mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling signaling overhead in an access network, the access network comprising: at least one Multicast Traffic Sender, MTS; at least one Multicast Traffic Replicator, MTR; and at least one multicast traffic receiver, by separating multicast control plane and multicast user plane processing and by switching from per group member signaling to per multicast user signaling on the MTR, the method comprising the steps of: a) creating, at the MTS, a Multicast Packet Template, MPT, for each type of traffic that is forwarded, wherein each MPT comprises at least: a unique ID for the MPT and a list of variables that are used for every copy of each multicast packet; b) accepting, by the MTR, the MPT if the ID is not used yet and the list of variables specified in the MPT are available, and sending to the MTS a corresponding message that the MPT has been accepted; c) creating, at the MTR, a template instance for each MPT that has been accepted, wherein for each intended multicast traffic receiver a template instance is created, and wherein each instance includes: the MPT ID, a bit index used to encode the multicast traffic receiver in the MPT header and a value for each variable created in the MPT; d) verifying, at the MTS that all values of the MPT are acceptable; e) storing the MPT instance on the MTR in a data store; f) enabling multicast traffic between the MTS and the MTR; g) sending, from the MTS to each MTR that is connected to it, the required number of packet copies so that every bit index is encoded exactly once in any of the sent packet copies, and wherein each packet copy encapsulates the packet that should be send to the multicast traffic receiver in an MPT header and sends it to the MTR in an appropriate encapsulation. a) creating, at the MTS, a Multicast Packet Template, MPT, for each type of traffic that is forwarded, wherein each MPT comprises at least: a unique ID for the MPT and a list of variables that are used for every copy of each multicast packet; b) accepting, by the MTR, the MPT if the ID is not used yet and the list of variables specified in the MPT are available, and sending to the MTS a corresponding message that the MPT has been accepted; c) creating, at the MTR, a template instance for each MPT that has been accepted, wherein for each intended multicast traffic receiver a template instance is created, and wherein each instance includes: the MPT ID, a bit index used to encode the multicast traffic receiver in the MPT header and a value for each variable created in the MPT; d) verifying, at the MTS that all values of the MPT are acceptable; e) storing the MPT instance on the MTR in a data store; f) enabling multicast traffic between the MTS and the MTR; g) sending, from the MTS to each MTR that is connected to it, the required number of packet copies so that every bit index is encoded exactly once in any of the sent packet copies, and wherein each packet copy encapsulates the packet that should be send to the multicast traffic receiver in an MPT header and sends it to the MTR in an appropriate encapsulation.
A method for detecting the presence of a pathogen in a whole blood sample, the method comprising: (a) mixing from 0.05 to 4.0 mL of a provided whole blood sample suspected of containing a pathogen with an erythrocyte lysis agent, thereby producing disrupted red blood cells; (b) centrifuging the mixture of step (a) to form a supernatant and a pellet; (c) discarding some or all of the supernatant of step (b) and resuspending the pellet to form an extract; (d) lysing cells of the extract of step (c) directly to form a lysate; and (e) placing the lysate of step (d) in a container and amplifying a target nucleic acid in the lysate to form an amplified lysate solution including the target nucleic acid, wherein the target nucleic acid is characteristic of the pathogen to be detected; (f) placing the amplified liquid sample in a detecting device; (g) on the basis of the result of step (f), detecting the pathogen, wherein the pathogen is selected from bacteria and fungi, wherein the method is capable of detecting a pathogen concentration of 10 cells/mL in the whole blood sample. (a) mixing from 0.05 to 4.0 mL of a provided whole blood sample suspected of containing a pathogen with an erythrocyte lysis agent, thereby producing disrupted red blood cells; (b) centrifuging the mixture of step (a) to form a supernatant and a pellet; (c) discarding some or all of the supernatant of step (b) and resuspending the pellet to form an extract; (d) lysing cells of the extract of step (c) directly to form a lysate; and (e) placing the lysate of step (d) in a container and amplifying a target nucleic acid in the lysate to form an amplified lysate solution including the target nucleic acid, wherein the target nucleic acid is characteristic of the pathogen to be detected; (f) placing the amplified liquid sample in a detecting device; (g) on the basis of the result of step (f), detecting the pathogen, wherein the pathogen is selected from bacteria and fungi,
