mhurhangee/patent-ind-claim-en huggingface dataset:
A method of matching a donor and a recipient for transplantation of a biological material from a pool of a plurality of donor-recipient pairs, the method comprising: identifying a plurality of 1-way combinations, each 1-way combination including a compatible match between a single donor from one donor-recipient pair with a single recipient from another donor-recipient pair; performing a plurality of clinical tests to optimize compatibility of the 1-way combinations; and one of: selecting at least one of the 1-way combinations for performing a transplantation of the biological material from the single donor to the single recipient; or selecting at least two of the 1-way combinations for performing a paired exchange between two of the donor-recipient pairs; wherein the method includes performing two match runs including an exploratory match run and a final match run, utilizing the exploratory match run to identify those 1-way combinations that could be part of a solution that would actually lead to completed transplants, identification and vetting of those possible 1-way combinations in a short period of time, and using the 1-way combinations to generate an improved compatibility matrix of donors and recipients for identifying by the final match run a more robust optimised and mutually exclusive solution that is more likely to lead to completed transplants. identifying a plurality of 1-way combinations, each 1-way combination including a compatible match between a single donor from one donor-recipient pair with a single recipient from another donor-recipient pair; performing a plurality of clinical tests to optimize compatibility of the 1-way combinations; and one of: selecting at least one of the 1-way combinations for performing a transplantation of the biological material from the single donor to the single recipient; or selecting at least two of the 1-way combinations for performing a paired exchange between two of the donor-recipient pairs; selecting at least one of the 1-way combinations for performing a transplantation of the biological material from the single donor to the single recipient; or selecting at least two of the 1-way combinations for performing a paired exchange between two of the donor-recipient pairs;
An apparatus, comprising: a body of an aircraft; a wing coupled to the body , the wing configured to pivot forward from a deployed configuration, in which the wing extends from the body , to a retracted configuration, in which a tip portion of the wing is closer to a nose portion of the body than a root portion of the wing is to the nose portion; wherein a hinged beam is configured to transmit loads associated with flight from the wing to the body , a first portion of the beam being pivotably coupled to a second portion of the beam ; characterized by : the second portion of the beam being pivotably coupled to a root of the wing , and the wing has a positive dihedral in the deployed configuration and is substantially horizontal in the retracted configuration. a body of an aircraft; a wing coupled to the body , the wing configured to pivot forward from a deployed configuration, in which the wing extends from the body , to a retracted configuration, in which a tip portion of the wing is closer to a nose portion of the body than a root portion of the wing is to the nose portion; wherein a hinged beam is configured to transmit loads associated with flight from the wing to the body , a first portion of the beam being pivotably coupled to a second portion of the beam ; characterized by : the second portion of the beam being pivotably coupled to a root of the wing , and the wing has a positive dihedral in the deployed configuration and is substantially horizontal in the retracted configuration.
A method of operating a computing device, the method comprising: in response to a request from a user to carry out an operation using the device: determining an elapsed time period that has elapsed since the identity of the user was authenticated; determining a time period associated with a type of the requested operation; and enabling the requested operation if the elapsed time period is within the time period associated with the type of the requested operation, characterized in that the time period associated with one type of the requested operation is arranged to expire upon completion of the immediately preceding operation of the same type. determining an elapsed time period that has elapsed since the identity of the user was authenticated; determining a time period associated with a type of the requested operation; and enabling the requested operation if the elapsed time period is within the time period associated with the type of the requested operation, characterized in that the time period associated with one type of the requested operation is arranged to expire upon completion of the immediately preceding operation of the same type.
