mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method comprising: receiving (302, 2.01), from a requesting member , a request for a sponsored network service modification, the request including an identification of a first sponsoring member for the sponsored network service modification and a time duration for the sponsored network service modification; providing (2.02), to the requesting member, a key for activating the sponsored network service modification; generating (304, 2.03), a group associated with the first sponsoring member and the requesting member, the group including a group policy comprising a reference to the sponsored network service modification and the time duration; receiving (308, 2.05), from the first sponsoring member, the key; in response to receiving the activation key from the first sponsoring member, modifying (310, 2.15), according to the group policy, a first network policy applied to the requesting member and a second network policy applied to the first sponsoring member, the modification of the first network policy including an increase in a Quality of Service, QoS, for the requesting member and the modification to the second network policy including a decrease in a QoS for the first sponsoring member; and reverting (312, 2.18-2.19) the modification to the first network policy and the second network policy in response to the time duration completing. receiving (302, 2.01), from a requesting member , a request for a sponsored network service modification, the request including an identification of a first sponsoring member for the sponsored network service modification and a time duration for the sponsored network service modification; providing (2.02), to the requesting member, a key for activating the sponsored network service modification; generating (304, 2.03), a group associated with the first sponsoring member and the requesting member, the group including a group policy comprising a reference to the sponsored network service modification and the time duration; receiving (308, 2.05), from the first sponsoring member, the key; in response to receiving the activation key from the first sponsoring member, modifying (310, 2.15), according to the group policy, a first network policy applied to the requesting member and a second network policy applied to the first sponsoring member, the modification of the first network policy including an increase in a Quality of Service, QoS, for the requesting member and the modification to the second network policy including a decrease in a QoS for the first sponsoring member; and reverting (312, 2.18-2.19) the modification to the first network policy and the second network policy in response to the time duration completing.
A method of selecting an antenna configuration for communicating in a wireless communication network by a user equipment, UE , comprising: determining that a rear guard period for changing from a first antenna configuration to a second antenna configuration is not needed between a scheduled sounding reference signal, SRS, transmission and a scheduled downlink transmission; transmitting the scheduled SRS transmission using the first antenna configuration; changing from the first antenna configuration to the second antenna configuration; and receiving the scheduled downlink transmission using the second antenna configuration without observing the rear guard period, wherein determining that the rear guard period is not needed comprises: determining a propagation delay between a base station and a user equipment is sufficient to allow for changing between the first antenna configuration and the second antenna configuration without the rear guard period; or determining that it is not necessary to receive a first symbol of the scheduled downlink transmission. determining that a rear guard period for changing from a first antenna configuration to a second antenna configuration is not needed between a scheduled sounding reference signal, SRS, transmission and a scheduled downlink transmission; transmitting the scheduled SRS transmission using the first antenna configuration; changing from the first antenna configuration to the second antenna configuration; and receiving the scheduled downlink transmission using the second antenna configuration without observing the rear guard period, determining a propagation delay between a base station and a user equipment is sufficient to allow for changing between the first antenna configuration and the second antenna configuration without the rear guard period; or determining that it is not necessary to receive a first symbol of the scheduled downlink transmission.
A targeting nucleic acid vector, comprising a 5' homology arm comprising a genomic sequence upstream of exon 2 of a mouse CD47 gene, a genomic DNA fragment comprising exons 2-7 of a human CD47 gene, a drug selection cassette, and a 3' homology arm comprising a genomic sequence downstream of exon 7 of a mouse CD47 gene, wherein the 5' and 3' homology arms mediate integration of the genomic fragment comprising exons 2-7 of a human CD47 gene into a mouse CD47 locus. a 5' homology arm comprising a genomic sequence upstream of exon 2 of a mouse CD47 gene, a genomic DNA fragment comprising exons 2-7 of a human CD47 gene, a drug selection cassette, and a 3' homology arm comprising a genomic sequence downstream of exon 7 of a mouse CD47 gene,
A multimodal imaging apparatus , comprising: a rotatable gantry system positioned at least partially around a patient support ; a first source of radiation coupled to the rotatable gantry system, the first source of radiation configured for imaging radiation; a second source of radiation coupled to the rotatable gantry system, the second source of radiation configured for imaging radiation and therapeutic radiation, wherein the second source of radiation has an energy level more than the first source of radiation; and a first radiation detector (24; 34) coupled to the rotatable gantry system and positioned to receive radiation from at least one of the first source of radiation or the second source of radiation; wherein a first measured projection data from the first source of radiation comprises more attenuation than a second measured projection data from the second source of radiation, and wherein a first attenuation estimate associated with the first measured projection data is based on the second measured projection data. a rotatable gantry system positioned at least partially around a patient support ; a first source of radiation coupled to the rotatable gantry system, the first source of radiation configured for imaging radiation; a second source of radiation coupled to the rotatable gantry system, the second source of radiation configured for imaging radiation and therapeutic radiation, wherein the second source of radiation has an energy level more than the first source of radiation; and a first radiation detector (24; 34) coupled to the rotatable gantry system and positioned to receive radiation from at least one of the first source of radiation or the second source of radiation; wherein a first measured projection data from the first source of radiation comprises more attenuation than a second measured projection data from the second source of radiation, and wherein a first attenuation estimate associated with the first measured projection data is based on the second measured projection data.
