatial criterion associated with the portable display device . obtaining first pose data indicative a first pose (P 1 ) of an anatomical feature of a patient in an operating room; obtaining second pose data indicative of a second pose (P 5 ) of a portable display device in the operating room; estimating , based on the first pose data and the second pose data, a third pose (P 10 ) of a surgeon relative to the patient ; and determining , based on the estimated third pose (P 10 ), a visualization of content to be displayed to the surgeon on a display of the portable display device , the method further comprising: obtaining a fourth pose (P 8 ) of the surgeon relative to the portable display device , wherein the third pose (P 10 ) is estimated further based on the fourth pose (P 8 ), wherein the fourth pose (P 8 ) is determined based on a predefined spatial criterion associated with the portable display device . obtaining a fourth pose (P 8 ) of the surgeon relative to the portable display device , wherein the third pose (P 10 ) is estimated further based on the fourth pose (P 8 ), wherein the fourth pose (P 8 ) is determined based on a predefined spatial criterion associated with the portable display device .