mhurhangee/patent-ind-claim-en huggingface dataset:
A method for performing wireless communication by a first device , the method comprising: receiving, from a first base station , information related to a sidelink, SL, bandwidth part, BWP; receiving, from the first base station , information related to an uplink, LTL, BWP; receiving, from the first base station , -i-information related to a first SL resource, and -ii-information related to a first UL resource for reporting hybrid automatic repeat request, HARQ, feedback, the method being characterized by further comprising determining not to perform SL transmission on the first SL resource within the SL BWP; and transmitting, to the first base station , HARQ NACK on the first UL resource within the UL BWP, based on the determination. receiving, from a first base station , information related to a sidelink, SL, bandwidth part, BWP; receiving, from the first base station , information related to an uplink, LTL, BWP; receiving, from the first base station , -i-information related to a first SL resource, and -ii-information related to a first UL resource for reporting hybrid automatic repeat request, HARQ, feedback, the method being characterized by further comprising determining not to perform SL transmission on the first SL resource within the SL BWP; and transmitting, to the first base station , HARQ NACK on the first UL resource within the UL BWP, based on the determination.
Filling device intended to be installed on a toilet tank and to be coupled to water supply means , the device comprising a valve intended to be coupled to water supply means and the tank having a wall provided with an orifice dedicated to the passage of the valve and extending between an inner face and an outer face of the tank , the valve comprising: - a main body intended to extend in height inside the tank , the main body bearing means for distributing water and means for opening/closing water circulation between said supply means and the distribution means , - a connecting end intended to extend outside the reservoir , and the filling device also comprising a sealing element intended to form a sealed barrier between the main body of the valve and the inner face of the reservoir , the sealing element having a central barrel which is intended to receive a portion of the main body , the sealing element , when not installed, having a bead projecting into the central barrel , the bead being intended to be housed, when the sealing element is installed, in a peripheral groove of the main body of the valve . - a main body intended to extend in height inside the tank , the main body bearing means for distributing water and means for opening/closing water circulation between said supply means and the distribution means , - a connecting end intended to extend outside the reservoir , and
A method for recognizing time information from speech data, comprising the following steps: Collecting (S10) speech data, recognizing the speech data that contains time information, and obtaining (S10) text information corresponding to the speech data; identifying (S20) at least a first time feature matching the text information, the first time feature is a spoken expression of a time unit, characterized by searching (S20) within a plurality of configuration files for a configuration file including the first time feature, obtaining (S20) a time identifier corresponding to the first time feature from the configuration file, the configuration files are corresponding to multiple pre-defined time lengths of time units, at least one of the configuration files includes multiple spoken expressions of a time unit, and each spoken expression of a time unit is mapped to a time identifier which identifies the time unit; assigning (S30) the time identifier to a field that is in intermediate data which includes multiple fields, each of the fields is pre-defined to be corresponding to a configuration file of the plurality of configuration files, the field corresponds to the configuration file in which the first time feature is located; and obtaining (S40), according to content of the fields in the intermediate data, time data corresponding to the time information contained in the speech data. Collecting (S10) speech data, recognizing the speech data that contains time information, and obtaining (S10) text information corresponding to the speech data; identifying (S20) at least a first time feature matching the text information, the first time feature is a spoken expression of a time unit, characterized by searching (S20) within a plurality of configuration files for a configuration file including the first time feature, obtaining (S20) a time identifier corresponding to the first time feature from the configuration file, the configuration files are corresponding to multiple pre-defined time lengths of time units, at least one of the configuration files includes multiple spoken expressions of a time unit, and each spoken expression of a time unit is mapped to a time identifier which identifies the time unit; assigning (S30) the time identifier to a field that is in intermediate data which includes multiple fields, each of the fields is pre-defined to be corresponding to a configuration file of the plurality of configuration files, the field corresponds to the configuration file in which the first time feature is located; and obtaining (S40), according to content of the fields in the intermediate data, time data corresponding to the time information contained in the speech data.
