mhurhangee/ep-ind-claims huggingface dataset:
A tire (10, 200) comprising: a circular tire frame formed from a resin material containing an olefin resin; and an exterior member formed from a thermoplastic rubber vulcanizate which contains an ethylene-propylene-diene rubber and a polyethylene-based resin, and in which a content of the ethylene-propylene-diene rubber is from 20% by mass to 45% by mass with respect to a total mass of the thermoplastic rubber vulcanizate, and a fluidity of the thermoplastic rubber vulcanizate is from 1.0 g/10 min to 60 g/10 min, the fluidity being measured as MFR in accordance with ASTM A1238 (Method B) under a load of 98.07 N at a temperature of 230 °C. a circular tire frame formed from a resin material containing an olefin resin; and an exterior member formed from a thermoplastic rubber vulcanizate which contains an ethylene-propylene-diene rubber and a polyethylene-based resin, and in which a content of the ethylene-propylene-diene rubber is from 20% by mass to 45% by mass with respect to a total mass of the thermoplastic rubber vulcanizate, and a fluidity of the thermoplastic rubber vulcanizate is from 1.0 g/10 min to 60 g/10 min, the fluidity being measured as MFR in accordance with ASTM A1238 (Method B) under a load of 98.07 N at a temperature of 230 °C.
Use of a polyimide resin composition for forming a back reflection layer in a solar cell, said composition comprising: (i) a mixed solvent of a first organic solvent and a second organic solvent wherein said organic solvent is a hydrophobic solvent and has a vapor pressure at room temperature of 1 mmHg or lower, and said organic solvent is a hydrophilic solvent having a vapor pressure at room temperature of 1 mmHg or lower; (ii) a heat-resistant polyimide resin having at least one group selected from the group consisting of alkyl groups and perfluoroalkyl groups in recurring units, said polyimide resin being dissolved in said mixed solvent, and (iii) light-reflecting particles dispersed in said organic solvent; said composition being thixotropic. (i) a mixed solvent of a first organic solvent and a second organic solvent wherein said organic solvent is a hydrophobic solvent and has a vapor pressure at room temperature of 1 mmHg or lower, and said organic solvent is a hydrophilic solvent having a vapor pressure at room temperature of 1 mmHg or lower; (ii) a heat-resistant polyimide resin having at least one group selected from the group consisting of alkyl groups and perfluoroalkyl groups in recurring units, said polyimide resin being dissolved in said mixed solvent, and (iii) light-reflecting particles dispersed in said organic solvent; said composition being thixotropic.
A double-stranded oligo RNA comprising a structure represented by the following Structural Formula 1: [Structural Formula 1] A-X-R-Y-B wherein R is an siRNA, wherein A is a hydrophilic material represented by the following Structural Formula 4: [Structural Formula 4] (A' m -J) n with the proviso that the hydrophilic material A is not polyethylene glycol, polyvinyl pyrrolidone or polyoxazoline, wherein A' is a hydrophilic material monomer, J is a linker linking m hydrophilic material monomers to each other or linking m hydrophilic material monomers and the siRNA to each other, m is an integer of 1 to 15, n is an integer of 1 to 10, wherein A' is a compound selected from Compounds and represented as follows: wherein G is selected for the group consisting of CH2, O, S and NH, and wherein J is selected from the group consisting of PO3-, SO3, and CO2, B is a hydrophobic material, X and Y are each independently a simple covalent bond or linker-mediated covalent bond, and the siRNA R comprises a sense strand and an antisense strand, wherein the sense strand and the antisense strand consist of 19 nucleotides, wherein the sense strand has the sequence SEQ ID NO.: 107 and the antisense strand has a sequence complementary thereto. wherein R is an siRNA, wherein A is a hydrophilic material represented by the following Structural Formula 4: [Structural Formula 4] (A' m -J) n with the proviso that the hydrophilic material A is not polyethylene glycol, polyvinyl pyrrolidone or polyoxazoline, wherein A' is a hydrophilic material monomer, J is a linker linking m hydrophilic material monomers to each other or linking m hydrophilic material monomers and the siRNA to each other, m is an integer of 1 to 15, n is an integer of 1 to 10, wherein A' is a compound selected from Compounds and represented as follows: wherein G is selected for the group consisting of CH2, O, S and NH, and wherein J is selected from the group consisting of PO3-, SO3, and CO2, B is a hydrophobic material, X and Y are each independently a simple covalent bond or linker-mediated covalent bond, and the siRNA R comprises a sense strand and an antisense strand, wherein the sense strand and the antisense strand consist of 19 nucleotides, wherein the sense strand has the sequence SEQ ID NO.: 107 and the antisense strand has a sequence complementary thereto.
