mhurhangee/patent-ind-claim-en huggingface dataset:
An application process (Avatar j ) provided as a service to a user (M j ) of a communication network (MN k ) by the operators of the network, the application process (Avatar j ) is associated with a specific user (M j ) and performs for the user's device the computationally and storage expensive services of monitoring, processing, backup, and data transmission; wherein these services are performed using processor and memory resources located at a base station (BS k ) in the network (MN k ) closest to the current location of the user (M j ); characterized in that the application process (Avatar j ) is configured to continue to provide these services at a base station (BS 1 ) in a different mobile network (MN l ) when the user (M j ) passes to a region of the different network (MN l ) by taking the location closest to the current position of the user (M j ) in the different mobile network (MN l ) and continues to represent the user (M j ) in his/her home network (MN k ) by opening a connection to the user's (M j ) home network (MN k ) to receive messages and perform operations on behalf of the user (M j ), or re-route messages sent to a second user (M i ) when the user (M j ) moves out of his/her home network (MN k ).
An apparatus of a base station, the apparatus comprising: memory; and processing circuitry, configured to: decode, from a User Equipment (UE), uplink control information (UCI) that indicates a hybrid automatic repeat request identifier (HARQ ID) for a grant-less uplink (GUL) transmission by the UE during a first sub-frame; attempt to decode the GUL transmission; encode, for transmission to the UE, a first downlink control information (DCI) that indicates the HARQ ID of the GUL transmission and further indicates whether the GUL transmission is successfully decoded; select, from candidate HARQ IDs, a HARQ ID for a scheduled uplink (SUL) transmission by another UE in a second subframe after the first sub-frame, wherein: if the GUL transmission is successfully decoded, the processing circuitry is configured to include the HARQ ID for the GUL transmission in the candidate HARQ IDs for the SUL transmission, and if the GUL transmission is not successfully decoded, the processing circuitry is configured to exclude the HARQ ID for the GUL transmission from the candidate HARQ IDs for the SUL transmission; and encode, for transmission, a second DCI that indicates: the SUL transmission by the other UE, and the HARQ ID selected for the SUL transmission. decode, from a User Equipment (UE), uplink control information (UCI) that indicates a hybrid automatic repeat request identifier (HARQ ID) for a grant-less uplink (GUL) transmission by the UE during a first sub-frame; attempt to decode the GUL transmission; encode, for transmission to the UE, a first downlink control information (DCI) that indicates the HARQ ID of the GUL transmission and further indicates whether the GUL transmission is successfully decoded; select, from candidate HARQ IDs, a HARQ ID for a scheduled uplink (SUL) transmission by another UE in a second subframe after the first sub-frame, wherein: if the GUL transmission is successfully decoded, the processing circuitry is configured to include the HARQ ID for the GUL transmission in the candidate HARQ IDs for the SUL transmission, and if the GUL transmission is not successfully decoded, the processing circuitry is configured to exclude the HARQ ID for the GUL transmission from the candidate HARQ IDs for the SUL transmission; and if the GUL transmission is successfully decoded, the processing circuitry is configured to include the HARQ ID for the GUL transmission in the candidate HARQ IDs for the SUL transmission, and if the GUL transmission is not successfully decoded, the processing circuitry is configured to exclude the HARQ ID for the GUL transmission from the candidate HARQ IDs for the SUL transmission; and encode, for transmission, a second DCI that indicates: the SUL transmission by the other UE, and the HARQ ID selected for the SUL transmission. the SUL transmission by the other UE, and the HARQ ID selected for the SUL transmission.
