mhurhangee/ep-ind-claims huggingface dataset:
A vulcanizable composition of matter comprising: a rubber component; a filler; a curative for the rubber, where the rubber component includes a multi-modal polybutadiene polymer including at least two distinct peak molecular weights within a range defined by a lower limit of 80 kg/mole and an upper limit of 500 kg/mole. a rubber component; a filler; a curative for the rubber, where the rubber component includes a multi-modal polybutadiene polymer including at least two distinct peak molecular weights within a range defined by a lower limit of 80 kg/mole and an upper limit of 500 kg/mole.
A cellulose product comprising the contact product of: a) at least one cellulosic ether selected from carboxymethyl cellulose, hydroxyethyl cellulose, carboxymethyl hydroxyethyl cellulose (CMHEC), methyl cellulose, hydroxyethyl methyl cellulose (HEMC), ethyl hydroxyl ethyl cellulose (EHEC), hydroxypropyl cellulose, and combinations thereof.; b) at least one salt of a polyvalent metal ion; and c) at least one ligand selected from at least one poly(carboxylic) acid or a salt thereof that comprises secondary nitrogen atoms, primary nitrogen atoms, or no nitrogen atoms, and, wherein the cellulose product has less than 10 wt% water. a) at least one cellulosic ether selected from carboxymethyl cellulose, hydroxyethyl cellulose, carboxymethyl hydroxyethyl cellulose (CMHEC), methyl cellulose, hydroxyethyl methyl cellulose (HEMC), ethyl hydroxyl ethyl cellulose (EHEC), hydroxypropyl cellulose, and combinations thereof.; b) at least one salt of a polyvalent metal ion; and c) at least one ligand selected from at least one poly(carboxylic) acid or a salt thereof that comprises secondary nitrogen atoms, primary nitrogen atoms, or no nitrogen atoms, and,
A method for coating an inner surface of a polyvinyl chloride medical tube containing a plasticizer with an antithrombogenic material composed of a copolymer comprising methoxypolyethyleneglycol (meth)acrylate, alkyl (meth)acrylate, and silicone (meth)acrylate, the method comprising the successive steps of: passing a solution obtained by dissolving an antithrombogenic material in a solvent comprising water and at least one kind of alcohol that dissolves the copolymer but does not dissolve the plasticizer through the inner surface of the tube; passing water through the tube; and drying the tube. passing a solution obtained by dissolving an antithrombogenic material in a solvent comprising water and at least one kind of alcohol that dissolves the copolymer but does not dissolve the plasticizer through the inner surface of the tube; passing water through the tube; and drying the tube.
A mold insert stack for an injection mold, the mold stack insert comprising: a conformal cooling core insert and a conformal cooling cavity insert; the core insert comprising a core insert body defining a core insert molding surface which, in a use, defines a portion of a molding cavity for molding a molded article, and the cavity insert comprising a cavity insert body defining a cavity insert molding surface which, in a use, defines another portion of the molding cavity for molding the molded article, characterized in that the core insert further comprises a core insert cooling circuit having a plurality of core insert cooling channels which plurality of core insert cooling channels comprises spiral channels (130, 132, 134) coupled in parallel to a source of cooling fluid, and the cavity insert further comprises a cavity insert cooling circuit having a plurality of cavity insert cooling channels which plurality of cavity insert cooling channels coupled in parallel to a source of cooling fluid. a conformal cooling core insert and a conformal cooling cavity insert; the core insert comprising a core insert body defining a core insert molding surface which, in a use, defines a portion of a molding cavity for molding a molded article, and the cavity insert comprising a cavity insert body defining a cavity insert molding surface which, in a use, defines another portion of the molding cavity for molding the molded article, characterized in that the core insert further comprises a core insert cooling circuit having a plurality of core insert cooling channels which plurality of core insert cooling channels comprises spiral channels (130, 132, 134) coupled in parallel to a source of cooling fluid, and the cavity insert further comprises a cavity insert cooling circuit having a plurality of cavity insert cooling channels which plurality of cavity insert cooling channels coupled in parallel to a source of cooling fluid.
