mhurhangee/patent-ind-claim-en huggingface dataset:
Sealing disc for a container closure for use with a container having a mouth delimited by a circumferential edge, in which the sealing disc is composed of a plurality of layers with an edge, of which at least one group of layers tightly closes the mouth of the container before the container is opened for the first time, in which one of the layers is a metallic layer that can be heated by induction, in which the other layers are non-metallic layers that are unable to be heated directly by induction, in which the group of layers can be sealed onto the circumferential edge of the mouth by means of a sealing layer , in which the sealing disc has at least one grip tab , in which the grip tab is formed by only one or more of the layers from the group of layers, and in which the layers forming the grip tab project beyond the edge of the other layer of the group in terms of area around the surface of the grip tab , is hereby characterized, in that another of the group of layers is a layer of thermally insulating material, in that the layer of thermally insulating material is a layer of foamed plastic, in that this layer is designed in such a way that the thermal energy generated in the metallic layer , which can be heated by induction, is not sufficient to cause the sealing layer to stick and seal the sealing layer to an element of the closure of the container located above it after passing through two layers of the thermally insulating layer in the sealing layer , in that the grip tab is formed only by this layer of thermally insulating material or by this layer and one or more of the other, non-metallic layers which are unable to be directly heated by induction, and in that the grip tab is folded and doubled over onto the uppermost layer of the group of layers .
A battery module , comprising a heat dissipation mechanical part, wherein the heat dissipation mechanical part is located between a first battery cell layer and a second battery cell layer, two surfaces of the heat dissipation mechanical part are respectively bonded to the first battery cell layer and the second battery cell layer, and the first battery cell layer and the second battery cell layer are two adjacent battery cell layers in a battery cell group ; the heat dissipation mechanical part comprises a first heat dissipation region and a second heat dissipation region ; the first heat dissipation region comprises M heat dissipation pipes, and an average distance between the M heat dissipation pipes and a cooling medium outflow region located on a housing is A, wherein M is a positive integer greater than or equal to 1, and A is greater than 0; the second heat dissipation region comprises N heat dissipation pipes, and an average distance between the N heat dissipation pipes and the cooling medium outflow region located on the housing is B, wherein N is a positive integer greater than or equal to 1, and B is greater than 0; and when A is greater than B, a ratio of M to an area of the first heat dissipation region is greater than a ratio of N to an area of the second heat dissipation region, wherein a density of heat dissipation pipes in the first heat dissipation region is greater than a density of heat dissipation pipes in the second heat dissipation region . the heat dissipation mechanical part is located between a first battery cell layer and a second battery cell layer, two surfaces of the heat dissipation mechanical part are respectively bonded to the first battery cell layer and the second battery cell layer, and the first battery cell layer and the second battery cell layer are two adjacent battery cell layers in a battery cell group ; the heat dissipation mechanical part comprises a first heat dissipation region and a second heat dissipation region ; the first heat dissipation region comprises M heat dissipation pipes, and an average distance between the M heat dissipation pipes and a cooling medium outflow region located on a housing is A, wherein M is a positive integer greater than or equal to 1, and A is greater than 0; the second heat dissipation region comprises N heat dissipation pipes, and an average distance between the N heat dissipation pipes and the cooling medium outflow region located on the housing is B, wherein N is a positive integer greater than or equal to 1, and B is greater than 0; and when A is greater than B, a ratio of M to an area of the first heat dissipation region is greater than a ratio of N to an area of the second heat dissipation region, wherein a density of heat dissipation pipes in the first heat dissipation region is greater than a density of heat dissipation pipes in the second heat dissipation region .
