mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a protein fiber , the method comprising: bringing a spinning dope containing a protein and an organic solvent into contact with a coagulation liquid to coagulate the protein, wherein the content of the protein in the spinning dope is more than 10% by mass based on a total amount of the spinning dope , and the coagulation liquid contains an aqueous solution of pH 0.25 or more and pH 10.00 or less, wherein the aqueous solution is selected from the group consisting of sodium citrate aqueous solution, sodium formate aqueous solution, sodium chloride aqueous solution, calcium chloride aqueous solution, sodium sulfate aqueous solution, potassium hydrogen phosphate aqueous solution, brackish water, sea water, and a mixed solution thereof, and wherein the content of the salt in the coagulation liquid is 25% by mass or less based on the total amount of the coagulation liquid . bringing a spinning dope containing a protein and an organic solvent into contact with a coagulation liquid to coagulate the protein, wherein the content of the protein in the spinning dope is more than 10% by mass based on a total amount of the spinning dope , and the coagulation liquid contains an aqueous solution of pH 0.25 or more and pH 10.00 or less, wherein the aqueous solution is selected from the group consisting of sodium citrate aqueous solution, sodium formate aqueous solution, sodium chloride aqueous solution, calcium chloride aqueous solution, sodium sulfate aqueous solution, potassium hydrogen phosphate aqueous solution, brackish water, sea water, and a mixed solution thereof, and wherein the content of the salt in the coagulation liquid is 25% by mass or less based on the total amount of the coagulation liquid .
A method of printing on an article, which is an article of footwear , a component of footwear, apparel, a component of apparel, sporting equipment, or a component of sporting equipment, comprising: applying a first layer of a first composition onto a first side of an article, wherein the first composition comprises a dispersion of uncrosslinked polymers, and the first side of the article comprises a polymeric material; then applying a color composition onto the first layer while the first composition of the first layer remains wet; and allowing the color composition and the first layer to dry in contact with the first side forming a printed layer on the first side of the article; wherein the polymeric material comprises one or more polyurethane, polyether, polyester, polyurea, polyamide, polyolefin, or any combination thereof. applying a first layer of a first composition onto a first side of an article, wherein the first composition comprises a dispersion of uncrosslinked polymers, and the first side of the article comprises a polymeric material; then applying a color composition onto the first layer while the first composition of the first layer remains wet; and allowing the color composition and the first layer to dry in contact with the first side forming a printed layer on the first side of the article;
An electrically heated aerosol-generating system comprising an aerosol-generating device and a cartridge configured to be used with the device , the device comprising: a device housing comprising a cavity for receiving at least a portion of the cartridge when the device housing is engaged with the cartridge; an inductor coil positioned around or adjacent to the cavity ; and a power supply connected to the inductor coil and configured to provide a high frequency oscillating current to the inductor coil ; the cartridge comprising: a cartridge housing configured to engage the device housing and containing an aerosol-forming substrate, the cartridge housing having an external surface surrounding the aerosol-forming substrate, at least a portion of the external surface being formed by a fluid permeable susceptor element configured to allow the aerosol-forming substrate, in liquid phase, to permeate through it. a device housing comprising a cavity for receiving at least a portion of the cartridge when the device housing is engaged with the cartridge; an inductor coil positioned around or adjacent to the cavity ; and a power supply connected to the inductor coil and configured to provide a high frequency oscillating current to the inductor coil ; the cartridge comprising: a cartridge housing configured to engage the device housing and containing an aerosol-forming substrate, the cartridge housing having an external surface surrounding the aerosol-forming substrate, at least a portion of the external surface being formed by a fluid permeable susceptor element configured to allow the aerosol-forming substrate, in liquid phase, to permeate through it.