A cell access resource acquisition method, comprising: determining, by user equipment, UE, at least one candidate sequence of a synchronization signal of an access cell; detecting, by the UE, the synchronization signal according to the at least one candidate sequence; receiving, by the UE, a broadcast channel of the access cell on a broadcast channel resource corresponding to an actual access resource on which the detected synchronization signal is located, the broadcast channel carries resource indication information, which is used for indicating a location relationship between the actual access resource and a lowest frequency of a resource on which the access cell is located; and obtaining, by the UE, the location relationship, which is a frequency interval between a resource location of the actual access resource and a location of the lowest frequency of the resource on which the access cell is located. determining, by user equipment, UE, at least one candidate sequence of a synchronization signal of an access cell; detecting, by the UE, the synchronization signal according to the at least one candidate sequence; receiving, by the UE, a broadcast channel of the access cell on a broadcast channel resource corresponding to an actual access resource on which the detected synchronization signal is located, the broadcast channel carries resource indication information, which is used for indicating a location relationship between the actual access resource and a lowest frequency of a resource on which the access cell is located; and obtaining, by the UE, the location relationship, which is a frequency interval between a resource location of the actual access resource and a location of the lowest frequency of the resource on which the access cell is located.
A portable ventilator configured to deliver gas to a patient for ventilation of the patient, comprising: a housing; a source of pressurized gas; a pre-fill vessel within the housing; a patient vessel within the housing; a source line; an inhalation line configured to deliver ventilation gas to the patient; one or more valves communicating with the gas source via the source line, communicating with the pre-fill and patient vessels, and communicating with the inhalation line; and a controller coupled to the one or more valves for selectively directing the one or more valves between: a delivery configuration where ventilation gas is delivered from the patient vessel to the patient via the inhalation line and pressurized gas is delivered from the gas source to the pre-fill vessel; and a storage configuration where pressurized gas is delivered from the gas source and the pre-fill vessel into the patient vessel to store pressurized gas in the patient vessel. a housing; a source of pressurized gas; a pre-fill vessel within the housing; a patient vessel within the housing; a source line; an inhalation line configured to deliver ventilation gas to the patient; one or more valves communicating with the gas source via the source line, communicating with the pre-fill and patient vessels, and communicating with the inhalation line; and a controller coupled to the one or more valves for selectively directing the one or more valves between: a delivery configuration where ventilation gas is delivered from the patient vessel to the patient via the inhalation line and pressurized gas is delivered from the gas source to the pre-fill vessel; and a storage configuration where pressurized gas is delivered from the gas source and the pre-fill vessel into the patient vessel to store pressurized gas in the patient vessel. a delivery configuration where ventilation gas is delivered from the patient vessel to the patient via the inhalation line and pressurized gas is delivered from the gas source to the pre-fill vessel; and a storage configuration where pressurized gas is delivered from the gas source and the pre-fill vessel into the patient vessel to store pressurized gas in the patient vessel.