A lower limb prosthetic device adapted to be connected to an attachment section configured to attach to the limb, or a socket to receive the limb, of an amputee, the prosthetic device comprising: a leaf spring member , said leaf spring member having a proximal, upper end , comprising an upper mounting device , which can be attached to the attachment section, the leaf spring member further comprising a distal, lower end , comprising a lower mounting device , which can be attached to a prosthetic foot member, the leaf spring member being connected to a straight elongate intermediate part , in the distal, lower end , wherein the straight elongate intermediate part is adapted to be further connected to the prosthetic foot member; characterized in that , the straight elongate intermediate part is adjustable in length and in that the upper mounting device and the lower mounting device are adapted to be adjustably attached by means of an upper releasable nut and bolt combination , a lower releasable nut and bolt combination , running in a respective upper groove , and lower groove , respectively. a leaf spring member , said leaf spring member having a proximal, upper end , comprising an upper mounting device , which can be attached to the attachment section, the leaf spring member further comprising a distal, lower end , comprising a lower mounting device , which can be attached to a prosthetic foot member, the leaf spring member being connected to a straight elongate intermediate part , in the distal, lower end , wherein the straight elongate intermediate part is adapted to be further connected to the prosthetic foot member; characterized in that , the straight elongate intermediate part is adjustable in length and in that the upper mounting device and the lower mounting device are adapted to be adjustably attached by means of an upper releasable nut and bolt combination , a lower releasable nut and bolt combination , running in a respective upper groove , and lower groove , respectively.
A method of single cell(s) mass spectrometry (MS) imaging, the method comprising the steps of (a) Culturing cells on a substrate, wherein the cells are cultured in a monolayer, (b) phenotyping the cell(s) by microscopy to obtain at least one optical (preferably fluorescent) image showing an optical phenotype of the cell(s), (c) phenotyping of the cell(s) by imaging MS to obtain an MS molecular image showing a molecular phenotype of the cell(s), (c') obtaining an optical ablation mark image, for example by bright field microscopy, (d) comparing the optical image and the MS molecular image to compare and/or correlate and/or assign the optical phenotype of at least one single cell with the corresponding molecular phenotype of at least one single cell, wherein step (b) is performed before step (c), and wherein imaging MS is MALDI imaging, and wherein the ablation marks in the ablation mark image are segregated. (a) Culturing cells on a substrate, wherein the cells are cultured in a monolayer, (b) phenotyping the cell(s) by microscopy to obtain at least one optical (preferably fluorescent) image showing an optical phenotype of the cell(s), (c) phenotyping of the cell(s) by imaging MS to obtain an MS molecular image showing a molecular phenotype of the cell(s), (c') obtaining an optical ablation mark image, for example by bright field microscopy, (d) comparing the optical image and the MS molecular image to compare and/or correlate and/or assign the optical phenotype of at least one single cell with the corresponding molecular phenotype of at least one single cell, wherein step (b) is performed before step (c), and wherein imaging MS is MALDI imaging, and wherein the ablation marks in the ablation mark image are segregated.
