mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a communication device, the method comprising the steps of: • receiving (step 902), via a first visited network of the communication device, a message from a first home network of the communication device, the message comprising a first network information container and a credential indicator, ∘ wherein the first network information container comprises information that is integrity protected and/or cipher protected, ∘ wherein the credential indicator indicates a type of a credential used for protecting the first network information container, the type of the credential being either a 3GPP credential or non-3GPP credential, wherein the credential indicator is a flag bit, wherein a first value of the flag bit indicates that the credential is a 3GPP credential and a second value of the flag bit indicates that the credential is a non-3GPP credential; • verifying (step 904), the first network information container using one or more security parameters based on the type of credential; and • obtaining (step 906), when the first network information container is successfully verified, the information comprised in the first network information container. • receiving (step 902), via a first visited network of the communication device, a message from a first home network of the communication device, the message comprising a first network information container and a credential indicator, ∘ wherein the first network information container comprises information that is integrity protected and/or cipher protected, ∘ wherein the credential indicator indicates a type of a credential used for protecting the first network information container, the type of the credential being either a 3GPP credential or non-3GPP credential, wherein the credential indicator is a flag bit, wherein a first value of the flag bit indicates that the credential is a 3GPP credential and a second value of the flag bit indicates that the credential is a non-3GPP credential; ∘ wherein the first network information container comprises information that is integrity protected and/or cipher protected, ∘ wherein the credential indicator indicates a type of a credential used for protecting the first network information container, the type of the credential being either a 3GPP credential or non-3GPP credential, wherein the credential indicator is a flag bit, wherein a first value of the flag bit indicates that the credential is a 3GPP credential and a second value of the flag bit indicates that the credential is a non-3GPP credential; • verifying (step 904), the first network information container using one or more security parameters based on the type of credential; and • obtaining (step 906), when the first network information container is successfully verified, the information comprised in the first network information container.
A shoulder for a tube container made from a melt-blended resin, the melt-blended resin comprising: high density polyethylene having a density of 0.94 g/cc or more, linear low density polyethylene having a density in the range of 0.91 to 0.93 g/cc, and a cyclic olefin copolymer.
An integrated circuit package , comprising: a processing circuitry die ; an optical engine die coupled to the processing circuitry die , the optical engine die comprising optical engine circuits including an optical transmitter and laser component , and an optical receiver ; a transceiver die ; a package substrate with a top surface on which the processing circuitry die , transceiver die , and optical engine die are mounted using at least one of solder bumps and microbumps ; one or more additional optical engine dies mounted on the package substrate or stacked on top of the dies ; and conductive signal traces formed on the package substrate , wherein the signal traces directly interconnect the processing circuitry die with the transceiver die , and the signal traces directly connect the transceiver die with the optical engine die , the signal traces interfacing with the processing circuitry die , transceiver die , and optical engine die using at least one of the solder bumps and the microbumps . a processing circuitry die ; an optical engine die coupled to the processing circuitry die , the optical engine die comprising optical engine circuits including an optical transmitter and laser component , and an optical receiver ; a transceiver die ; a package substrate with a top surface on which the processing circuitry die , transceiver die , and optical engine die are mounted using at least one of solder bumps and microbumps ; one or more additional optical engine dies mounted on the package substrate or stacked on top of the dies ; and conductive signal traces formed on the package substrate , wherein the signal traces directly interconnect the processing circuitry die with the transceiver die , and the signal traces directly connect the transceiver die with the optical engine die , the signal traces interfacing with the processing circuitry die , transceiver die , and optical engine die using at least one of the solder bumps and the microbumps .
A gripper system having a gripper device (16; 30; 56; 90; 120) designed so as to be movable along a movement path and serving for gripping and holding a workpiece and for moving the workpiece along the movement path, and having magnetic field generating means being static at one position of the movement path and/or provided so as to be movable independently of the gripper device, wherein the gripper device has at least one first contact section (18; 38; 66) which can be driven relative to a second contact section (20; 40; 68) to produce an operative pairing with the workpiece that effects the gripping or holding action, which first contact section is assigned actuator means (22; 44; 54; 128) which are designed to magnetically interact with the magnetic field generating means so that they exert a drive force in reaction to an application of a magnetic field by the magnetic field generating means, characterized in that the actuator means are made of a magnetic shape-memory alloy material.