An asset-tracking system for tracking a target tag in a space, wherein the asset-tracking system comprises a plurality of listener nodes arranged in the space, and wherein the asset-tracking system comprises a control system, wherein the control system has access to (i) listener location data and to (ii) map data, characterized in that in an operational mode: - the control system is configured to determine the presence of an object, wherein an object tag is associated to the object, and wherein the object tag and the plurality of listener nodes are configured to communicate via an object communication signal and to provide a related object signal to the control system; - the control system determines a confidence zone set for each listener node based on the related object signal, the listener location data and the map data; - the target tag and the plurality of listener nodes are configured to communicate via a target communication signal and to provide a related target signal to the control system; and - the control system determines a target tag location of the target tag based on the related target signal, the listener location data, the map data, and the confidence zone sets of the plurality of listener nodes. - the control system is configured to determine the presence of an object, wherein an object tag is associated to the object, and wherein the object tag and the plurality of listener nodes are configured to communicate via an object communication signal and to provide a related object signal to the control system; - the control system determines a confidence zone set for each listener node based on the related object signal, the listener location data and the map data; - the target tag and the plurality of listener nodes are configured to communicate via a target communication signal and to provide a related target signal to the control system; and - the control system determines a target tag location of the target tag based on the related target signal, the listener location data, the map data, and the confidence zone sets of the plurality of listener nodes.
A method for determining the amount of fetal nucleic acid in a sample comprising: a) contacting nucleic acid present in a sample from a pregnant female, which sample comprises differentially methylated fetal nucleic acid and maternal nucleic acid, the combination of the fetal nucleic acid and the maternal nucleic acid comprising total nucleic acid in the sample, with a reagent that specifically digests non-methylated nucleic acid, thereby enriching the fetal nucleic acid; and b) determining the amount of fetal nucleic acid in the sample in a multiplex reaction by (i) analyzing the amount of fetal nucleic acid at a plurality of loci selected from loci of SEQ ID NOs:90-163, 176, 179, 180, 184, 188, 189, 190, 191, 193, 195, 198, 199, 200, 201, 202, 203, 205, 206, 207, 208, 209, 210, 211, 212, 213, 214, 221, 223, 225, 226, 231, 232, 233, 235, 239, 241, 257, 258, 259, and 261, (ii) determining the amount of total nucleic acid, (iii) determining the amount of y-chromosome nucleic acid if present and (iv) determining the digestion efficiency of the reagent. a) contacting nucleic acid present in a sample from a pregnant female, which sample comprises differentially methylated fetal nucleic acid and maternal nucleic acid, the combination of the fetal nucleic acid and the maternal nucleic acid comprising total nucleic acid in the sample, with a reagent that specifically digests non-methylated nucleic acid, thereby enriching the fetal nucleic acid; and b) determining the amount of fetal nucleic acid in the sample in a multiplex reaction by (i) analyzing the amount of fetal nucleic acid at a plurality of loci selected from loci of SEQ ID NOs:90-163, 176, 179, 180, 184, 188, 189, 190, 191, 193, 195, 198, 199, 200, 201, 202, 203, 205, 206, 207, 208, 209, 210, 211, 212, 213, 214, 221, 223, 225, 226, 231, 232, 233, 235, 239, 241, 257, 258, 259, and 261, (ii) determining the amount of total nucleic acid, (iii) determining the amount of y-chromosome nucleic acid if present and (iv) determining the digestion efficiency of the reagent.