A method for reducing water production from a hydrocarbon bearing subterranean formation, the method comprising: identifying a high permeability zone in the hydrocarbon bearing subterranean formation; injecting a dense carbon dioxide composition from a production well into the high permeability zone, wherein the dense carbon dioxide composition comprises dense carbon dioxide and a thickener soluble in the dense carbon dioxide, the thickener comprises a copolymer, the copolymer being the polymerized reaction product of monomers that include: at least one alkenyl ether or dialkenyl ether monomer; at least one acrylate or methacrylate monomer; at least one structural monomer selected from the group consisting of an acrylic acid long carbon chain ester having a carbon chain length of from 8 carbons to 18 carbons, a methacrylic acid long carbon chain ester having a carbon chain length of from 8 carbons to 18 carbons, styrene, methyl styrene, phenylpropene, and combinations of these; and at least one allyl ester monomer; and after injecting the dense carbon dioxide composition into the high permeability zone, withdrawing hydrocarbons from the hydrocarbon bearing subterranean formation through the production well, wherein the dense carbon dioxide composition blocks pores in the high permeability zone to reduce or prevent flow of water from the high permeability zone into the production well. identifying a high permeability zone in the hydrocarbon bearing subterranean formation; injecting a dense carbon dioxide composition from a production well into the high permeability zone, wherein the dense carbon dioxide composition comprises dense carbon dioxide and a thickener soluble in the dense carbon dioxide, the thickener comprises a copolymer, the copolymer being the polymerized reaction product of monomers that include: at least one alkenyl ether or dialkenyl ether monomer; at least one acrylate or methacrylate monomer; at least one structural monomer selected from the group consisting of an acrylic acid long carbon chain ester having a carbon chain length of from 8 carbons to 18 carbons, a methacrylic acid long carbon chain ester having a carbon chain length of from 8 carbons to 18 carbons, styrene, methyl styrene, phenylpropene, and combinations of these; and at least one allyl ester monomer; and at least one alkenyl ether or dialkenyl ether monomer; at least one acrylate or methacrylate monomer; at least one structural monomer selected from the group consisting of an acrylic acid long carbon chain ester having a carbon chain length of from 8 carbons to 18 carbons, a methacrylic acid long carbon chain ester having a carbon chain length of from 8 carbons to 18 carbons, styrene, methyl styrene, phenylpropene, and combinations of these; and at least one allyl ester monomer; and after injecting the dense carbon dioxide composition into the high permeability zone, withdrawing hydrocarbons from the hydrocarbon bearing subterranean formation through the production well, wherein the dense carbon dioxide composition blocks pores in the high permeability zone to reduce or prevent flow of water from the high permeability zone into the production well.
Electrolyzer comprising at least one single electrolysis element, comprising an anode half-cell with an anode, a cathode half-cell with a cathode, and an ion exchange membrane arranged between the anode half-cell and the cathode half-cell, said anode and/or said cathode being a gas diffusion electrode, with a gap being provided between the gas diffusion electrode and the ion exchange membrane, wherein an electrolyte inlet is arranged above the gap and an electrolyte outlet, a gas inlet and a gas outlet are arranged below the gap, wherein the electrolyte outlet ends in an outlet collection channel, and wherein the electrolyte inlet is connected to an electrolyte storage tank and has an overflow, and the overflow is connected to the outlet collection channel, characterized in that a spiral-shaped tube is provided for connecting the electrolyte storage tank and the electrolyte inlet, and that a spiral-shaped tube is provided for connecting the overflow and the outlet collection channel.
A tissue-removing catheter for removing tissue from a body lumen having a longitudinal axis, the tissue-removing catheter comprising: a catheter body configured for insertion in the body lumen, the catheter body having a proximal end, a distal end, and a longitudinal axis extending between the proximal and distal ends (12a, 12b), wherein at least a first longitudinal body portion of the catheter body is rotatable about a rotational axis extending along the length of the catheter body; a tissue-removing element coupled to the first longitudinal portion of the catheter body; and an angular-displacement sensor coupled to the catheter body and configured to detect an angular displacement of at least said first longitudinal portion of the catheter body relative to the rotational axis when the first longitudinal body portion is rotated about the rotational axis, characterised in that the angular-displacement sensor is configured to generate an electrical signal indicative of the angular displacement of at least said first longitudinal portion of the catheter body relative to the rotational axis when the tissue-removing element is rotated about the rotational axis. a catheter body configured for insertion in the body lumen, the catheter body having a proximal end, a distal end, and a longitudinal axis extending between the proximal and distal ends (12a, 12b), wherein at least a first longitudinal body portion of the catheter body is rotatable about a rotational axis extending along the length of the catheter body; a tissue-removing element coupled to the first longitudinal portion of the catheter body; and an angular-displacement sensor coupled to the catheter body and configured to detect an angular displacement of at least said first longitudinal portion of the catheter body relative to the rotational axis when the first longitudinal body portion is rotated about the rotational axis, characterised in that the angular-displacement sensor is configured to generate an electrical signal indicative of the angular displacement of at least said first longitudinal portion of the catheter body relative to the rotational axis when the tissue-removing element is rotated about the rotational axis.