A conveyor apparatus comprising: a base frame and an extendable frame , wherein the extendable frame is supported by, and within, the base frame ; a drive assembly ; wherein the drive assembly comprises a rotatable drive mechanism having a plurality of frame engaging portions which are arranged to engage with a plurality of drive engaging portions provided on a first one of the base or extendable frames such that when the drive mechanism rotates, the drive assembly is configured to displace the first one of the base or extendable frames with respect to the second between an extended state and a retracted state; wherein the extendable frame comprises a plurality of parts or modules, which are coupled together by a securing arrangement ; and wherein the securing arrangement is configured such that when the plurality of parts of the extendable frame are coupled together the joints between respective parts define drive engaging portions such that where the parts are coupled , the coupled parts define a continuous arrangement of drive engaging portions . a base frame and an extendable frame , wherein the extendable frame is supported by, and within, the base frame ; a drive assembly ; wherein the drive assembly comprises a rotatable drive mechanism having a plurality of frame engaging portions which are arranged to engage with a plurality of drive engaging portions provided on a first one of the base or extendable frames such that when the drive mechanism rotates, the drive assembly is configured to displace the first one of the base or extendable frames with respect to the second between an extended state and a retracted state; wherein the extendable frame comprises a plurality of parts or modules, which are coupled together by a securing arrangement ; and wherein the securing arrangement is configured such that when the plurality of parts of the extendable frame are coupled together the joints between respective parts define drive engaging portions such that where the parts are coupled , the coupled parts define a continuous arrangement of drive engaging portions .
An apparatus for tomosynthesis image reconstruction, comprising: - an input unit ; - a processing unit ; and - an output unit ; wherein, the input unit is configured to provide the processing unit with a first projection image data set and a second projection image data set acquired after acquisition of the first projection image data set; wherein, the first projection image data set comprises first projection data, and the second projection image data set comprises second projection data; wherein the first projection image data set is useable for the reconstruction of a tomosynthesis image of at least a region of interest of a body part and wherein the second projection image data set is useable for the reconstruction of a tomosynthesis image of at least the region of interest of the body part; wherein, the processing unit is configured to select a subset of the first projection data; wherein, the processing unit is configured to reconstruct an enhanced image of at least the region of interest of the body part on the basis of the subset of the first projection data and second projection reconstruction data comprising at least a first subset of the second projection data; wherein the subset of the first projection data is selected on the basis of projection data from the second projection data that are detected as comprising data corresponding with at least one high contrast object being present; characterized in that between acquisition of the first projection image data and the second projection image data the apparatus is configured such that when a part of a biopsy equipment has been inserted into the body part, the second projection image data comprises image data relating to the part of a biopsy equipment; wherein the apparatus is configured such that the body part is in the same position during acquisition of the first projection image data and acquisition of the second projection image; and wherein, the output unit is configured to output information relating to the enhanced image of at least the region of interest of the body part. - an input unit ; - a processing unit ; and - an output unit ;
A marine electronics device, comprising: a display element ; a sonar signal processor ; a memory comprising a plurality of program instructions which, when executed by the sonar signal processor, cause the processor to: receive sonar data from a transducer array disposed on a vessel , wherein the transducer array includes a plurality of transducer elements spaced apart at one or more known distances and configured to receive respective sonar signals for conversion into the sonar data, and wherein the sonar data corresponds to a marine environment proximate to the vessel; analyze the received sonar data to determine one or more locations of one or more objects of the marine environment using interferometry; generate point cloud data based on the one or more determined locations; generate a depth display based on the point cloud data, wherein the depth display includes a depth line representing an underwater floor of the marine environment; and display the depth display, wherein the depth display includes the depth line in place of connected clusters of the point cloud data. a display element ; a sonar signal processor ; a memory comprising a plurality of program instructions which, when executed by the sonar signal processor, cause the processor to: receive sonar data from a transducer array disposed on a vessel , wherein the transducer array includes a plurality of transducer elements spaced apart at one or more known distances and configured to receive respective sonar signals for conversion into the sonar data, and wherein the sonar data corresponds to a marine environment proximate to the vessel; analyze the received sonar data to determine one or more locations of one or more objects of the marine environment using interferometry; generate point cloud data based on the one or more determined locations; generate a depth display based on the point cloud data, wherein the depth display includes a depth line representing an underwater floor of the marine environment; and display the depth display, wherein the depth display includes the depth line in place of connected clusters of the point cloud data. receive sonar data from a transducer array disposed on a vessel , wherein the transducer array includes a plurality of transducer elements spaced apart at one or more known distances and configured to receive respective sonar signals for conversion into the sonar data, and wherein the sonar data corresponds to a marine environment proximate to the vessel; analyze the received sonar data to determine one or more locations of one or more objects of the marine environment using interferometry; generate point cloud data based on the one or more determined locations; generate a depth display based on the point cloud data, wherein the depth display includes a depth line representing an underwater floor of the marine environment; and display the depth display, wherein the depth display includes the depth line in place of connected clusters of the point cloud data.