A gas shielding device adapted to be implemented during a step of welding in a controlled atmosphere of an acoustic attenuation panel, this device comprising a diffusion enclosure including inert gas injection means for injecting said gas into the enclosure and a housing formed by an orifice for receiving a welding torch throughout the enclosure, the inert gas injection means comprise an inert gas diffuser comprising a ring mounted at the periphery of, and coaxially with, said housing of the welding torch, characterized in that it further comprises a grid closing the enclosure, this grid being honeycomb-shaped with through orifices and being arranged to be placed facing the surfaces of the panel to be welded, and in that the ring of the inert gas diffuser comprises gas outlet orifices over its periphery directed towards the concavity of the enclosure opposite to the acoustic attenuation panel.
A data transmission method, comprising: determining whether to adopt a Device-to-Device (D2D) communication data transmission manner according to a service request received or triggered on the network side; if yes, determining a data source node and a data-receiving destination node corresponding to the service request; selecting a bearer network node corresponding to the data source node and the data-receiving destination node according to both (i) a distance principle and/or signal quality principle, and (ii) a credit principle, wherein under the credit principle network nodes are defined as trusted or untrusted based on access control parameters maintained on the network side, and wherein a trusted network node is allowed to undertake data relay service and an untrusted network node is not allowed to undertake data relay service; and determining a network structure corresponding to the D2D communication data transmission manner according to the bearer network node, the data source node, and the data-receiving destination node. determining whether to adopt a Device-to-Device (D2D) communication data transmission manner according to a service request received or triggered on the network side; if yes, determining a data source node and a data-receiving destination node corresponding to the service request; selecting a bearer network node corresponding to the data source node and the data-receiving destination node according to both (i) a distance principle and/or signal quality principle, and (ii) a credit principle, wherein under the credit principle network nodes are defined as trusted or untrusted based on access control parameters maintained on the network side, and wherein a trusted network node is allowed to undertake data relay service and an untrusted network node is not allowed to undertake data relay service; and determining a network structure corresponding to the D2D communication data transmission manner according to the bearer network node, the data source node, and the data-receiving destination node.
Hydrosoluble polyurethanes resulting from the condensation: a) of at least one polyalkylene glycol, b) of at least one polyisocyanate, and c) of at least one monomer of formula: where: - m and n are integers of less than 150, at least one of which is non-zero, - A and B designate alkyl groups which are different one from another, and having 2 to 4 carbon atoms, - R designates an alkyl group, whether linear or branched, containing 8 to 20 carbon atoms. a) of at least one polyalkylene glycol, b) of at least one polyisocyanate, and c) of at least one monomer of formula: where: - m and n are integers of less than 150, at least one of which is non-zero, - A and B designate alkyl groups which are different one from another, and having 2 to 4 carbon atoms, - R designates an alkyl group, whether linear or branched, containing 8 to 20 carbon atoms. - m and n are integers of less than 150, at least one of which is non-zero, - A and B designate alkyl groups which are different one from another, and having 2 to 4 carbon atoms, - R designates an alkyl group, whether linear or branched, containing 8 to 20 carbon atoms.