A set of parts (5,6) for assembly with a door for mounting a window light in an opening in the door, comprising a first bracket part for securing to the door and a second bracket part for assembly with the first bracket part to define a seating for a window light, the first bracket part having a main body part which when assembled with a door, extends over a boundary of the opening and which has projections extending from the main body part to embrace either side of the door; and the main body part having seatings for receiving mountings of the second bracket part, characterized in that the seatings being slots for receiving mountings in the form of projections with pointed ends 19 which engage the door fabric through slots in the main body part; and the first bracket part includes a flange positioned generality between the projections and adapted to embrace the door between the projections of the first bracket part.
A device for a person protection system of a vehicle, which comprises: - a gas generator which is configured and provided to provide gas for inflating a gas bag in the case of activation, wherein the gas generator comprises at least one firmly arranged stay bolt (41, 42) protruding from the shell surface of the gas generator, - a sleeve-shaped gas conducting element connected with the gas generator, which is configured and provided to divert gas flowing out of the gas generator and guide it into a gas bag which is to be inflated, wherein - the gas conducting element is connected with at least one of the stay bolts of the gas generator by means of a bayonet connector, - for forming a bayonet connector the gas conducting element forms at least one joining channel (2, 2a, 2b, 2c, 2d) for the at least one stay bolt of the gas generator, and - in the region in which it forms the joining channel the gas conducting element is at least partly configured by a tab axially protruding from the peripheral wall of the gas conducting element, characterized in that the gas generator is configured oblong, that the gas conducting element comprises means (107, 108, 3, 30) for locking the bayonet connector and that the means for locking the bayonet connector comprise a bendable tab arranged at the gas conducting element, by means of which the bayonet connector can be secured by bending the tab after the end position of the stay bolt is reached. - a gas generator which is configured and provided to provide gas for inflating a gas bag in the case of activation, wherein the gas generator comprises at least one firmly arranged stay bolt (41, 42) protruding from the shell surface of the gas generator, - a sleeve-shaped gas conducting element connected with the gas generator, which is configured and provided to divert gas flowing out of the gas generator and guide it into a gas bag which is to be inflated, wherein - the gas conducting element is connected with at least one of the stay bolts of the gas generator by means of a bayonet connector, - for forming a bayonet connector the gas conducting element forms at least one joining channel (2, 2a, 2b, 2c, 2d) for the at least one stay bolt of the gas generator, and - in the region in which it forms the joining channel the gas conducting element is at least partly configured by a tab axially protruding from the peripheral wall of the gas conducting element, characterized in that the gas generator is configured oblong, that the gas conducting element comprises means (107, 108, 3, 30) for locking the bayonet connector and that the means for locking the bayonet connector comprise a bendable tab arranged at the gas conducting element, by means of which the bayonet connector can be secured by bending the tab after the end position of the stay bolt is reached.
A messaging management server comprising: a processor; and a computer readable medium storing instructions that, when executed by the processor, configure the messaging management server to: send, to a messaging service provider, an indication that a second user has an active presence state on a user device, of a plurality of user devices (302a-c) associated with the second user, even if the second user is actually in an inactive presence state for the user device; receive, from the messaging service provider, a notification of an initial message originating from a first user and intended for receipt by the second user; and after a configurable preset duration has elapsed since receiving the notification, determine a first set of user devices, of the plurality of user devices (302a-c) associated with the second user, on which the second user is currently scheduled to be in an active presence state based on a presence schedule of the second user; and send the notification of the initial message to the first set of user devices. a processor; and a computer readable medium storing instructions that, when executed by the processor, configure the messaging management server to: send, to a messaging service provider, an indication that a second user has an active presence state on a user device, of a plurality of user devices (302a-c) associated with the second user, even if the second user is actually in an inactive presence state for the user device; receive, from the messaging service provider, a notification of an initial message originating from a first user and intended for receipt by the second user; and after a configurable preset duration has elapsed since receiving the notification, determine a first set of user devices, of the plurality of user devices (302a-c) associated with the second user, on which the second user is currently scheduled to be in an active presence state based on a presence schedule of the second user; and send the notification of the initial message to the first set of user devices. send, to a messaging service provider, an indication that a second user has an active presence state on a user device, of a plurality of user devices (302a-c) associated with the second user, even if the second user is actually in an inactive presence state for the user device; receive, from the messaging service provider, a notification of an initial message originating from a first user and intended for receipt by the second user; and after a configurable preset duration has elapsed since receiving the notification, determine a first set of user devices, of the plurality of user devices (302a-c) associated with the second user, on which the second user is currently scheduled to be in an active presence state based on a presence schedule of the second user; and send the notification of the initial message to the first set of user devices.