A method of performing communication by a user equipment, UE, in a time division duplex, TDD,-based wireless communication system, the method comprising: configuring a first uplink-downlink, UL-DL, configuration for a primary cell, PCell, and a second UL-DL configuration for a secondary cell, SCell, wherein the first and the second UL-DL configurations are different; receiving information on a reference UL-DL configuration; and performing a signal processing operation for transmission or reception in a subframe #k1 or a subframe #k2, having a transmission direction matched with the transmission direction of the subframe of the reference UL-DL configuration, wherein a subframe configuration of the subframe #k1 based on the first UL-DL configuration is different from a subframe configuration of the subframe #k1 based on the second UL-DL configuration, wherein a subframe configuration of the subframe #k2 based on the first UL-DL configuration is same with a subframe configuration of the subframe #k2 based on the second UL-DL configuration, wherein when the subframe #k1 is used, the signal processing operation is performed in one cell having a same subframe configuration with the reference UL-DL configuration, for the subframe #k1, wherein when the subframe #k2 is used, the signal processing operation is performed in the PCell and the SCell, and characterized in that configurations related to Channel State Information, CSI, process and configurations related to power control are independently configured for each of the subframe #k1 and the subframe #k2. configuring a first uplink-downlink, UL-DL, configuration for a primary cell, PCell, and a second UL-DL configuration for a secondary cell, SCell, wherein the first and the second UL-DL configurations are different; receiving information on a reference UL-DL configuration; and performing a signal processing operation for transmission or reception in a subframe #k1 or a subframe #k2, having a transmission direction matched with the transmission direction of the subframe of the reference UL-DL configuration, wherein a subframe configuration of the subframe #k1 based on the first UL-DL configuration is different from a subframe configuration of the subframe #k1 based on the second UL-DL configuration, wherein a subframe configuration of the subframe #k2 based on the first UL-DL configuration is same with a subframe configuration of the subframe #k2 based on the second UL-DL configuration, wherein when the subframe #k1 is used, the signal processing operation is performed in one cell having a same subframe configuration with the reference UL-DL configuration, for the subframe #k1, wherein when the subframe #k2 is used, the signal processing operation is performed in the PCell and the SCell, and characterized in that configurations related to Channel State Information, CSI, process and configurations related to power control are independently configured for each of the subframe #k1 and the subframe #k2.
Knife blade for a cutting knife of an agricultural harvesting machine, with a blade top side and a blade bottom side , wherein a surface of the blade bottom side is composed of a planar surface arranged in a plane (E) and a recess region extending above the plane, wherein a height of the knife blade corresponds to a maximum distance (Z) between the blade top side and the planar surface in a direction (N) normal to the plane, wherein a material thickness of the knife blade corresponds to a distance between the blade top side and the blade bottom side, and wherein the material thickness is in at least a part of the knife blade less than the height of the knife blade, characterized in, that the knife blade has at least one opening , wherein the opening is located in the knife blade and wherein a partial surface of the planar surface of the surface of the blade bottom side is arranged around the at least one opening.
A computer implemented method for performing bone segmentation in imaging data of a section of a body structure, the method comprising: Obtaining the imaging data including a plurality of 2D images of the section of the body structure; Performing a multiphase local-based hybrid level set segmentation to obtain a plurality of segmented blobs on at least a subset of the plurality of 2D images by minimizing an energy functional including a local-based edge term and a local-based region term computed locally inside a local neighborhood centered at each pixel of each one of the 2D images on which the multiphase local-based hybrid level set segmentation is performed, the local neighborhood being defined by a Gaussian kernel whose size is determined by a scale parameter σ ; Generating a 3D volume including a plurality of 3D subvolumes from the segmented blobs; and Associating an anatomical component to each one of the 3D subvolumes using anatomical knowledge data relative to the section of the body structure of the imaging data and identifying bones defined by the subvolumes. Obtaining the imaging data including a plurality of 2D images of the section of the body structure; Performing a multiphase local-based hybrid level set segmentation to obtain a plurality of segmented blobs on at least a subset of the plurality of 2D images by minimizing an energy functional including a local-based edge term and a local-based region term computed locally inside a local neighborhood centered at each pixel of each one of the 2D images on which the multiphase local-based hybrid level set segmentation is performed, the local neighborhood being defined by a Gaussian kernel whose size is determined by a scale parameter σ ; Generating a 3D volume including a plurality of 3D subvolumes from the segmented blobs; and Associating an anatomical component to each one of the 3D subvolumes using anatomical knowledge data relative to the section of the body structure of the imaging data and identifying bones defined by the subvolumes.