A gas turbine engine extending along an axis (CL) comprising: a fan section comprising a plurality of rotor cascades (13A-13C) and a plurality of stator cascades (14A - 14D); a splitter downstream of the fan section, the splitter including an inner side , an outer side , and an inside surface; a compressor section downstream of the splitter ; a combustor section downstream of the compressor section; a first turbine section downstream of the combustor section, the first turbine section being connected to the compressor section; a second turbine section downstream of the first turbine section, the second turbine section being connected to the fan section; and a probe assembly comprising: a probe tip including a sensor face ; a pressure channel extending into the probe tip through the sensor face ; and a temperature channel extending into the probe tip through the sensor face ; a pressure sensor in fluid communication with the pressure channel ; and a temperature sensor in fluid communication with the temperature channel ; wherein: the temperature channel is substantially parallel to the pressure channel ; and the sensor face is substantially flush with the inner side of the splitter . a fan section comprising a plurality of rotor cascades (13A-13C) and a plurality of stator cascades (14A - 14D); a splitter downstream of the fan section, the splitter including an inner side , an outer side , and an inside surface; a compressor section downstream of the splitter ; a combustor section downstream of the compressor section; a first turbine section downstream of the combustor section, the first turbine section being connected to the compressor section; a second turbine section downstream of the first turbine section, the second turbine section being connected to the fan section; and a probe assembly comprising: a probe tip including a sensor face ; a pressure channel extending into the probe tip through the sensor face ; and a temperature channel extending into the probe tip through the sensor face ; a pressure sensor in fluid communication with the pressure channel ; and a temperature sensor in fluid communication with the temperature channel ; a probe tip including a sensor face ; a pressure channel extending into the probe tip through the sensor face ; and a temperature channel extending into the probe tip through the sensor face ; a pressure sensor in fluid communication with the pressure channel ; and a temperature sensor in fluid communication with the temperature channel ; wherein: the temperature channel is substantially parallel to the pressure channel ; and the sensor face is substantially flush with the inner side of the splitter . the temperature channel is substantially parallel to the pressure channel ; and the sensor face is substantially flush with the inner side of the splitter .
An apparatus, comprising: a decoder to decode a downlink control channel transmitted on one or more control channel element(s), CCE(s), in a search space including a plurality of CCEs; processing circuitry to determine an uplink channel resource index based on the one or more CCEs, the uplink channel resource index having an association with one of twelve first-type uplink channel transmission spreading sequences and one of three second-type uplink channel transmission spreading sequences, the three second-type uplink channel transmission spreading sequences being different from the twelve first-type uplink channel transmission spreading sequences; and a transmitter to transmit a response signal on an uplink channel using the one first-type uplink channel transmission spreading sequence and the one second-type uplink channel transmission spreading sequence, wherein: for each of the plural CCE aggregation sizes, the search space is defined by a number of the plurality of CCEs and a starting CCE number of the search space, both being specific to the CCE aggregation size, wherein the twelve first-type uplink channel transmission spreading sequences are separated from each other by different cyclic shift values, and wherein the three second-type uplink channel transmission spreading sequences are substantially orthogonal sequences. a decoder to decode a downlink control channel transmitted on one or more control channel element(s), CCE(s), in a search space including a plurality of CCEs; processing circuitry to determine an uplink channel resource index based on the one or more CCEs, the uplink channel resource index having an association with one of twelve first-type uplink channel transmission spreading sequences and one of three second-type uplink channel transmission spreading sequences, the three second-type uplink channel transmission spreading sequences being different from the twelve first-type uplink channel transmission spreading sequences; and a transmitter to transmit a response signal on an uplink channel using the one first-type uplink channel transmission spreading sequence and the one second-type uplink channel transmission spreading sequence, wherein: for each of the plural CCE aggregation sizes, the search space is defined by a number of the plurality of CCEs and a starting CCE number of the search space, both being specific to the CCE aggregation size, wherein the twelve first-type uplink channel transmission spreading sequences are separated from each other by different cyclic shift values, and wherein the three second-type uplink channel transmission spreading sequences are substantially orthogonal sequences.
A polyethylene composition for the manufacture of an article, comprising the following components: - from 35 to 69.5 wt.% of linear low-density polyethylene (LLDPE); - from 30 to 50 wt.% of high-density polyethylene (HDPE); - from 0.5 to 10 wt.% of a nucleating agent selected from talc or soot (carbon black); and - from 0 to 5 wt.% an optional other additive or a mixture of additives, wherein the nucleating agent is introduced into the composition as a masterbatch in the LLDPE when soot (carbon black) is used, or as a masterbatch in the HDPE when talc is used, and polyethylene composition characterized by tear strength to 39.7 MPa and the relative elongation at break at 23°C to 790%. - from 35 to 69.5 wt.% of linear low-density polyethylene (LLDPE); - from 30 to 50 wt.% of high-density polyethylene (HDPE); - from 0.5 to 10 wt.% of a nucleating agent selected from talc or soot (carbon black); and - from 0 to 5 wt.% an optional other additive or a mixture of additives, wherein the nucleating agent is introduced into the composition as a masterbatch in the LLDPE when soot (carbon black) is used, or as a masterbatch in the HDPE when talc is used, and polyethylene composition characterized by tear strength to 39.7 MPa and the relative elongation at break at 23°C to 790%.