A method of constructing a liquefied gas storage tank on land, comprising: producing unit-wall structures made of concrete and each having a front set and rear set of iron rods arranged lengthwise and breadthwise therein; stacking the unit-wall structures in a cylindrical arrangement; and connecting the unit-wall structures adjacent in vertical and lateral directions to each other to form a wall of the storage tank, wherein each of the unit-wall structures having respective grooves on upper and lower surfaces thereof, and stacking the unit-wall structures includes interposing a positioning block between the groove formed on the lower surface of the upper unit-wall structure and the groove formed on the upper surface of the lower unit-wall structure to be fitted into the grooves to allow the unit-wall structures to be located in place when the unit-wall structures are stacked, characterised in that the positioning block is located between protruded ends of the lengthwise iron rods of the front set of iron rods and protruded ends of the lengthwise iron rods of the rear set of iron rods. producing unit-wall structures made of concrete and each having a front set and rear set of iron rods arranged lengthwise and breadthwise therein; stacking the unit-wall structures in a cylindrical arrangement; and connecting the unit-wall structures adjacent in vertical and lateral directions to each other to form a wall of the storage tank, wherein each of the unit-wall structures having respective grooves on upper and lower surfaces thereof, and stacking the unit-wall structures includes interposing a positioning block between the groove formed on the lower surface of the upper unit-wall structure and the groove formed on the upper surface of the lower unit-wall structure to be fitted into the grooves to allow the unit-wall structures to be located in place when the unit-wall structures are stacked, characterised in that the positioning block is located between protruded ends of the lengthwise iron rods of the front set of iron rods and protruded ends of the lengthwise iron rods of the rear set of iron rods.
A lubrication system for an attritable aircraft gas turbine engine , the lubrication system comprising: a bearing chamber; a fluid filtering inlet configured to receive a fluid; a fluid filtering outlet located downstream of the fluid filtering inlet and configured to deliver the fluid to the bearing chamber; a lattice positioned in a lubrication flow pathway between the fluid filtering inlet and the fluid filtering outlet and configured to filter the fluid, wherein the lattice is formed of a repeated pattern of multiple spar assemblies formed adjacent to one another and wherein each of the multiple spar assemblies comprises a plurality of spars that are sized and oriented to filter particulates in the fluid; and a metering port , configured to meter the fluid and located downstream of the lattice and upstream of the fluid filtering outlet , wherein the lattice is an integrated lattice network of the spars and is additively manufactured such that it is integral with the attritable aircraft gas turbine engine . a bearing chamber; a fluid filtering inlet configured to receive a fluid; a fluid filtering outlet located downstream of the fluid filtering inlet and configured to deliver the fluid to the bearing chamber; a lattice positioned in a lubrication flow pathway between the fluid filtering inlet and the fluid filtering outlet and configured to filter the fluid, wherein the lattice is formed of a repeated pattern of multiple spar assemblies formed adjacent to one another and wherein each of the multiple spar assemblies comprises a plurality of spars that are sized and oriented to filter particulates in the fluid; and a metering port , configured to meter the fluid and located downstream of the lattice and upstream of the fluid filtering outlet , wherein the lattice is an integrated lattice network of the spars and is additively manufactured such that it is integral with the attritable aircraft gas turbine engine .
A terminal for communication with a radio base station that configures a plurality of cell groups each of which including one or more cells, the terminal comprising: a control section configured to control six or more component carriers configured by the radio base station; a transmitting/receiving section configured to receive information on a plurality of component carriers configured by the radio base station and to feed back uplink control information, UCI, including ACK/NACK information to one of the component carriers in each cell group by using a physical uplink control channel, PUCCH, or a physical uplink shared channel, PUSCH; wherein the control section is further configured to control whether or not to bundle a plurality of ACK/NACK bits, depending on whether the UCI is transmitted by using the PUCCH or the PUSCH, whereby when no component carrier is assigned with PUSCH, ACK/NACK bundling is performed and the ACK/NACK is transmitted using a PUCCH resource, and when a component carrier is assigned with PUSCH, ACK/NACK bundling is not performed and the ACK/NACK is transmitted using a PUSCH resource. a control section configured to control six or more component carriers configured by the radio base station; a transmitting/receiving section configured to receive information on a plurality of component carriers configured by the radio base station and to feed back uplink control information, UCI, including ACK/NACK information to one of the component carriers in each cell group by using a physical uplink control channel, PUCCH, or a physical uplink shared channel, PUSCH; wherein the control section is further configured to control whether or not to bundle a plurality of ACK/NACK bits, depending on whether the UCI is transmitted by using the PUCCH or the PUSCH, whereby when no component carrier is assigned with PUSCH, ACK/NACK bundling is performed and the ACK/NACK is transmitted using a PUCCH resource, and when a component carrier is assigned with PUSCH, ACK/NACK bundling is not performed and the ACK/NACK is transmitted using a PUSCH resource.