A method implemented in a wireless transmit receive unit, WTRU , the method comprising: establishing a radio resource control, RRC, connection via a first data path associated with a first serving site; receiving an RRC connection reconfiguration message via the first data path, wherein the RRC connection reconfiguration message comprises a configuration for the WTRU to add or modify one or more cells associated with a second data path to/of the RRC connection, wherein the RRC connection reconfiguration message indicates at least one data radio bearer, DRB, for use over the second data path, wherein the second data path is associated with a second serving site, wherein the first data path and the second data path are associated with separate physical layer configurations to be applied to a common type of radio interface, and wherein each signaling radio bearer, SRB, for the RRC connection is mapped to the first data path ; reconfiguring the RRC connection, based on the received configuration, to support operation with (i) one or more cells of the first serving site and (ii) one or more cells of the second serving site, wherein each of the first and second serving sites is assocaited with an independent scheduler; activating the at least one of the one or more cells of the second serving site; and monitoring a control channel of the at least one of the one or more cells of the second serving site based on activating the at least one of the one or more cells of second serving site. establishing a radio resource control, RRC, connection via a first data path associated with a first serving site; receiving an RRC connection reconfiguration message via the first data path, wherein the RRC connection reconfiguration message comprises a configuration for the WTRU to add or modify one or more cells associated with a second data path to/of the RRC connection, wherein the RRC connection reconfiguration message indicates at least one data radio bearer, DRB, for use over the second data path, wherein the second data path is associated with a second serving site, wherein the first data path and the second data path are associated with separate physical layer configurations to be applied to a common type of radio interface, and wherein each signaling radio bearer, SRB, for the RRC connection is mapped to the first data path ; reconfiguring the RRC connection, based on the received configuration, to support operation with (i) one or more cells of the first serving site and (ii) one or more cells of the second serving site, wherein each of the first and second serving sites is assocaited with an independent scheduler; activating the at least one of the one or more cells of the second serving site; and monitoring a control channel of the at least one of the one or more cells of the second serving site based on activating the at least one of the one or more cells of second serving site.
A riveting method comprising riveting a first aircraft part to a second aircraft part , by means of a riveting system comprising: a riveting tooling configured to assemble the first part to the second part by riveting, wherein the riveting tooling comprises a riveting head that is intended to come into contact with the first part and/or the second part , and a plenoptic image acquisition device , wherein the plenoptic image acquisition device is secured to the riveting head , characterized in that the riveting method further comprises: capturing a plenoptic image of a rivet and of the surroundings of the rivet, by the image acquisition device , after riveting the first part to the second part , and detecting the positioning and the surface condition of the rivet, from the plenoptic image captured by the image acquisition device . a riveting tooling configured to assemble the first part to the second part by riveting, wherein the riveting tooling comprises a riveting head that is intended to come into contact with the first part and/or the second part , and a plenoptic image acquisition device , wherein the plenoptic image acquisition device is secured to the riveting head , characterized in that the riveting method further comprises: capturing a plenoptic image of a rivet and of the surroundings of the rivet, by the image acquisition device , after riveting the first part to the second part , and detecting the positioning and the surface condition of the rivet, from the plenoptic image captured by the image acquisition device . capturing a plenoptic image of a rivet and of the surroundings of the rivet, by the image acquisition device , after riveting the first part to the second part , and detecting the positioning and the surface condition of the rivet, from the plenoptic image captured by the image acquisition device .
An anti-perspirant composition comprising: (i) a film forming polymer selected from modified cellulose having a solubility in water of less than 1 wt%; (ii) an organic solvent having a Hansen Solubility Parameter in the range of 17 to 28 MPa 0.5 ; and (iii) a plasticizer; wherein the modified cellulose is a C1 to C7 alkyl cellulose; and wherein the plasticizer is selected from one or more of triethyl citrate, polypropylene oxide (with Tg lower than 25°C), glycerol monostearate, stearic acid, cetyl alcohol, triethyl phosphate, or mineral oil. (i) a film forming polymer selected from modified cellulose having a solubility in water of less than 1 wt%; (ii) an organic solvent having a Hansen Solubility Parameter in the range of 17 to 28 MPa 0.5 ; and (iii) a plasticizer; wherein the modified cellulose is a C1 to C7 alkyl cellulose; and wherein the plasticizer is selected from one or more of triethyl citrate, polypropylene oxide (with Tg lower than 25°C), glycerol monostearate, stearic acid, cetyl alcohol, triethyl phosphate, or mineral oil.
Imprinting apparatus for a roll-to-plate imprinting process comprising a flexible master , a plate carrier and a substrate , whereby the flexible master is pressable upon the substrate during the imprinting process and the plate carrier comprises at least one substrate , whereby the plate carrier has at least one cavity wherein the at least one substrate is located characterized in that at least one substrate side-face is at least partially unenclosed by the cavity .