Method for controlling valves (14a-14j) of a spray boom of an agricultural spreading machine, comprising the steps of: - generating valve-specific voltage signals (U a , U e ) for controlling a plurality of valves (14a-14j) arranged on the spray boom ; and - providing the valve-specific voltage signals (U a , U e ) to the respective valves (14a-14j), characterized in that the generated valve-specific voltage signals (U a , U e ) are pulse width modulated and each has a valve-specific duty cycle (D a -D j ), wherein the duty cycle corresponds to the quotient of pulse duration and period duration, wherein the valve-specific duty cycles (D a -D j ) compensate for, or at least reduce, the influences on the valve-specific flow rate of spray liquid which depend on the position of the respective valves (14a-14j) on the spray boom , wherein the duty cycles of each individual or all voltage signals differ from one another, despite identical target flow rates of spray liquid. - generating valve-specific voltage signals (U a , U e ) for controlling a plurality of valves (14a-14j) arranged on the spray boom ; and - providing the valve-specific voltage signals (U a , U e ) to the respective valves (14a-14j), characterized in that the generated valve-specific voltage signals (U a , U e ) are pulse width modulated and each has a valve-specific duty cycle (D a -D j ), wherein the duty cycle corresponds to the quotient of pulse duration and period duration, wherein the valve-specific duty cycles (D a -D j ) compensate for, or at least reduce, the influences on the valve-specific flow rate of spray liquid which depend on the position of the respective valves (14a-14j) on the spray boom , wherein the duty cycles of each individual or all voltage signals differ from one another, despite identical target flow rates of spray liquid.
Method for convective drying of bulk material in a container , wherein in a drying step a gas mixture flows around the bulk material to be dried in the container , which gas mixture takes up water contained in the bulk material to be dried and is then discharged from the container , wherein before the drying step a cooling step is carried out in which the bulk material is brought to a temperature lower than the ambient temperature, wherein both the cooling step and the drying step take place in the same gas-tight container , wherein the drying step takes place in an inert atmosphere, wherein the inert atmosphere is produced by introducing an inert gas mixture into the container , wherein the inert gas mixture consists of nitrogen, carbon dioxide and at least one noble gas, preferably argon, wherein in the drying step the gas mixture is heated via a first heat exchanger , which is connected to a hot-water storage tank , wherein the cooling air is cooled by a second heat exchanger , which is connected to a cold water storage tank , and wherein process heat is recovered by means of a heat pump from water which originates from the cold water storage tank and has been heated by heat exchange in the second heat exchanger , and hot water is supplied to the hot water storage tank via the heat pump by means of an inlet .
A drug delivery device , comprising: a drug container for storing a liquid drug , an end of the drug container sealed by a plunger ; a needle conduit coupled to the plunger ; a needle insertion component coupled to the needle conduit ; and a drive component coupled to the plunger , the drive component comprising a drive spring and a plurality of spheres , characterized in that the drive spring comprises two or more compression springs arranged in series, and at least one of the two or more compression springs is positioned between two adjacent spheres of the plurality of spheres . a drug container for storing a liquid drug , an end of the drug container sealed by a plunger ; a needle conduit coupled to the plunger ; a needle insertion component coupled to the needle conduit ; and a drive component coupled to the plunger , the drive component comprising a drive spring and a plurality of spheres , characterized in that the drive spring comprises two or more compression springs arranged in series, and at least one of the two or more compression springs is positioned between two adjacent spheres of the plurality of spheres .
A flat knitting machine provided with a needle bed in which a plurality of knitting needles are arranged side-by-side, and a moving body (2A-2D) that is involved in knitting of a knitted fabric by traveling along a rail , the flat knitting machine characterized by : a primary coil that is connected to a power supply of the flat knitting machine and has an axis that is held parallel with an axis of the rail ; a tubular member that is provided on the moving body (2A-2D), the primary coil passing through the tubular member ; a secondary coil that is wound around the tubular member and receives electrical power from the primary coil through electromagnetic induction; a control circuit that is provided on the moving body (2A-2D) and is connected to the secondary coil ; and at least one electrical device that is provided on the moving body (2A-2D) and operates under control of the control circuit . a primary coil that is connected to a power supply of the flat knitting machine and has an axis that is held parallel with an axis of the rail ; a tubular member that is provided on the moving body (2A-2D), the primary coil passing through the tubular member ; a secondary coil that is wound around the tubular member and receives electrical power from the primary coil through electromagnetic induction; a control circuit that is provided on the moving body (2A-2D) and is connected to the secondary coil ; and at least one electrical device that is provided on the moving body (2A-2D) and operates under control of the control circuit .
Tracheal ventilation device , in particular a tracheostomy cannula, with an outer cannula and an inner cannula , wherein the inner cross section of the outer cannula and the outer cross section of the inner cannula are matched to each other in such a way that the inner cannula is movable with play in the outer cannula , wherein the outer cannula has a cuff for sealing and fixing the outer cannula in the trachea, wherein a radially deformable tube section is provided whose ends are connected sealingly to the outer cannula , wherein a region of the tube section between the ends of the latter is radially movable from a first state to a second state, and vice versa, and wherein, in the second state, the tube section seals off the inner cannula inserted into the outer cannula , characterized in that the radially movable tube section lies axially between the distal and proximal ends of the cuff , which are connected to the outer cannula, wherein the tube section is subjected to the pressure of the cuff.