A gas turbine engine comprising: a core engine (80; 180) having a compressor section and a turbine section, said compressor section including a low pressure compressor and a high pressure compressor; and a cooling air system for tapping compressed air and passing the compressed air through a heat exchanger, and cooling air passing over said heat exchanger to cool said compressed air, said compressed air being returned to said core engine (80; 180) to provide a cooling function, wherein said heat exchanger is mounted through flexible mounts (108, 112) allowing movement between a static structure and said heat exchanger wherein at least two flanges are formed on said static structure at two axially spaced locations and there being one of said flexible mounts (108, 112) connecting said heat exchanger to each said flange, and there are also at least two more of said flexible mounts (108, 112) positioned at two circumferentially spaced locations and mounting said heat exchanger to said static structure at circumferentially spaced locations, characterised in that each of said flexible mounts (108, 112) allows movement between said static structure and said heat exchanger in at least two dimensions. a core engine (80; 180) having a compressor section and a turbine section, said compressor section including a low pressure compressor and a high pressure compressor; and a cooling air system for tapping compressed air and passing the compressed air through a heat exchanger, and cooling air passing over said heat exchanger to cool said compressed air, said compressed air being returned to said core engine (80; 180) to provide a cooling function, wherein said heat exchanger is mounted through flexible mounts (108, 112) allowing movement between a static structure and said heat exchanger wherein at least two flanges are formed on said static structure at two axially spaced locations and there being one of said flexible mounts (108, 112) connecting said heat exchanger to each said flange, and there are also at least two more of said flexible mounts (108, 112) positioned at two circumferentially spaced locations and mounting said heat exchanger to said static structure at circumferentially spaced locations, characterised in that each of said flexible mounts (108, 112) allows movement between said static structure and said heat exchanger in at least two dimensions.
Locking unit for a vehicle seat, comprising a rotary latch which is mounted so as to be pivotable about a first pivot axis between an open position and a closed position, and at least one securing element (30, 40) which is mounted so as to be pivotable about a second pivot axis running in an axial direction, for securing the closed position of the rotary latch, and a blocking element which, when the rotary latch is in the open position, blocks the securing element (30, 40) in an open position, wherein the blocking element is movable relative to the securing element (30, 40) in a direction parallel to the axial direction, wherein the blocking element is part of a spring disc which has a spring disc hole, the central axis of which runs in the axial direction, wherein a bearing pin on which the securing element (30, 40) is mounted protrudes through the spring disc hole, characterized in that the spring disc is connected non-rotatably to a side plate to which the bearing pin is fastened.
A method for reducing outgassing (evaporation of volatile organic compounds from the plastic and concomitant condensation of the volatile organic compounds on nearby cooler surfaces, which causes the hazing.) of a polyester having repeat units derived from 1,4-butanediol, comprising melt blending a polyester mixture comprising the polyester and 0.2 to 2 weight percent water, based on the weight of the polyester, wherein the polyester mixture further comprises 0.01 to 0.5 weight percent, based on the weight of the polyester, of a quencher, wherein the quencher is selected from the group consisting of phosphorous compounds, boric acid, aliphatic or aromatic carboxylic acids, carboxylic acid anhydrides, polyols, epoxies, or a combination thereof.
Method for predicting an outcome of cancer in a patient, said method comprising: (a) determining in a biological sample from said patient the expression levels of the genes AKR1C3, and SPP1, (b) mathematically combining said expression levels to yield a combined score, wherein said combined score is indicative of benefit from microtubule stabilizing agent-based cytotoxic chemotherapy of said patient, wherein an increased level of gene expression of AKR1C3 and SPP1 in comparison to a reference pattern of expression is indicative of a benefit from microtubule stabilizing agent-based cytotoxic chemotherapy. (a) determining in a biological sample from said patient the expression levels of the genes AKR1C3, and SPP1, (b) mathematically combining said expression levels to yield a combined score, wherein said combined score is indicative of benefit from microtubule stabilizing agent-based cytotoxic chemotherapy of said patient,
Clip contact element which can be inserted into a recess of a printed circuit board in a removable manner, comprising a contact core body, wherein at least two guide bevel elements and at least two contact lip elements, which are designed to clamp a plug-in contact unit, extend from the contact core body, and wherein the contact core body has at least one conductor contact section which is designed to bring the clip contact element into contact with an inner wall of the recess of the printed circuit board and to ensure an electrical contact-connection with the printed circuit board, wherein the contact core body is substantially in the form of a hollow cylinder, and wherein the at least two guide bevel elements and at least two contact lip elements are arranged in a manner distributed alternately over a periphery of the contact core body; characterized in that the clip contact element has a stop element opposite to each contact lip element on the contact core body, which stop element in each case extends perpendicularly to a longitudinal axis of the contact core body from the contact core body, a latching element (60, 62, 64) is provided on at least one guide bevel element, and the at least one conductor contact section is designed as a circular raised portion which is bent out towards the outside.