Electric generator comprising: - At least a first thermo acoustic engine comprising: - a first thermo acoustic housing filed with a fluid, - a thermo acoustic structure positioned in said fluid and able to have a first part thermally connected to a warm source and a second part thermally connected to a cold source for inducing an oscillating movement of the fluid within the first thermoacoustic housing; - a magneto hydrodynamic generator comprising: - an MHD housing filed with the same fluid as the first thermo acoustic housing, the MHD housing being in fluidic communication with the first thermo acoustic housing so that the fluid of the MHD housing is subjected to an oscillating movement when the fluid of the first thermo acoustic housing is subjected to an oscillating movement; - MHD means to convert the oscillating movement of the fluid into electricity; wherein the fluid is a gas, the magneto hydrodynamic generator further comprising ionization means to maintain the gas in ionized form in the MHD housing so that it becomes electrically conductive. - At least a first thermo acoustic engine comprising: - a first thermo acoustic housing filed with a fluid, - a thermo acoustic structure positioned in said fluid and able to have a first part thermally connected to a warm source and a second part thermally connected to a cold source for inducing an oscillating movement of the fluid within the first thermoacoustic housing; - a first thermo acoustic housing filed with a fluid, - a thermo acoustic structure positioned in said fluid and able to have a first part thermally connected to a warm source and a second part thermally connected to a cold source for inducing an oscillating movement of the fluid within the first thermoacoustic housing; - a magneto hydrodynamic generator comprising: - an MHD housing filed with the same fluid as the first thermo acoustic housing, the MHD housing being in fluidic communication with the first thermo acoustic housing so that the fluid of the MHD housing is subjected to an oscillating movement when the fluid of the first thermo acoustic housing is subjected to an oscillating movement; - MHD means to convert the oscillating movement of the fluid into electricity; wherein the fluid is a gas, the magneto hydrodynamic generator further comprising ionization means to maintain the gas in ionized form in the MHD housing so that it becomes electrically conductive. - an MHD housing filed with the same fluid as the first thermo acoustic housing, the MHD housing being in fluidic communication with the first thermo acoustic housing so that the fluid of the MHD housing is subjected to an oscillating movement when the fluid of the first thermo acoustic housing is subjected to an oscillating movement; - MHD means to convert the oscillating movement of the fluid into electricity; wherein the fluid is a gas, the magneto hydrodynamic generator further comprising ionization means to maintain the gas in ionized form in the MHD housing so that it becomes electrically conductive.
An electrode for measuring glycoprotein, the electrode comprising: an electrode body having an electrode surface; cystamine bound to the electrode surface; and boronic acid conjugated to the cystamine; wherein said boronic acid is bound directly to the cystamine. an electrode body having an electrode surface; cystamine bound to the electrode surface; and boronic acid conjugated to the cystamine; wherein said boronic acid is bound directly to the cystamine.
Thread withdrawal nozzle for an open-end rotor spinning device with at least two ferromagnetic projections for magnetically coupling to permanent magnets arranged in depressions of a holder in the cover element of a rotor housing, wherein the ferromagnetic projections correspond in their arrangement and dimensions with the depressions in the holder, characterised in that, the ferromagnetic projections are formed directly in the thread withdrawal nozzle made from a non-magnetic material.
A user equipment, UE, comprising: a transceiver configured to simultaneously connect to a primary cell, PCell, serving a primary component carrier, PCC, a primary secondary cell, PSCell, serving a primary secondary component carrier, PSCC, and a plurality of secondary cells, SCells, each serving at least one secondary component carrier, SCC, wherein the PSCell is in a deactivated state and at least one Scell is in the deactivated state; and a processor communicatively coupled to the transceiver and configured to perform operations comprising: receiving (405, 410) a radio resource management, RRM, measurement configuration comprising a PCC measurement object, MO, configuration, a PSCC MO configuration, and an SCC MO configuration; determining a PCC (610, 620) MO carrier specific scaling factor, CSSF, a PSCC MO CSSF, and an SCC MO CSSF for each SCC, wherein the PSCC MO CSSF and the SCC MO CSSF results in a searcher being split evenly among the PSCC and each SCC with an Scell in the deactivated state; and applying each respective CSSF to a measurement period corresponding to each of the PCC (610, 620) MO, the PSCC MO, and the SCC MO. a transceiver configured to simultaneously connect to a primary cell, PCell, serving a primary component carrier, PCC, a primary secondary cell, PSCell, serving a primary secondary component carrier, PSCC, and a plurality of secondary cells, SCells, each serving at least one secondary component carrier, SCC, wherein the PSCell is in a deactivated