A coaxial connector with a floating mechanism, including a plug and a socket to be connected to each other, the plug including a plug-side center contact that is arranged at a center, a plug-side shell that is arranged outside the plug-side center contact , and a plug-side insulator that is interposed between the plug-side center contact and the plug-side shell , the socket including a socket-side center contact that is arranged at a center, a socket-side shell that is arranged outside the socket-side center contact , and a housing that holds the socket-side center contact and the socket-side shell in a mutually insulated state, the housing including a housing base portion that is fixed to a support member, and a housing movable portion that is radially movable over a plug-side end face of the housing base portion along with the socket-side center contact , a top side of the plug-side shell being fitted onto the housing movable portion , characterized in that the socket-side shell integrally includes a shell contact plate portion that is exposed from the plug-side end face of the housing base portion , and an end of the plug-side shell is configured to make contact with the shell contact plate portion , and a contact plate escape groove is circumferentially formed in the housing movable portion , and the shell contact plate portion is configured to be able to escape into the contact plate escape groove .
A rack for holding at least one medical device , the rack comprising a multiplicity of interfaces (101-104) for mechanically and electrically connecting at least one medical device to the rack , characterized by a channel identification device which is constituted to assign an identification code to each of the multiplicity of interfaces (101-104) and is operable to provide, for a medical device connected with one of the multiplicity of interfaces (101-104), the identification code associated with the interface (101-104) to the medical device or a control device connected to the medical device , wherein the rack comprises a first input port to be connected to a second rack located at a first side of the rack and/or a second input port to be connected to a third rack , wherein the first input port and/or the second input port are connected to the channel identification device , the channel identification device being constituted to detect whether a second rack and/or a third rack are arranged at the first side and/or the second side of the rack , the channel identification device further being constituted to set the identification code based on the detection, wherein the identification code is a sequence of bits comprising a first portion indicating a sequential position of the interface (101-104) the identification code is associated with on the rack , wherein the sequence of bits further comprises a second portion indicating whether a second rack is arranged at the first side of the rack , and/or a third portion indicating whether a third rack is arranged at the second side of the rack (1A, 1 B, 1C).
An oral care composition comprising a phosphate/acrylate co-polymer, a synthetic anionic linear polycarboxylate polymer, and an orally acceptable carrier, wherein the phosphate/acrylate co-polymer is a co-polymerized product of a mixture of acrylic acid, methacrylic acid, and 2-hydroxyethyl methacrylate phosphates of Formula 1 comprising acrylic acid in a molar percentage of 70-90%; methacrylic acid in a molar percentage of 5-20%, and hydroxyethyl methacrylate phosphates of Formula 1 in a molar percentage of 1-10% wherein n is 0, 1 or 2, and wherein the synthetic anionic linear polycarboxylate is a copolymer of maleic anhydride or acid and methyl vinyl ether.
An anchor for being embedded in concrete for attachment to a fastener to support a load, comprising: a) a plug having a main body portion extending upwardly from a base portion , the plug for being attached to a form board prior to pouring of concrete , the plug having an end portion disposed a distance from the form board and the base portion ; b) an anchor body including a threaded opening, the anchor body being attached to the end portion of the plug ; c) the plug is separable from the anchor body and removable from the concrete after the concrete is cured, leaving the anchor body embedded in the concrete , the plug providing a void in the concrete after removal to provide a first access opening for a threaded portion of a fastener to attach to the anchor body embedded in the concrete , characterized by d) the main body portion including an opening extending from the base portion to the end portion, the opening of the main body providing a second access opening for a threaded portion of a fastener to attach to the anchor body embedded in the concrete . a) a plug having a main body portion extending upwardly from a base portion , the plug for being attached to a form board prior to pouring of concrete , the plug having an end portion disposed a distance from the form board and the base portion ; b) an anchor body including a threaded opening, the anchor body being attached to the end portion of the plug ; c) the plug is separable from the anchor body and removable from the concrete after the concrete is cured, leaving the anchor body embedded in the concrete , the plug providing a void in the concrete after removal to provide a first access opening for a threaded portion of a fastener to attach to the anchor body embedded in the concrete , characterized by d) the main body portion including an opening extending from the base portion to the end portion, the opening of the main body providing a second access opening for a threaded portion of a fastener to attach to the anchor body embedded in the concrete .