A pressurized hollow fiber membrane module comprising: a housing formed with a raw water inlet , a concentrated water outlet , and a treated water outlet ; an internal flow path formed in a longitudinal direction in the center of the housing and having open ends; a plurality of hollow fiber membranes arranged around the internal flow path, which are placed in a longitudinal direction of the module, whereby both ends of the hollow fibers are open; a treated water collecting portion communicating with the internal flow path and the hollow fiber membranes , wherein the treated water collecting portion comprises a first treated water collecting portion formed at an upper portion of the housing and a second treated water collecting portion formed at a lower portion of the housing , the treated water collecting portion communicates with the open ends of the internal flow path and the hollow fiber membranes ; a first opening/closing unit arranged for opening or closing an open end of the internal flow path; and a second opening/closing unit arranged for opening or closing open ends of the hollow fiber membranes ; where the internal flow path is arranged such that treated water collected at the second treated water collecting portion can be collected at the first treated water collecting portion via the internal flow path and backwashing water injected into the first treated water collecting portion through the treated water outlet can be delivered to the second treated water collecting portion . a housing formed with a raw water inlet , a concentrated water outlet , and a treated water outlet ; an internal flow path formed in a longitudinal direction in the center of the housing and having open ends; a plurality of hollow fiber membranes arranged around the internal flow path, which are placed in a longitudinal direction of the module, whereby both ends of the hollow fibers are open; a treated water collecting portion communicating with the internal flow path and the hollow fiber membranes , wherein the treated water collecting portion comprises a first treated water collecting portion formed at an upper portion of the housing and a second treated water collecting portion formed at a lower portion of the housing , the treated water collecting portion communicates with the open ends of the internal flow path and the hollow fiber membranes ; a first opening/closing unit arranged for opening or closing an open end of the internal flow path; and a second opening/closing unit arranged for opening or closing open ends of the hollow fiber membranes ; where the internal flow path is arranged such that treated water collected at the second treated water collecting portion can be collected at the first treated water collecting portion via the internal flow path and backwashing water injected into the first treated water collecting portion through the treated water outlet can be delivered to the second treated water collecting portion .
A solid pharmaceutical composition for intraoral transmucosal delivery of biologically active polypeptides and proteins; said composition comprising at least one biologically active polypeptide or protein, a physiologically acceptable eutectic mixture preformed from eutectic mixture components, and at least one physiologically acceptable surfactant or mixture of surfactants; wherein said composition forms and releases an emulsion upon contact with a water containing medium.
A method for regenerating a lithium secondary battery comprising an electrode assembly, in which a positive electrode and a negative electrode are alternately combined with a separator and laminated, and a battery case comprising an accommodation part accommodating the electrode assembly, the method comprising: a lithium resupply step in which a lithium resupply electrode is further provided in the secondary battery, and the positive electrode is set as a counter electrode, and the lithium resupply electrode is set as a working electrode to charge lithium ions to the positive electrode through the lithium resupply electrode; a negative electrode discharging step in which, after the lithium ions are resupplied to the positive electrode through the lithium resupply step, the lithium resupply electrode is set as the counter electrode, and the negative electrode is set as the working electrode to completely discharge the negative electrode up to a discharge limit; and recovering the secondary battery in capacity. a lithium resupply step in which a lithium resupply electrode is further provided in the secondary battery, and the positive electrode is set as a counter electrode, and the lithium resupply electrode is set as a working electrode to charge lithium ions to the positive electrode through the lithium resupply electrode; a negative electrode discharging step in which, after the lithium ions are resupplied to the positive electrode through the lithium resupply step, the lithium resupply electrode is set as the counter electrode, and the negative electrode is set as the working electrode to completely discharge the negative electrode up to a discharge limit; and recovering the secondary battery in capacity.
An implantable atrial septal defect occlusion device (D) comprising: a braided collapsible and expandable structure with a proximal disc , a distal disc and a connecting neck in-between said discs , wherein each of said discs defines a respective periphery; and a ridge disposed on the periphery of at least one of the discs ; wherein the distal disc is a hub-less disc and is configured for the left atrial side whereas the proximal disc is configured for the right atrial side; and wherein said discs comprise a thrombogenic material characterized in that the distal, hub-less disc incorporates a woven central section and said device (D) comprises non-woven wires configured in one or more stages, with each stage interspaced with one or more braids and braided together with the wires from the woven central section and earlier stages to form the device (D). a braided collapsible and expandable structure with a proximal disc , a distal disc and a connecting neck in-between said discs , wherein each of said discs defines a respective periphery; and a ridge disposed on the periphery of at least one of the discs ; wherein the distal disc is a hub-less disc and is configured for the left atrial side whereas the proximal disc is configured for the right atrial side; and wherein said discs comprise a thrombogenic material characterized in that the distal, hub-less disc incorporates a woven central section and said device (D) comprises non-woven wires configured in one or more stages, with each stage interspaced with one or more braids and braided together with the wires from the woven central section and earlier stages to form the device (D).