Lock for securing mobile objects, in particular bicycle lock, comprising a lock element and a flexible strand element , wherein two ends of the lock are connectable to each other by the lock element , and the lock element and the strand element are designed as structurally separate elements which are connectable to each other, wherein the strand element has a respective closure element at each of its ends , and the lock element has two separate connecting regions in which a respective closure element can be coupled to the lock element , characterized in that the respective strand ends of the strand element on sides of the lock element lying opposite each other by 180 degrees are designed to engage in the separate connecting regions, which are spaced apart in the direction of longitudinal extent, with the formation of a ring lying in a plane, wherein the lock element has a thickness perpendicular to the direction of longitudinal extent, said thickness being smaller than the width perpendicular to the direction of longitudinal extent, wherein the strand element has a smaller cross section than the lock element and is expanded in the region of the ends to the cross-sectional size and cross-sectional shape of the lock element.
A balanced turbomachine that including: - at least one angular sector arranged to form a balancing ring centered about a ring axis (C), said angular sector including a plurality of fasteners each adapted to fasten at least one respective balancing mass , said fasteners each including a threading axis (F), all the threading axes (F) substantially converging at a same point (P) on the ring axis (C), - a bearing face having a shape complementary to the balancing ring , the angular sector bearing on said bearing face , - a plurality of balancing masses each fastened to the corresponding fastener of the angular sector , characterized in that at least one of the balancing masses is also acting as an fastening means for fastening the angular sector to the bearing face . - at least one angular sector arranged to form a balancing ring centered about a ring axis (C), said angular sector including a plurality of fasteners each adapted to fasten at least one respective balancing mass , said fasteners each including a threading axis (F), all the threading axes (F) substantially converging at a same point (P) on the ring axis (C), - a bearing face having a shape complementary to the balancing ring , the angular sector bearing on said bearing face , - a plurality of balancing masses each fastened to the corresponding fastener of the angular sector , characterized in that at least one of the balancing masses is also acting as an fastening means for fastening the angular sector to the bearing face .
A rotary electric machine (M) having a stator (S) including a coil (C) and a cooling unit for cooling a coil end (CE) of the coil, which projects in an axial direction of the stator, wherein the cooling unit includes: an outer periphery cooling portion that is disposed along an outer peripheral surface of the coil end and includes a plurality of injection holes (ih) for injecting a cooling medium onto the outer peripheral surface; characterized in that the cooling unit also includes an end surface cooling portion that is disposed along an axial end surface of the coil end and includes a plurality of injection holes (ih) for injecting the cooling medium onto the axial end surface, and in that the cooling unit is formed from an insulating material and disposed in an insulating space between a case (MC1, MC2) housing the stator (S) and the coil end (CE). an outer periphery cooling portion that is disposed along an outer peripheral surface of the coil end and includes a plurality of injection holes (ih) for injecting a cooling medium onto the outer peripheral surface; characterized in that the cooling unit also includes an end surface cooling portion that is disposed along an axial end surface of the coil end and includes a plurality of injection holes (ih) for injecting the cooling medium onto the axial end surface, and in that the cooling unit is formed from an insulating material and disposed in an insulating space between a case (MC1, MC2) housing the stator (S) and the coil end (CE).
A method for reducing bit rate requirement over an uplink fronthaul link , the method being performed in a fronthaul transmitter of a radio network node and comprising the steps of: determining a group of frequency-domain resource elements having been received over a wireless channel; estimating channel information in the group of frequency-domain resource elements, the channel information relating to the wireless channel; reducing for each frequency-domain resource element in the group, using the estimated channel information, a number of bits for representing the respective frequency-domain resource element, to thereby obtain a modified resource element; transmitting the modified resource elements of the group over the fronthaul link to a fronthaul receiver ; and transmitting compression metadata, indicating how the reduction was performed, over the fronthaul link to the fronthaul receiver , characterized in that the compression metadata comprises the estimated channel information. determining a group of frequency-domain resource elements having been received over a wireless channel; estimating channel information in the group of frequency-domain resource elements, the channel information relating to the wireless channel; reducing for each frequency-domain resource element in the group, using the estimated channel information, a number of bits for representing the respective frequency-domain resource element, to thereby obtain a modified resource element; transmitting the modified resource elements of the group over the fronthaul link to a fronthaul receiver ; and transmitting compression metadata, indicating how the reduction was performed, over the fronthaul link to the fronthaul receiver , characterized in that the compression metadata comprises the estimated channel information.