An in vivo electrochemical sensing device comprising: an implantable body having sensor components, the implantable body configured to be implanted in an implantation site, the implantable body having a first implantable segment having at least one of a working electrode, reference electrode, counter electrode, or combined reference/counter electrode and a second implantable segment having the remainder of a working electrode, reference electrode, counter electrode, or combined reference/counter electrode not on the first implantable segment, a distal portion of the first implantable segment coupled to a distal portion of the second implantable segment, a first spacer arm, an inner portion of the first spacer arm coupled to a proximal portion of the first implantable segment, a second spacer arm, an inner portion of the second spacer arm coupled to a proximal portion of the second implantable segment, a first contact tab coupled to an outer portion of the first spacer arm, and a second contact tab coupled to an outer portion of the second spacer arm. a first implantable segment having at least one of a working electrode, reference electrode, counter electrode, or combined reference/counter electrode and a second implantable segment having the remainder of a working electrode, reference electrode, counter electrode, or combined reference/counter electrode not on the first implantable segment, a distal portion of the first implantable segment coupled to a distal portion of the second implantable segment, a first spacer arm, an inner portion of the first spacer arm coupled to a proximal portion of the first implantable segment, a second spacer arm, an inner portion of the second spacer arm coupled to a proximal portion of the second implantable segment, a first contact tab coupled to an outer portion of the first spacer arm, and a second contact tab coupled to an outer portion of the second spacer arm.
A melt-processible perfluorinated polymer composition comprising a) a melt-processible perfluoropolymer comprising (i) from 80 to 98 % by weight based on the melt-processible perfluoropolymer of repeating units derived from tetrafluoroethylene, (ii) from 2 to 20 % by weight based on the melt-processible perfluoropolymer of repeating units derived from hexafluoropropylene, and (iii) from 0 to 5 % by weight based on the melt-processible perfluoropolymer of repeating units derived from further comonomers other than tetrafluoroethylene and hexafluoropropylene, and wherein the proportion by weight of the repeating units derived from hexafluoropropylene units is greater than that of the repeating units of said further comonomers and b) from 0.01 to 5 % by weight, based on perfluoropolymer a), of a higher-molecular weight perfluorinated polymer with a melting point at least 20 °C above that of the fluoropolymer a) and wherein the perfluoropolymer b) is a copolymer of TFE and PAVE. a) a melt-processible perfluoropolymer comprising (i) from 80 to 98 % by weight based on the melt-processible perfluoropolymer of repeating units derived from tetrafluoroethylene, (ii) from 2 to 20 % by weight based on the melt-processible perfluoropolymer of repeating units derived from hexafluoropropylene, and (iii) from 0 to 5 % by weight based on the melt-processible perfluoropolymer of repeating units derived from further comonomers other than tetrafluoroethylene and hexafluoropropylene, and wherein the proportion by weight of the repeating units derived from hexafluoropropylene units is greater than that of the repeating units of said further comonomers and (i) from 80 to 98 % by weight based on the melt-processible perfluoropolymer of repeating units derived from tetrafluoroethylene, (ii) from 2 to 20 % by weight based on the melt-processible perfluoropolymer of repeating units derived from hexafluoropropylene, and (iii) from 0 to 5 % by weight based on the melt-processible perfluoropolymer of repeating units derived from further comonomers other than tetrafluoroethylene and hexafluoropropylene, and wherein the proportion by weight of the repeating units derived from hexafluoropropylene units is greater than that of the repeating units of said further comonomers and b) from 0.01 to 5 % by weight, based on perfluoropolymer a), of a higher-molecular weight perfluorinated polymer with a melting point at least 20 °C above that of the fluoropolymer a) and wherein the perfluoropolymer b) is a copolymer of TFE and PAVE.