A method for computer-implemented determination of control parameters (CP) of a turbine (T1,...,Tn), the turbine (T1, ... , Tn) being a wind turbine having a generator or a gas turbine having a generator, comprising the steps of: S1) receiving, by an interface (IF), in addition to actual operation (OC) parameters of the turbine (T1, ... ,Tn) and/or ambient condition (AC) information, individual manufacturing tolerance data (MD T ) as characteristic values (AG, MP, MDM, TC, CR) of the turbine (T1,...,Tn); S2) determining, by a processing unit (PU), a lifetime information (RLT) about a residual lifetime of the turbine (T1, ... ,Tn) or a turbine component by a simulation of the operation of the turbine (T1,...,Tn), the simulation being made with a given turbine model (TM) in which the actual operation (OC) parameters of the turbine (T1, ... ,Tn) and/or ambient condition (AC) information and the one or more characteristic values (AG, MP, MDM, TC, CR) of the turbine (T1,...,Tn) are used as input parameters; S3) deriving, by the processing unit (PU), the control parameters (CP) for the turbine (T1,...,Tn) from the lifetime information (RLT). S1) receiving, by an interface (IF), in addition to actual operation (OC) parameters of the turbine (T1, ... ,Tn) and/or ambient condition (AC) information, individual manufacturing tolerance data (MD T ) as characteristic values (AG, MP, MDM, TC, CR) of the turbine (T1,...,Tn); S2) determining, by a processing unit (PU), a lifetime information (RLT) about a residual lifetime of the turbine (T1, ... ,Tn) or a turbine component by a simulation of the operation of the turbine (T1,...,Tn), the simulation being made with a given turbine model (TM) in which the actual operation (OC) parameters of the turbine (T1, ... ,Tn) and/or ambient condition (AC) information and the one or more characteristic values (AG, MP, MDM, TC, CR) of the turbine (T1,...,Tn) are used as input parameters; S3) deriving, by the processing unit (PU), the control parameters (CP) for the turbine (T1,...,Tn) from the lifetime information (RLT).
An endless-track traveling apparatus comprising: a casing ; pulleys having axes arranged in parallel in the casing ; a motor for driving the pulleys; and an endless track wound on outer circumferential surface portions of the pulleys to rotate together with the pulleys and move on a traveling target, the endless-track traveling apparatus further comprising: a plate-shaped member disposed in contact with the endless track and opposed to the traveling target in a space surrounded by the endless track, and fitted in the casing ; a magnet fixed in the casing to attract the traveling target; the endless-track traveling apparatus being characterized in that it comprises: an elastic member having one end in contact with an inside of the casing and another end in contact with the plate-shaped member, and urging the plate-shaped member in such a direction as to press the plate-shaped member against the endless track; and a sensor for detecting expansion and contraction of the elastic member. a casing ; pulleys having axes arranged in parallel in the casing ; a motor for driving the pulleys; and an endless track wound on outer circumferential surface portions of the pulleys to rotate together with the pulleys and move on a traveling target, the endless-track traveling apparatus further comprising: a plate-shaped member disposed in contact with the endless track and opposed to the traveling target in a space surrounded by the endless track, and fitted in the casing ; a magnet fixed in the casing to attract the traveling target; the endless-track traveling apparatus being characterized in that it comprises: a plate-shaped member disposed in contact with the endless track and opposed to the traveling target in a space surrounded by the endless track, and fitted in the casing ; a magnet fixed in the casing to attract the traveling target; an elastic member having one end in contact with an inside of the casing and another end in contact with the plate-shaped member, and urging the plate-shaped member in such a direction as to press the plate-shaped member against the endless track; and a sensor for detecting expansion and contraction of the elastic member.
An arginase activity measurement method, comprising: a step of adding a sample including arginase and a solution including a divalent cation to a reaction vessel, and thereby activating arginase; a step of adding an arginine solution to the sample including the activated arginase, and performing an enzyme-substrate reaction; and a step of adding an acidic solution including α-isonitrosopropiophenone as a urea detection reagent and physiological saline or distilled water to the sample subjected to the enzyme-substrate reaction, and simultaneously performing deactivation of enzyme and a urea detection reaction. a step of adding a sample including arginase and a solution including a divalent cation to a reaction vessel, and thereby activating arginase; a step of adding an arginine solution to the sample including the activated arginase, and performing an enzyme-substrate reaction; and a step of adding an acidic solution including α-isonitrosopropiophenone as a urea detection reagent and physiological saline or distilled water to the sample subjected to the enzyme-substrate reaction, and simultaneously performing deactivation of enzyme and a urea detection reaction.