A memory cell comprising: a magnetic Josephson junction, MJJ superconducting quantum interference device, SQUID, comprising a first MJJ device and a second MJJ device , arranged in parallel to each other, wherein the MJJ SQUID is configured to generate a first flux-bias or a second flux-bias , wherein the first flux-bias corresponds to a first direction of current flow in the MJJ SQUID and the second flux-bias corresponds to a second direction of current flow in the MJJ SQUID, wherein the first direction is opposite to the second direction, characterized by a superconducting metal-based superconducting quantum interference device, SQUID, including a first Josephson junction, JJ , and a second JJ , arranged in parallel to each other, wherein each of the first JJ and the second JJ has a critical current responsive to any flux-bias generated by the MJJ SQUID, and wherein in response to a read operation, the superconducting metal-based SQUID is configured to provide an output based at least on the first flux-bias or the second flux-bias. a magnetic Josephson junction, MJJ superconducting quantum interference device, SQUID, comprising a first MJJ device and a second MJJ device , arranged in parallel to each other, wherein the MJJ SQUID is configured to generate a first flux-bias or a second flux-bias , wherein the first flux-bias corresponds to a first direction of current flow in the MJJ SQUID and the second flux-bias corresponds to a second direction of current flow in the MJJ SQUID, wherein the first direction is opposite to the second direction, characterized by a superconducting metal-based superconducting quantum interference device, SQUID, including a first Josephson junction, JJ , and a second JJ , arranged in parallel to each other, wherein each of the first JJ and the second JJ has a critical current responsive to any flux-bias generated by the MJJ SQUID, and wherein in response to a read operation, the superconducting metal-based SQUID is configured to provide an output based at least on the first flux-bias or the second flux-bias.
Shield for a protective helmet , wherein said shield includes a plate-shaped or foil-shaped body configured for association with a remaining portion of the protective helmet , wherein said plate-shaped or foil-shaped body includes two end portions each shaped to include a part of a rotation mechanism intended to cooperate with a corresponding part of the rotation mechanism associated with said remaining portion of the protective helmet so as to allow a rotation of the shield with respect to the remaining portion of the protective helmet and wherein said plate-shaped or foil-shaped body has an internal surface intended to face an internal area of the remaining portion of the helmet , characterised by said internal surface having a guide element having at least one conveying wall for conveying water arriving on said internal surface , and wherein said guide element is arranged at least in at least one or both said two end portions separate from said part of the rotation mechanism , and wherein said guide element is independent of said rotation mechanism . wherein said plate-shaped or foil-shaped body has an internal surface intended to face an internal area of the remaining portion of the helmet , characterised by said internal surface having a guide element having at least one conveying wall for conveying water arriving on said internal surface , and wherein said guide element is arranged at least in at least one or both said two end portions separate from said part of the rotation mechanism , and wherein said guide element is independent of said rotation mechanism .
A collection device (100; 200; 300) for excretions, comprising: a collection bag having a first collection bag opening region ; a flexible collar having a first and a second collar opening region , the first collection bag opening region being arranged opposite the first collar opening region , and the flexible collar comprising a spring clasp that openably closes the flexible collar , the spring clasp having two legs which, in a relaxed state, are arranged parallel to one another and, in a compressed state, form an O-shape, and a feed funnel which has a first feed funnel opening region , the first feed funnel opening region being arranged opposite the second collar opening region , characterized in that the collection device (100; 200; 300) comprises a flexible intermediate element that connects the feed funnel to the second collar opening region , the flexible intermediate element being detachably connected to the second collar opening region , and the flexible intermediate element comprising a fluid-tight, bendable plastics strip which is arranged on an inner side of the flexible collar and on an inner side of the feed funnel. a collection bag having a first collection bag opening region ; a flexible collar having a first and a second collar opening region , the first collection bag opening region being arranged opposite the first collar opening region , and the flexible collar comprising a spring clasp that openably closes the flexible collar , the spring clasp having two legs which, in a relaxed state, are arranged parallel to one another and, in a compressed state, form an O-shape, and a feed funnel which has a first feed funnel opening region , the first feed funnel opening region being arranged opposite the second collar opening region , characterized in that the collection device (100; 200; 300) comprises a flexible intermediate element that connects the feed funnel to the second collar opening region , the flexible intermediate element being detachably connected to the second collar opening region , and the flexible intermediate element comprising a fluid-tight, bendable plastics strip which is arranged on an inner side of the flexible collar and on an inner side of the feed funnel.