Measuring device for analysing signals with a plurality of data streams (7 1 to 7 n; 9 1 to 9 n) of a wireless communications system (2; 8) with at least two transmitting units, exhibiting a receiving unit and a processing unit, wherein a switching unit firstly connects the at least two transmitting units of a known wireless communications system individually one after the other with the measuring device, wherein then a combiner connects the at least two transmitting units of a wireless communications system to be checked with one another and with the measuring device, wherein the data stream (7 1 to 7 n; 9 1 to 9 n) is a periodic data stream (7 1 to 7 n; 9 1 to 9 n), wherein the data stream (7 1 to 7 n; 9 1 to 9 n) contains a preamble, wherein the preambles of all the data streams (7 1 to 7 n; 9 1 to 9 n) are orthogonal to one another and wherein the data stream (7 1 to 7 n) of the known wireless communications system is the same as the data stream 9 1 to 9 n) of the wireless communications system to be checked.
A fin plug for removably securing a water craft fin to a water craft, the fin plug including: a first open cavity adapted to receive a base portion of the water craft fin; the first open cavity having a cavity wall; a resilient biasing rod, the resilient biasing rod being located along an elongate side of the cavity wall, adjacent the first open cavity; and a ring-shaped protruding member located about the resilient rod, such that the ring-shaped protruding member protrudes into the elongate first open cavity; wherein the ring-shaped protruding member is adapted to abut the base portion of the fin when received into the first open cavity, the resilient biasing rod being adapted to bend resiliently and remain slightly bent, applying a force to the ring-shaped protruding member, which subsequently rotates about the resilient biasing rod and applies force to the fin base portion in order to removably maintain the fin base portion in the first open cavity. a first open cavity adapted to receive a base portion of the water craft fin; the first open cavity having a cavity wall; a resilient biasing rod, the resilient biasing rod being located along an elongate side of the cavity wall, adjacent the first open cavity; and a ring-shaped protruding member located about the resilient rod, such that the ring-shaped protruding member protrudes into the elongate first open cavity;
An LED tube lamp, comprising: a plurality of LED light sources; a lamp tube; and at least one end cap; wherein the at least one end cap sleeves over an end of the lamp tube, and the at least one end cap comprises an electrically insulating tubular part and a thermal conductive ring fixedly arranged on an outer circumferential surface of the electrically insulating tubular part and adhesively bonded to the end of the lamp tube characterized in that the electrically insulating tubular part of the at least one end cap comprises a first tubular part and a second tubular part, the second tubular part is connected to the first tubular part along an axial direction of the lamp tube, and an outer diameter of the second tubular part is less than an outer diameter of the first tubular part. a plurality of LED light sources; a lamp tube; and at least one end cap; wherein the at least one end cap sleeves over an end of the lamp tube, and the at least one end cap comprises an electrically insulating tubular part and a thermal conductive ring fixedly arranged on an outer circumferential surface of the electrically insulating tubular part and adhesively bonded to the end of the lamp tube characterized in that the electrically insulating tubular part of the at least one end cap comprises a first tubular part and a second tubular part, the second tubular part is connected to the first tubular part along an axial direction of the lamp tube, and an outer diameter of the second tubular part is less than an outer diameter of the first tubular part.