Bearing arrangement for a shaft in a turbocompressor, having: at least one water-fed hydraulic bearing , which is configured to rotatably support a shaft of the turbocompressor, wherein the water-fed hydraulic bearing encloses the shaft at a circumference of the shaft in order to form a bearing gap therebetween; and wherein the water-fed hydraulic bearing is configured to allow water to flow through the bearing gap in order to support the shaft hydraulically, characterized in that the bearing arrangement has two seals, which are configured to seal the bearing gap with respect to the shaft ; and wherein gas from the turbocompressor is applied to the two seals outside the bearing gap in order to seal the bearing . at least one water-fed hydraulic bearing , which is configured to rotatably support a shaft of the turbocompressor, wherein the water-fed hydraulic bearing encloses the shaft at a circumference of the shaft in order to form a bearing gap therebetween; and wherein the water-fed hydraulic bearing is configured to allow water to flow through the bearing gap in order to support the shaft hydraulically, characterized in that the bearing arrangement has two seals, which are configured to seal the bearing gap with respect to the shaft ; and wherein gas from the turbocompressor is applied to the two seals outside the bearing gap in order to seal the bearing .
A surgical stapling instrument, comprising: (a) an anvil that includes a staple forming pocket ; and (b) a stapling assembly comprising: (i) a first staple comprising: (A) a first crown , (B) a first leg extending from the first crown, and (C) a second leg extending from the first crown, and (ii) a second staple , the second staple comprising: (A) a second crown , and (B) a first leg extending at a first angle relative to the second crown in a non-deformed state, wherein the first leg of the second staple is configured to extend over the first crown to form an overlapping staple pattern between the first and second staples when the first and second staples are in a deformed state, characterized in that the staple pocket of the anvil is configured to deform the first and second staples from the non-deformed state to the deformed state. (a) an anvil that includes a staple forming pocket ; and (b) a stapling assembly comprising: (i) a first staple comprising: (A) a first crown , (B) a first leg extending from the first crown, and (C) a second leg extending from the first crown, and (ii) a second staple , the second staple comprising: (A) a second crown , and (B) a first leg extending at a first angle relative to the second crown in a non-deformed state, wherein the first leg of the second staple is configured to extend over the first crown to form an overlapping staple pattern between the first and second staples when the first and second staples are in a deformed state, (i) a first staple comprising: (A) a first crown , (B) a first leg extending from the first crown, and (C) a second leg extending from the first crown, and (A) a first crown , (B) a first leg extending from the first crown, and (C) a second leg extending from the first crown, and (ii) a second staple , the second staple comprising: (A) a second crown , and (B) a first leg extending at a first angle relative to the second crown in a non-deformed state, wherein the first leg of the second staple is configured to extend over the first crown to form an overlapping staple pattern between the first and second staples when the first and second staples are in a deformed state, (A) a second crown , and (B) a first leg extending at a first angle relative to the second crown in a non-deformed state, wherein the first leg of the second staple is configured to extend over the first crown to form an overlapping staple pattern between the first and second staples when the first and second staples are in a deformed state, the second crown in a non-deformed state, wherein the first leg of the second staple is configured to extend over the first crown to form an overlapping staple pattern between the first and second staples when the first and second staples are in a deformed state,