A patient-need prediction system comprising: a sensor unit configured to detect electromagnetic radiation from a field of view and provide a sensor signal indicative of a characteristic of a patient in the field of view; a bed sensor unit configured to provide a bed-sensor signal indicative of a status of equipment included in a patient support apparatus supporting the patient, the bed sensor unit comprising at least one of frame position sensors and siderail position sensors; and a controller coupled to the sensor unit and coupled to the bed sensor unit, the controller being configured to: process the sensor signal from the sensor unit and the bed-sensor signal from the bed sensor unit to produce a value related to a stress condition experienced by the patient located in the field of view as detected by the sensor unit; determine whether the value has exceeded a predetermined limit; and perform a predetermined action if the value has exceeded the predetermined limit. a sensor unit configured to detect electromagnetic radiation from a field of view and provide a sensor signal indicative of a characteristic of a patient in the field of view; a bed sensor unit configured to provide a bed-sensor signal indicative of a status of equipment included in a patient support apparatus supporting the patient, the bed sensor unit comprising at least one of frame position sensors and siderail position sensors; and a controller coupled to the sensor unit and coupled to the bed sensor unit, the controller being configured to: process the sensor signal from the sensor unit and the bed-sensor signal from the bed sensor unit to produce a value related to a stress condition experienced by the patient located in the field of view as detected by the sensor unit; determine whether the value has exceeded a predetermined limit; and perform a predetermined action if the value has exceeded the predetermined limit. process the sensor signal from the sensor unit and the bed-sensor signal from the bed sensor unit to produce a value related to a stress condition experienced by the patient located in the field of view as detected by the sensor unit; determine whether the value has exceeded a predetermined limit; and perform a predetermined action if the value has exceeded the predetermined limit.
A gas distribution plate for a chemical vapor deposition/infiltration system, the gas distribution plate comprising: a body comprising a first side and a second side opposite the first side, wherein the body is hollow and defines an internal cavity ; a plurality of pass-through tubes extending through the internal cavity, wherein each pass-through tube of the plurality of pass-through tubes extends from a first opening defined in the first side of the body to a second opening defined in the second side, wherein a reaction gas is configured to flow through the plurality of pass-through tubes; and a cavity inlet defined in the first side of the body, wherein a gaseous mitigation agent is configured to flow into the internal cavity of the body via the cavity inlet; and characterized by a plurality of cavity outlets defined in the second side of the body, wherein the gaseous mitigation agent is configured flow out the internal cavity via the plurality of cavity outlets; and wherein the body comprises a conical distribution feature extending from the second side of the body, and protruding into the internal cavity opposite the cavity inlet. a body comprising a first side and a second side opposite the first side, wherein the body is hollow and defines an internal cavity ; a plurality of pass-through tubes extending through the internal cavity, wherein each pass-through tube of the plurality of pass-through tubes extends from a first opening defined in the first side of the body to a second opening defined in the second side, wherein a reaction gas is configured to flow through the plurality of pass-through tubes; and a cavity inlet defined in the first side of the body, wherein a gaseous mitigation agent is configured to flow into the internal cavity of the body via the cavity inlet; and characterized by a plurality of cavity outlets defined in the second side of the body, wherein the gaseous mitigation agent is configured flow out the internal cavity via the plurality of cavity outlets; and wherein the body comprises a conical distribution feature extending from the second side of the body, and protruding into the internal cavity opposite the cavity inlet.
Method for interchanging data using a quasi-real-time protocol, in which, after a data connection has been set up via at least one network element (R, SR1, SR2), the data are interchanged by means of at least one stanza, wherein, in addition to data (PLD) to be interchanged, a stanza contains an attribute region (ATS) containing a type characterization of the stanza and data for addressing a transmitter and a receiver of the stanza, wherein at least one quality of service attribute is provided in the attribute region (ATS) characterized in that the at least one quality of service attribute is used by at least one network element (R, SR1, SR2) involved in interchanging the data to determine handling of a respective stanza with respect to other stanzas; and in that the quality of service attribute is evaluated on an application layer of the at least one network element (R, SR1, SR2) involved in interchanging the data.
A MEMS sensor comprising: a substrate ; and a sensor element movably mounted to a first side of said substrate ; wherein a second side of said substrate has a pattern formed in relief thereon; wherein the sensor element has rotational symmetry; characterized in that the pattern has a rotational symmetry that substantially corresponds to the symmetry of the sensor element ; and in that the pattern comprises a set of radially oriented ribs and/or the pattern includes one or more annular ribs . a substrate ; and a sensor element movably mounted to a first side of said substrate ; wherein a second side of said substrate has a pattern formed in relief thereon; wherein the sensor element has rotational symmetry; characterized in that the pattern has a rotational symmetry that substantially corresponds to the symmetry of the sensor element ; and in that the pattern comprises a set of radially oriented ribs and/or the pattern includes one or more annular ribs .