A method for decoding an encoded audio signal, wherein the encoded audio signal comprises a sequence of frames comprising encoded audio data and metadata, the metadata including a plurality of different sets of dynamic range control, referred to as DRC, gains, wherein the encoded audio signal further comprises an indication of a loudness level of the audio signal, wherein the metadata indicates a plurality of DRC profiles for the encoded audio signal, wherein each DRC profile comprises definition data defining a range of output reference levels for which the DRC profile is applicable, and wherein each set of DRC gains corresponds to one of the plurality of DRC profiles, the method comprising setting a desired output reference level; the method being characterised by further comprising: selecting a specific DRC profile for which the applicable range of output reference levels includes the desired output reference level; extracting audio data and metadata from the encoded audio signal; extracting from the metadata, and applying, the DRC gains corresponding to the selected specific DRC profile to the extracted audio data to adjust the dynamic range of the extracted audio data thereby obtaining dynamic range adjusted audio data; determining a loudness related gain based on the indication of the loudness level of the audio signal and the desired output reference level to cause a change from the loudness level of the audio data to the desired output reference level; applying the loudness related gain to the dynamic range adjusted audio data to obtain loudness adjusted audio data that has the desired output reference level; and generating output audio data elements from the loudness adjusted audio data; wherein one or more of the DRC profiles are applicable for playback in a noisy environment. selecting a specific DRC profile for which the applicable range of output reference levels includes the desired output reference level; extracting audio data and metadata from the encoded audio signal; extracting from the metadata, and applying, the DRC gains corresponding to the selected specific DRC profile to the extracted audio data to adjust the dynamic range of the extracted audio data thereby obtaining dynamic range adjusted audio data; determining a loudness related gain based on the indication of the loudness level of the audio signal and the desired output reference level to cause a change from the loudness level of the audio data to the desired output reference level; applying the loudness related gain to the dynamic range adjusted audio data to obtain loudness adjusted audio data that has the desired output reference level; and generating output audio data elements from the loudness adjusted audio data; wherein one or more of the DRC profiles are applicable for playback in a noisy environment.
A message forwarding method, comprising: receiving, by a Dynamic Host Configuration Protocol for Internet Protocol version 6, DHCPv6, layer-3 relay agent device, a first DHCPv6 message from a DHCPv6 client through a layer-3 interface of the DHCPv6 layer-3 relay agent device; generating, by the DHCPv6 layer-3 relay agent device, a Relay-forward message, wherein the Relay-forward message comprises two Interface-ID Option fields, wherein one of the two Interface-ID Option fields and the first DHCPv6 message are encapsulated in an internal-layer of the Relay-forward message, and another one of the two second Interface-ID Option fields is encapsulated in an external-layer of the Relay-forward message, wherein one of the two Interface-ID Option fields indicates an identifier of a port on the DHCPv6 layer-3 relay agent device on which the first DHCPv6 message is received, and another one of the two Interface-ID Option fields indicates an identifier of the layer-3 interface of the DHCPv6 layer-3 relay agent device through which the first DHCPv6 message is received; and sending, by the DHCPv6 layer-3 relay agent device, the Relay-forward message to a DHCPv6 server. receiving, by a Dynamic Host Configuration Protocol for Internet Protocol version 6, DHCPv6, layer-3 relay agent device, a first DHCPv6 message from a DHCPv6 client through a layer-3 interface of the DHCPv6 layer-3 relay agent device; generating, by the DHCPv6 layer-3 relay agent device, a Relay-forward message, wherein the Relay-forward message comprises two Interface-ID Option fields, wherein one of the two Interface-ID Option fields and the first DHCPv6 message are encapsulated in an internal-layer of the Relay-forward message, and another one of the two second Interface-ID Option fields is encapsulated in an external-layer of the Relay-forward message, wherein one of the two Interface-ID Option fields indicates an identifier of a port on the DHCPv6 layer-3 relay agent device on which the first DHCPv6 message is received, and another one of the two Interface-ID Option fields indicates an identifier of the layer-3 interface of the DHCPv6 layer-3 relay agent device through which the first DHCPv6 message is received; and sending, by the DHCPv6 layer-3 relay agent device, the Relay-forward message to a DHCPv6 server.