A stent , comprising: a first hollow cylindrical body portion formed by weaving a metal wire; a second hollow cylindrical body portion formed by weaving a metal wire, and configured to surround the first body portion ; characterized in that the stent further comprises an expanded portion which is configured to combine two adjacent ends of the first body portion and the second body portion integrally; and a membrane inserted between the first body portion and the second body portion , and configured to surround an outside of the first body portion . a first hollow cylindrical body portion formed by weaving a metal wire; a second hollow cylindrical body portion formed by weaving a metal wire, and configured to surround the first body portion ; characterized in that the stent further comprises an expanded portion which is configured to combine two adjacent ends of the first body portion and the second body portion integrally; and a membrane inserted between the first body portion and the second body portion , and configured to surround an outside of the first body portion .
A process for the preparation of a polymer from at least one monomer A which is a vinyl halide monomer and at least one monomer B by free radical polymerization in aqueous medium, wherein the monomer B is a monomer whose polymer has a T g lower than that of the polymer produced by polymerizing the at least one vinyl halide monomer, and the ratio of the at least one vinyl halide monomer A to the at least another monomer B in wt% in the polymer is from 99.7/0.3 to 40/60, the process comprising the following steps: a) mixing water, at least one amphiphilic substance, from 10 to 100 wt% of the total amount of the at least one monomer B, optionally a buffer, and optionally from 0.1 to 10 wt % of the at least one monomer A with respect to the at least one monomer B in step a), at an appropriate temperature to carry out the polymerization of monomer B, and adding a thermal or a redox initiator in order to start polymerization and allowing the system to react until reaching a conversion from 10 to 80 mol% of monomer B, b) adding from 20 to 100 wt% of the remaining amount of monomer A to be added, optionally, an additional amount of the amphiphilic substance, optionally, an additional amount of the initiator, optionally, a buffer; and the remaining amount of the at least one monomer B, allowing the mixture to react until the conversion of the monomers reaches a value higher than 20 wt%, c) adding the remaining amount of the at least one monomer A, optionally, an additional amount of the amphiphilic substance, optionally, an additional amount of the initiator, and optionally an additional amount of the buffer, allowing the system to react until reaching a conversion higher than 70%. a) mixing water, at least one amphiphilic substance, from 10 to 100 wt% of the total amount of the at least one monomer B, optionally a buffer, and optionally from 0.1 to 10 wt % of the at least one monomer A with respect to the at least one monomer B in step a), at an appropriate temperature to carry out the polymerization of monomer B, and adding a thermal or a redox initiator in order to start polymerization and allowing the system to react until reaching a conversion from 10 to 80 mol% of monomer B, b) adding from 20 to 100 wt% of the remaining amount of monomer A to be added, optionally, an additional amount of the amphiphilic substance, optionally, an additional amount of the initiator, optionally, a buffer; and the remaining amount of the at least one monomer B, allowing the mixture to react until the conversion of the monomers reaches a value higher than 20 wt%, c) adding the remaining amount of the at least one monomer A, optionally, an additional amount of the amphiphilic substance, optionally, an additional amount of the initiator, and optionally an additional amount of the buffer, allowing the system to react until reaching a conversion higher than 70%.
A medical device comprising: a. a first porous substrate layer having at least one major facing surface with at least a surface coating thereon of a first co-reactive component; b. a second substrate layer having at least one major facing surface with at least a surface coating layer of a second co-reactive component that reacts with the first co-reactive component; and c. a removable barrier layer positioned between the first substrate layer and second substrate layer and in contact with at least one major facing surface or a surface coating, each, independently of one another, from said first substrate layer and said second substrate layer. a. a first porous substrate layer having at least one major facing surface with at least a surface coating thereon of a first co-reactive component; b. a second substrate layer having at least one major facing surface with at least a surface coating layer of a second co-reactive component that reacts with the first co-reactive component; and c. a removable barrier layer positioned between the first substrate layer and second substrate layer and in contact with at least one major facing surface or a surface coating, each, independently of one another, from said first substrate layer and said second substrate layer.
An implantable prosthetic device for helping to seal native heart valves and prevent or reduce regurgitation therethrough, the prosthetic device comprising: a coaption element ; a plurality of paddles moveable from a closed position to an open position such as to capture native mitral or tricuspid valve leaflets between the paddles and the coaption element ; a plurality of clasps moveable from an open position to a closed position; and a covering over the coaption element and paddles . a coaption element ; a plurality of paddles moveable from a closed position to an open position such as to capture native mitral or tricuspid valve leaflets between the paddles and the coaption element ; a plurality of clasps moveable from an open position to a closed position; and a covering over the coaption element and paddles .