A method of fracturing a subterranean formation comprising introducing a proppant stage into the subterranean formation, wherein the proppant stage comprises a fine textured foam containing: (i) a viscosified aqueous fluid having ultra lightweight (ULW) proppant suspended in the viscosified aqueous fluid; and (ii) a gaseous fluid, wherein the gaseous fluid constitutes at least 85 volume percent of the combination of gaseous fluid and aqueous fluid in the fine textured foam wherein the diameter of at least 70% gas volume of the bubbles of the fine textured foam is less than or equal to 0.18 mm and further wherein the proppant stage is introduced into the subterranean formation at a pressure sufficient to create or enlarge a fracture; wherein the ultra lightweight (ULW) proppant has an apparent specific gravity less than or equal to 2.45; and wherein the viscosified aqueous fluid contains a viscosifying agent which comprises a viscoelastic surfactant containing an anionic surfactant which is sodium xylene sulfonate and a cationic surfactant which is N,N,N-trimethyl-1-octadecammonium chloride; wherein the volume ratio of anionic surfactant to cationic surfactant is from 1:4 to 4:1; wherein the concentration of proppant in the proppant stage is from 0.05 to 0.5 ppg (6.0 to 60 kg/m 3 ). (i) a viscosified aqueous fluid having ultra lightweight (ULW) proppant suspended in the viscosified aqueous fluid; and (ii) a gaseous fluid, wherein the gaseous fluid constitutes at least 85 volume percent of the combination of gaseous fluid and aqueous fluid in the fine textured foam
An in-molded helmet with an anchoring system for securing a strap to the in-molded helmet , the anchoring system comprising: a strap anchor with an anchor housing wherein the strap anchor further comprises an in-molding flange comprising a net shaped geometry comprising a solid outer perimeter and at least one inner open area surrounded by the solid outer perimeter; a bar tack clip sized to fit partially within the anchor housing , the bar tack clip comprising:a cross beam , and at least one clip coupled to the cross beam which is sized to mateably couple with the strap anchor ; and a strap looped around the cross beam and coupled to itself, wherein the strap anchor is disposed within an energy management material of the in-molded helmet so that the bar tack clip , and strap anchor are not visible to a user from an outside of the completed in-molded helmet . a strap anchor with an anchor housing wherein the strap anchor further comprises an in-molding flange comprising a net shaped geometry comprising a solid outer perimeter and at least one inner open area surrounded by the solid outer perimeter; a bar tack clip sized to fit partially within the anchor housing , the bar tack clip comprising:a cross beam , and at least one clip coupled to the cross beam which is sized to mateably couple with the strap anchor ; and
Medical instrumentation with a navigation system which comprises an optical detection unit comprising a camera , and a data processing unit coupled to the detection unit, with a stabilization element of a surgical fixation system and with a medical marking device which is held in a defined spatial arrangement on or is comprised by or formed by the stabilization element , the location and orientation of the marking device in space being determinable with the navigation system , it being possible for at least two images of the stabilization element and the marking device to be taken from a different orientation by means of the detection unit , and the data processing unit being programmed to determine the shape of the stabilization element on the basis of the two or more images.