A gene construct comprising: (i) a nucleotide sequence encoding SERCA2a protein; and (ii) a nucleotide sequence encoding CCN5 protein. (i) a nucleotide sequence encoding SERCA2a protein; and (ii) a nucleotide sequence encoding CCN5 protein.
A computer-implemented training method for global localization, the method comprising: determining a synthetic data set based on three-dimensional, 3D, map data, the synthetic data set comprising a synthetic image captured by a virtual camera corresponding to an arbitrary pose and 3D coordinate data corresponding to each pixel of the synthetic image; determining a first generative adversarial network, GAN, loss based on a first feature determined by applying the synthetic image to the first network and a second feature determined by applying a real image captured by a real camera to the first network; determining a second GAN loss based on a first coordinate map determined by applying the first feature to the second network and a second coordinate map determined by applying the second feature to the second network; determining a first loss based on the first coordinate map and the 3D coordinate data corresponding to the synthetic image; determining a second loss based on a first pose estimated based on the first coordinate map and a pose of the virtual camera; and training the first network based on the first loss, the second loss and the first GAN loss; and training the second network based on the first loss, the second loss and the second GAN loss. determining a synthetic data set based on three-dimensional, 3D, map data, the synthetic data set comprising a synthetic image captured by a virtual camera corresponding to an arbitrary pose and 3D coordinate data corresponding to each pixel of the synthetic image; determining a first generative adversarial network, GAN, loss based on a first feature determined by applying the synthetic image to the first network and a second feature determined by applying a real image captured by a real camera to the first network; determining a second GAN loss based on a first coordinate map determined by applying the first feature to the second network and a second coordinate map determined by applying the second feature to the second network; determining a first loss based on the first coordinate map and the 3D coordinate data corresponding to the synthetic image; determining a second loss based on a first pose estimated based on the first coordinate map and a pose of the virtual camera; and training the first network based on the first loss, the second loss and the first GAN loss; and training the second network based on the first loss, the second loss and the second GAN loss.
A folding drive mechanism of a folding scooter, arranged between a front frame and a rear frame of the folding scooter which are pivotally connected, and the folding drive mechanism comprising a drive rod and a pull rod , wherein the drive rod is pivoted on the rear frame via a center shaft , one end of the pull rod is pivoted on the front frame , and another end of the pull rod is connected to the drive rod , by driving the drive rod , the pull rod is actuated to cause the front frame to pivot relative to the rear frame thereby folding; wherein a first hook is included, one end of the pull rod is provided with a first elongated slot , a first shaft pin provided at a lower end of the drive rod is movably inserted into the first elongated slot , one end of the first hook is pivoted on the front frame , another end of the first hook is hooked on the rear frame , characterized in that a second shaft pin is provided at a middle of the drive rod and pressed against the first hook ; when folding, the drive rod is rotated to cause the second shaft pin to push the first hook to disengage from the rear frame , thereby enabling the front frame to fold relative to the rear frame .
An analytical method using surface waves on a liquid system for determining a property of a test substance, the analytical method comprising: obtaining a reference indication, wherein the reference indication is indicative of a reference surface wave generated at a surface of the liquid system by contacting the surface of a liquid system with the reference substance; obtaining a test indication, wherein the test indication is indicative of a test surface wave generated at the surface of the liquid system by contacting the surface with the test substance; determining a property of the test substance based on: the reference indication; and, the test indication. obtaining a reference indication, wherein the reference indication is indicative of a reference surface wave generated at a surface of the liquid system by contacting the surface of a liquid system with the reference substance; obtaining a test indication, wherein the test indication is indicative of a test surface wave generated at the surface of the liquid system by contacting the surface with the test substance; determining a property of the test substance based on: the reference indication; and, the test indication. the reference indication; and, the test indication.