Backlighting device , notably for a head-up display, comprising: - at least one light-emitting diode which emits light beams, - an optical system for shaping the light beams, and - a light diffuser receiving the shaped light beams, characterized in that it further comprises a heat sink made in at least two parts, comprising, on the one hand, a base plate , and, on the other hand, at least one strip fastened to said base plate, the strip comprising at least one bend to form at least one cooling fin and at least one area designed to come into thermal contact with said base plate , and in that the strip is offset relative to the location of the light-emitting diodes and is positioned on an extension of the base plate , the extension of the base plate having a different orientation from the part of the base plate placed in line with the light-emitting diodes , the base plate being extended, with respect to the housing , so as to form a cantilever on which the strip is placed. - at least one light-emitting diode which emits light beams, - an optical system for shaping the light beams, and - a light diffuser receiving the shaped light beams,
A high-strength cold-rolled steel sheet comprising, in terms of percent by mass, a composition of C: 0.05 to 0.3%, Si: 0.6 to 3.0%, Mn: 1.0 to 3.0%, P: 0.1% or less, S: 0.05% or less, Al: 0.01 to 1%, N: 0.01% or less, optionally at least one of Cr: 0.01 to 1%, Mo: 0.01 to 1%, Ni: 0.01 to 1%, and Cu: 0.01 to 1%, optionally at least one of Ti: 0.001 to 0.1%, Nb: 0.001 to 0.1%, and V: 0.001 to 0.1%, and optionally B: 0.0003 to 0.005%, and the balance being Fe and unavoidable impurities, wherein a coverage ratio of reduced iron on a steel sheet surface, as determined by using a scanning electron microscope (SEM) and observing the reflected image, is 40% or more, and wherein the reduced iron is formed by the reduction of iron oxides containing (Fe,Mn) 2 SiO 4 .
A myeloid-derived suppressor cell (MDSC) deficient in apoptosis-associated speck-like protein containing a CARD (ASC).
Composition for the release of the bioactive substance comprising: sucrose acetate isobutyrate dissolved in an ionic liquid and an additive selected from chitin, silk fibroin, cellulose, alginate, chitosan, gellan gum, dextrin, collagen, guar gum, carregeenan, heparin, kefiran, or mixtures thereof. sucrose acetate isobutyrate dissolved in an ionic liquid and an additive selected from chitin, silk fibroin, cellulose, alginate, chitosan, gellan gum, dextrin, collagen, guar gum, carregeenan, heparin, kefiran, or mixtures thereof.
A deployable sprinkler fire suppression system comprising: a deployable sprinkler , arranged to be deployed prior to a suppression event; a suppressant source arranged to discharge suppressant from the sprinkler during the suppression event; a propellant source arranged to supply propellant to the sprinkler to deploy the sprinkler prior to the suppression event; and a supply pipe arranged to supply suppressant to the sprinkler during the suppression event; wherein the system is arranged to deploy the sprinkler by pressurising the supply pipe by supplying propellant from the propellant source to the sprinkler prior to supplying suppressant from the suppressant source . a deployable sprinkler , arranged to be deployed prior to a suppression event; a suppressant source arranged to discharge suppressant from the sprinkler during the suppression event; a propellant source arranged to supply propellant to the sprinkler to deploy the sprinkler prior to the suppression event; and a supply pipe arranged to supply suppressant to the sprinkler during the suppression event; wherein the system is arranged to deploy the sprinkler by pressurising the supply pipe by supplying propellant from the propellant source to the sprinkler prior to supplying suppressant from the suppressant source .
A method of manufacturing a heating circuit assembly comprising: additive manufacturing an electrically non-conductive substrate , wherein the substrate is thermoplastic; and printing an electrically conductive element on the substrate ; the electrically conductive element being arranged in a pattern and the substrate having a topology that is generally aligned with the pattern . additive manufacturing an electrically non-conductive substrate , wherein the substrate is thermoplastic; and printing an electrically conductive element on the substrate ; the electrically conductive element being arranged in a pattern and the substrate having a topology that is generally aligned with the pattern .
An implant construct comprising a bone locking plate , a bone locking screw and a spherical bead , wherein the bead includes a conical hole and is to be interposed between a conical head of the bone locking screw and a receiving hole in the bone locking plate , characterized in that the receiving hole in the bone locking plate is conical.