A high-capacity synchronizer ring for a manual transmission, the high-capacity synchronizer ring comprising a ring formed by working an iron plate having a uniform thickness, wherein the ring has a single structure in which a plurality of protrusion portions is formed on an inner side thereof and a plurality of cutout portions located at centers of the respective protrusion portions is formed in an outer side thereof, and the ring is bent to be tapered inward, characterized in that second cutout portions are formed between every two neighboring ones of the protrusion portions at equal intervals.
A solar cell module for integration into buildings, comprising: an external glass panel and an internal glass panel which are used as external walls of the buildings; and a double glass module which is disposed between the external and internal glass panels , characterized in that the external and internal glass panels are tempered glass panels; wherein the double glass module is comprised of a first ethylene vinyl acetate film , a cell , a second ethylene vinyl acetate film and a glass ink coated layer ; and wherein at least one of the external and internal tempered glass panels is a refractive tempered glass panel, the panel having a surface with a concavo-convex structure, wherein the glass ink coated layer is formed by screen-printing a desired design pattern on a surface of the internal tempered glass panel through a spraying operation using glass ink and then heat-curing the design pattern at a temperature of 500 to 800°C so that the glass ink is fused into and attached to the surface of the internal tempered glass panel , wherein the concavo-convex structure has a triangular shape in section, and a front corner angle of the triangular shape is 50 to 60 degrees, wherein an edge portion between the external and internal tempered glass panels is sealed with a sealant , and wherein the sealant comprises a first sealant formed of BU-TPS containing an isobutylene polymer and a thermoplastic polymer, and a second sealant which is applied to an outside portion of the first sealant and formed of Thiokol.
A flexible sensor belt suitable for being worn around an abdominal part of a human body, comprising an electrode portion having one or more electrodes with a surface for contacting a skin of the body, a flexible printed circuit board (flex-PCB) carrying wiring that connects the one or more electrodes for readout, and a barrier that encapsulates the wiring wherein the barrier includes: a primary barrier structure formed by a dielectric carrier substrate of the flex-PCB and a dielectric cover layer that covers the wiring opposite the carrier substrate; and a secondary barrier structure that encapsulates the first barrier structure, said secondary barrier structure comprising at least: a first layer (22-1) comprising a first electrically insulating elastomeric composition (22-1c) and that extends at least along a skin-facing side of the belt, and a second layer (22-2), in addition to the first, comprising a second electrically insulating elastomeric composition (22-2c) and that extends along a non-skin facing side of the belt. an electrode portion having one or more electrodes with a surface for contacting a skin of the body, a flexible printed circuit board (flex-PCB) carrying wiring that connects the one or more electrodes for readout, and a barrier that encapsulates the wiring wherein the barrier includes: a primary barrier structure formed by a dielectric carrier substrate of the flex-PCB and a dielectric cover layer that covers the wiring opposite the carrier substrate; and a secondary barrier structure that encapsulates the first barrier structure, said secondary barrier structure comprising at least: a first layer (22-1) comprising a first electrically insulating elastomeric composition (22-1c) and that extends at least along a skin-facing side of the belt, and a second layer (22-2), in addition to the first, comprising a second electrically insulating elastomeric composition (22-2c) and that extends along a non-skin facing side of the belt. a primary barrier structure formed by a dielectric carrier substrate of the flex-PCB and a dielectric cover layer that covers the wiring opposite the carrier substrate; and a secondary barrier structure that encapsulates the first barrier structure, said secondary barrier structure comprising at least: a first layer (22-1) comprising a first electrically insulating elastomeric composition (22-1c) and that extends at least along a skin-facing side of the belt, and a second layer (22-2), in addition to the first, comprising a second electrically insulating elastomeric composition (22-2c) and that extends along a non-skin facing side of the belt. a first layer (22-1) comprising a first electrically insulating elastomeric composition (22-1c) and that extends at least along a skin-facing side of the belt, and a second layer (22-2), in addition to the first, comprising a second electrically insulating elastomeric composition (22-2c) and that extends along a non-skin facing side of the belt.