state and at least one Scell is in the deactivated state; and a processor communicatively coupled to the transceiver and configured to perform operations comprising: receiving (405, 410) a radio resource management, RRM, measurement configuration comprising a PCC measurement object, MO, configuration, a PSCC MO configuration, and an SCC MO configuration; determining a PCC (610, 620) MO carrier specific scaling factor, CSSF, a PSCC MO CSSF, and an SCC MO CSSF for each SCC, wherein the PSCC MO CSSF and the SCC MO CSSF results in a searcher being split evenly among the PSCC and each SCC with an Scell in the deactivated state; and receiving (405, 410) a radio resource management, RRM, measurement configuration comprising a PCC measurement object, MO, configuration, a PSCC MO configuration, and an SCC MO configuration; determining a PCC (610, 620) MO carrier specific scaling factor, CSSF, a PSCC MO CSSF, and an SCC MO CSSF for each SCC, wherein the PSCC MO CSSF and the SCC MO CSSF results in a searcher being split evenly among the PSCC and each SCC with an Scell in the deactivated state; and
An ambulatory infusion device, comprising: an outlet port; a fluid transfer device configured to deliver a predetermined volume during each actuation thereof; a fluid path that operably connects the fluid transfer device to the outlet port; a pressure sensor, including a compliant diaphragm with a compliance value, associated with the fluid path; and a flow restrictor between the pressure sensor and the outlet port; and a controller configured to actuate the fluid transfer device in accordance with a delivery profile that includes a plurality of fluid transfer device actuations, determine based on pressure sensed only upstream of the flow restrictor whether an actual volume delivered during a fluid transfer device actuation is the predetermined volume, and adjust the number of actuations in the delivery profile in response to the actual volume delivered differing from the predetermined volume. an outlet port; a fluid transfer device configured to deliver a predetermined volume during each actuation thereof; a fluid path that operably connects the fluid transfer device to the outlet port; a pressure sensor, including a compliant diaphragm with a compliance value, associated with the fluid path; and a flow restrictor between the pressure sensor and the outlet port; and a controller configured to actuate the fluid transfer device in accordance with a delivery profile that includes a plurality of fluid transfer device actuations, determine based on pressure sensed only upstream of the flow restrictor whether an actual volume delivered during a fluid transfer device actuation is the predetermined volume, and adjust the number of actuations in the delivery profile in response to the actual volume delivered differing from the predetermined volume.
A method of sealing a first substrate and a second substrate of a pet food bag comprising the step of contacting an outside surface of the first substrate at a first location with a first heating bar and contacting an outside surface of the second substrate at a second location with a first non-heating bar, wherein the first location and the second location are opposing, to form a first seal between the first location and the second location, characterized in that the method further comprises the step of entrapping air contained within the pet food bag, before forming the first seal, such that the entrapped air is from 1 to 3 liters of volume, as measured at 1 atmosphere of atmospheric pressure and 25°C (77°F.).
Polygonal turning insert comprising an upper side, an under side, and a clearance surface between the same; a primary cutting edge, which is formed at least along the upper side and includes three part edges, viz. a nose edge situated in a corner and two main edges, which converge toward the same and are individually formed between the clearance surface and a chip surface; as well as chip-controlling guide surfaces for each one of the part edges, viz., on one hand, a first breast surface included in a knob, which is situated behind the nose edge along a bisector between the main edges, and, on the other hand, a pair of flank surfaces, which are included in a land situated inside the chip surfaces of the main edges, and which slope toward lower boundary lines, the first breast surface being convexly arched and having an elongate, C-like contour shape with a length extension that runs transversely to said bisector and the distance between two end points determining the width of the first breast surface, besides which the angle of inclination (β) of the first breast surface in arbitrary vertical sections through a centre decreases from a greatest value in a section along the bisector to a smallest value in a section through the individual end point, characterized in that, at a distance backward from said first breast surface, there is formed a second breast surface, which is convexly arched and slopes from a highest point along the bisector to two lowest end points in the direction transversely to the direction of the bisector, which are separated by a distance that defines the width of the second breast surface, more precisely a width that is smaller than the width of the first breast surface, although amounting to at least 50 % of the same, the upper part of the second breast surface being situated on a higher level than the upper part of the first breast surface.