A cord-lock assembly comprising: a cord lock having a first portion, a second portion, and a biasing element coupled between the first portion and the second portion, the first portion including a first through-channel; the second portion including a second through-channel that is alignable with the first through-channel; and the biasing element providing a force in a first direction to misalign the first through-channel and the second through-channel; and an article layer having a first aperture , the first aperture bounded by an aperture collar that forms a perimeter around the first aperture , wherein at least part of the first portion is positioned in the first aperture and is circumscribed by the aperture collar , and wherein the first direction of the force is axially aligned with the first aperture , wherein the article layer forms a tubular encasing that at least partially encloses a space, wherein the first portion is seated with the second portion in the space and extends through the first aperture to a position that is external from the space and is not enclosed within the tubular encasing , and either wherein the first portion includes a housing having one or more sidewalls at least partially enclosing a plunger-receiving space , the one or more sidewalls including the first through-channel, and wherein the second portion includes a plunger having the second through-channel that is alignable with the first through-channel when the plunger is at least partially received in the plunger-receiving space ; or wherein the second portion includes a housing having one or more sidewalls at least partially enclosing a plunger-receiving space , the one or more sidewalls including the second through-channel, and wherein the first portion includes a plunger having the first through-channel that is alignable with the second through-channel when the plunger is at least partially received in the plunger-receiving space . wherein the article layer forms a tubular encasing that at least partially encloses a space, wherein the first portion is seated with the second portion in the space and extends through the first aperture to a position that is external from the space and is not enclosed within the tubular encasing , and either wherein the first portion includes a housing having one or more sidewalls at least partially enclosing a plunger-receiving space , the one or more sidewalls including the first through-channel, and wherein the second portion includes a plunger having the second through-channel that is alignable with the first through-channel when the plunger is at least partially received in the plunger-receiving space ; or wherein the second portion includes a housing having one or more sidewalls at least partially enclosing a plunger-receiving space , the one or more sidewalls including the second through-channel, and wherein the first portion includes a plunger having the first through-channel that is alignable with the second through-channel when the plunger is at least partially received in the plunger-receiving space .
- An oil-injected multistage compressor device that at least one comprises a low-pressure stage compressor element with an inlet and an outlet and a high-pressure stage compressor element with an inlet and an outlet , whereby the outlet of the low-pressure stage compressor element is connected to the inlet of the high-pressure stage compressor element via a conduit , in the aforementioned conduit between the low-pressure stage compressor element and the high-pressure stage compressor element an intercooler is provided, characterized in that the compressor device is also equipped with a restriction for limiting the amount of oil injected in the low-pressure stage compressor element , and that the compressor device is equipped with an oil separator which is provided in the conduit upstream from the intercooler for separating oil.
A device for dosing a product into capsules or the like, comprising at least one dosing disk which has dosing openings , at least one product supply line for supplying the product to the dosing disk in order to achieve a specific product bed depth , at least two filling stations (41-45) with which groups of dosing opening are associated, the filling stations (41-45) each comprising at least one tamping pin (51-55), it being possible for the tamping pin (51-55) to dip into the dosing opening in order to compact the product to a certain depth (h1-h5), characterized in that at least one pressure means is provided for generating a variable pressure (p1-p5), into which means the corresponding tamping pin (51-55) can spring, and at least one adjusting means, in particular an adjusting drive (61-65), is provided to adjust the depth (h1 to h5) for each tamping pin (51-55) independently of one another, at least one sensor being provided for detecting at least one product bed depth of the product arranged on the dosing disk .
Method for producing an immunoglobulin single variable domain in Pichia pastoris comprising a) applying conditions that reduce carbamylation of one or more amino acid residues in the immunoglobulin single variable domain, selected from: - lowering the pH at least in the step of inducing the host to produce the immunoglobulin single variable domain to a pH of 6.45 or less; - lowering the induction temperature from 30°C to 27.5°C, 27°C, 26.5°C, 26°C, 25.5°C, 25°C, 24.5°C, 24°C, 24.5°C, 23°C, 22°C or 20°C; - using a buffer without urea during purification, and b) removing the immunoglobulin single variable domain comprising one or more carbamylated amino acid residues. a) applying conditions that reduce carbamylation of one or more amino acid residues in the immunoglobulin single variable domain, selected from: - lowering the pH at least in the step of inducing the host to produce the immunoglobulin single variable domain to a pH of 6.45 or less; - lowering the induction temperature from 30°C to 27.5°C, 27°C, 26.5°C, 26°C, 25.5°C, 25°C, 24.5°C, 24°C, 24.5°C, 23°C, 22°C or 20°C; - using a buffer without urea during purification, and - lowering the pH at least in the step of inducing the host to produce the immunoglobulin single variable domain to a pH of 6.45 or less; - lowering the induction temperature from 30°C to 27.5°C, 27°C, 26.5°C, 26°C, 25.5°C, 25°C, 24.5°C, 24°C, 24.5°C, 23°C, 22°C or 20°C; - using a buffer without urea during purification, and b) removing the immunoglobulin single variable domain comprising one or more carbamylated amino acid residues.