A switching device comprising: first and second body parts , at least one of said body parts being movable with respect to the other part; a first operating device coupled to said at least one body part and being operable to move said at least one body part towards said other body part into a closed state; characterized in that a first piezoelectric actuator is coupled to said first body part and a second piezoelectric actuator is coupled to said second body part , said piezoelectric actuators being operable to move said body parts away from each other out of said closed state. first and second body parts , at least one of said body parts being movable with respect to the other part; a first operating device coupled to said at least one body part and being operable to move said at least one body part towards said other body part into a closed state; characterized in that a first piezoelectric actuator is coupled to said first body part and a second piezoelectric actuator is coupled to said second body part , said piezoelectric actuators being operable to move said body parts away from each other out of said closed state.
A liquid tetraacetylethylenediamine composition comprising: 15 wt% to 20 wt% tetraacetylethylenediamine, 75 wt% or less water, 0.5 wt% to 2 wt% polymeric sulfonic acid, 1 wt% to 4 wt% of a buffer system, and 0.5 wt% to 3 wt% of at least one additive. 15 wt% to 20 wt% tetraacetylethylenediamine, 75 wt% or less water, 0.5 wt% to 2 wt% polymeric sulfonic acid, 1 wt% to 4 wt% of a buffer system, and 0.5 wt% to 3 wt% of at least one additive.
A macromolecule of Formula I: X-L-C-(K) n -(P) m Formula I wherein X represents a pharmaceutically active agent selected from insulin, an insulin analog, GLP, a GLP analog, and a GLP receptor agonist; L represents a linker selected from polyethylene glycol (PEG), polypropylene glycol, polyaryls, peptides, alkyl and alkenyl chains, and saccharides (mono, oligo and poly); C represents a core moiety having at least three functional groups each separately for attachment to L and attachment to at least two building units K, and wherein C is selected from a diamino or triamino moiety; K represents a lysine or a lysine analog building unit having at least two branching points for attachment to a pharmacokinetic modifier P or another building unit K; n is an integer from 14 to 126 and represents the total number of building units, and is a function of the number of generations and the extent of branching of the building units; P represents a pharmacokinetic modifier comprising PEG or PEOX; m is an integer from 4 to 128 and represents the number of surface pharmacokinetic modifiers. X represents a pharmaceutically active agent selected from insulin, an insulin analog, GLP, a GLP analog, and a GLP receptor agonist; L represents a linker selected from polyethylene glycol (PEG), polypropylene glycol, polyaryls, peptides, alkyl and alkenyl chains, and saccharides (mono, oligo and poly); C represents a core moiety having at least three functional groups each separately for attachment to L and attachment to at least two building units K, and wherein C is selected from a diamino or triamino moiety; K represents a lysine or a lysine analog building unit having at least two branching points for attachment to a pharmacokinetic modifier P or another building unit K; n is an integer from 14 to 126 and represents the total number of building units, and is a function of the number of generations and the extent of branching of the building units; P represents a pharmacokinetic modifier comprising PEG or PEOX; m is an integer from 4 to 128 and represents the number of surface pharmacokinetic modifiers.
A submarine optical transmission apparatus comprising: a plurality of first component housing units configured to be capable of housing either or both of an optical component and an electric component and to be stacked in a first direction; a case configured to be capable of housing the stacked first component housing units , a longitudinal direction thereof being a second direction orthogonal to the first direction; and a support member disposed in the case and configured to reinforce pressure resistance of the case, characterized in that the support member comprises a first plate member and a second member placed on the first flat plate member , wherein at least one of the first flat plate member and the second member comprises a groove formed on the side surface of the at least one of the first flat plate member and the second member facing a side surface of the other of the first flat plate member and the second member , and the groove is configured to house one or more optical fibers (F1, F2, F3) to be connected to the optical components to be housed in the first component housing units . a plurality of first component housing units configured to be capable of housing either or both of an optical component and an electric component and to be stacked in a first direction; a case configured to be capable of housing the stacked first component housing units , a longitudinal direction thereof being a second direction orthogonal to the first direction; and a support member disposed in the case and configured to reinforce pressure resistance of the case, characterized in that the support member comprises a first plate member and a second member placed on the first flat plate member , wherein at least one of the first flat plate member and the second member comprises a groove formed on the side surface of the at least one of the first flat plate member and the second member facing a side surface of the other of the first flat plate member and the second member , and the groove is configured to house one or more optical fibers (F1, F2, F3) to be connected to the optical components to be housed in the first component housing units .