A transgenic mouse whose genome comprises a polynucleotide sequence encoding a T cell receptor that is specific to a fluorescent protein, wherein the T cell receptor recognizes the fluorescent protein on an H-2K d allele and wherein a T cell of the mouse comprises the T cell receptor.
Method for the manufacturing of at least one tank with a shell , in particular a turbojet engine oil tank , said method comprising the following steps: (a) definition of different shell sections for each tank , whereof a first shell section has a recess and a second shell section has a bulge ; and (b) production of the shell sections by additive manufacturing; characterized in that the (b) production step comprises the production by additive manufacturing of the bulge of the second shell section in the recess of the first shell section ; in that the recess has a shape that is complementary to the shape of the bulge ; in that the first shell section and the second shell section each comprise a spheroidal portion, said spheroidal portions being embedded one in the other at the end of the (b) production step; in that during step (a) definition , at least a third of the shell section is defined with a recess and a bulge ; and in that at the end of the (b) production step the bulge on the third shell section is embedded in the recess in the first shell section through the second shell section . (a) definition of different shell sections for each tank , whereof a first shell section has a recess and a second shell section has a bulge ; and (b) production of the shell sections by additive manufacturing; characterized in that the (b) production step comprises the production by additive manufacturing of the bulge of the second shell section in the recess of the first shell section ; in that the recess has a shape that is complementary to the shape of the bulge ; in that the first shell section and the second shell section each comprise a spheroidal portion, said spheroidal portions being embedded one in the other at the end of the (b) production step; in that during step (a) definition , at least a third of the shell section is defined with a recess and a bulge ; and in that at the end of the (b) production step the bulge on the third shell section is embedded in the recess in the first shell section through the second shell section .
A training method for an image enhancement model, comprising: determining a plurality of sample image groups photographed by a shooting device; determining a target image and a training input image group, which are associated with each sample image group; constructing a plurality of training pairs, wherein each training pair comprises a training input image group and a corresponding target image; inputting each training input image group into the image enhancement model to obtain a predicted image output by the image enhancement model; performing frequency division processing on gray scale component images of the predicted images to obtain gray scale frequency division images of the predicted images in a plurality of frequency intervals, and performing frequency division processing on gray scale component images of the corresponding target images to obtain gray scale frequency division images of the target images in the plurality of frequency intervals; and training the image enhancement model until convergence through loss functions respectively corresponding to the plurality of training pairs; wherein each loss function comprises a plurality of gray scale loss components corresponding to the plurality of frequency intervals one to one, each gray scale loss component is determined based on a difference between the gray scale frequency division image of each predicted image and the gray scale frequency division image of the corresponding target image in each frequency interval, and different gray scale loss components correspond to different frequency intervals. determining a plurality of sample image groups photographed by a shooting device; determining a target image and a training input image group, which are associated with each sample image group; constructing a plurality of training pairs, wherein each training pair comprises a training input image group and a corresponding target image; inputting each training input image group into the image enhancement model to obtain a predicted image output by the image enhancement model; performing frequency division processing on gray scale component images of the predicted images to obtain gray scale frequency division images of the predicted images in a plurality of frequency intervals, and performing frequency division processing on gray scale component images of the corresponding target images to obtain gray scale frequency division images of the target images in the plurality of frequency intervals; and training the image enhancement model until convergence through loss functions respectively corresponding to the plurality of training pairs; wherein each loss function comprises a plurality of gray scale loss components corresponding to the plurality of frequency intervals one to one, each gray scale loss component is determined based on a difference between the gray scale frequency division image of each predicted image and the gray scale frequency division image of the corresponding target image in each frequency interval, and different gray scale loss components correspond to different frequency intervals.