mhurhangee/ep-ind-claims huggingface dataset:
A rubber composition comprising: a rubber component including at least 50 mass% of at least one isoprene-based rubber selected from the group consisting of natural rubber and synthetic isoprene rubber; a thermoplastic resin; and a filler including at least 70 mass% of silica, wherein the thermoplastic resin is contained in an amount of from 5 parts by mass to 40 parts by mass relative to 100 parts by mass of the rubber component, the thermoplastic resin is at least one resin selected from the group consisting of a C 5 resin, a C 9 resin, a C 5 -C 9 resin, a dicyclopentadiene resin, a rosin resin, an alkyl phenolic resin, and a terpene phenolic resin, tan δ of the rubber composition at 0°C is no greater than 0.5, a difference between tan δ of the rubber composition at 30°C and tan δ of the rubber composition at 60°C is no greater than 0.070, and a storage modulus of the rubber composition at 1% dynamic strain and 0°C is no greater than 20 MPa. a rubber component including at least 50 mass% of at least one isoprene-based rubber selected from the group consisting of natural rubber and synthetic isoprene rubber; a thermoplastic resin; and a filler including at least 70 mass% of silica, wherein the thermoplastic resin is contained in an amount of from 5 parts by mass to 40 parts by mass relative to 100 parts by mass of the rubber component, the thermoplastic resin is at least one resin selected from the group consisting of a C 5 resin, a C 9 resin, a C 5 -C 9 resin, a dicyclopentadiene resin, a rosin resin, an alkyl phenolic resin, and a terpene phenolic resin, tan δ of the rubber composition at 0°C is no greater than 0.5, a difference between tan δ of the rubber composition at 30°C and tan δ of the rubber composition at 60°C is no greater than 0.070, and a storage modulus of the rubber composition at 1% dynamic strain and 0°C is no greater than 20 MPa.
A ribonucleic acid molecule comprising the nucleotide sequence 5'- mGmG mG mA fUfU fUAA fUfC mG fCfC mG fU mAmG A mAmA A mG fC mA fU mG fUfC mA AA mG fCfC mG mGmA A fCfCfC-3' (ALT102139.01) (SEQ ID NO: 79), wherein "m" represents a 2'-O-methyl substituted nucleotide and "f" represents a 2'-fluoro substituted nucleotide.
A magnetron sputtering apparatus for depositing material onto a substrate, comprising: a chamber comprising a substrate support and a target; a plasma production device configured to produce a plasma within the chamber suitable for sputtering material from the target onto the substrate; and a thermally conductive grid comprising a plurality of cells, in which each cell comprises an aperture, wherein the height of each cell is 10 mm or less, and wherein the ratio of the height of the cells to the width of the apertures is less than 1.0, and wherein the grid is disposed between the substrate support and the target and substantially parallel to the target, and the upper surface of the substrate support is positioned at a distance of 75 mm or less from the lower surface of the target. a chamber comprising a substrate support and a target; a plasma production device configured to produce a plasma within the chamber suitable for sputtering material from the target onto the substrate; and a thermally conductive grid comprising a plurality of cells, in which each cell comprises an aperture, wherein the height of each cell is 10 mm or less, and wherein the ratio of the height of the cells to the width of the apertures is less than 1.0, and wherein the grid is disposed between the substrate support and the target and substantially parallel to the target, and the upper surface of the substrate support is positioned at a distance of 75 mm or less from the lower surface of the target.
A laser arrangement comprising a laser array and an optical structure for providing a defined illumination pattern in a defined field-of-view, wherein the optical structure comprises a diffuser arranged to change a distribution of laser light emitted by Vertical Cavity Surface Emitting Lasers comprised by the laser array, wherein each laser is characterized by an emission cone, wherein the optical structure is arranged to transform the laser light to transformed laser light such that an overlap of laser light comprised by the emission cones of at least a group of the lasers is increased in the field-of-view in comparison to a diffuser which is arranged to diffuse perfectly collimated laser light to a flat-top intensity profile in the field-of-view, wherein the optical structure is arranged to redirect the laser light emitted at large angles of the emission cone to the field-of-view; wherein the optical structure is arranged to provide a slope angle α of an intensity profile along a direction of the field-of-view, wherein the slope angle α is smaller than a divergence angle of the laser in the direction of the field-of-view. characterized in that the optical structure is arranged to increase the overlap of the emitted laser light in the field-of-view such that an intensity of the defined illumination pattern varies in the field-of-view less than 20%". wherein the optical structure is arranged to provide a slope angle α of an intensity profile along a direction of the field-of-view, wherein the slope angle α is smaller than a divergence angle of the laser in the direction of the field-of-view. characterized in that the optical structure is arranged to increase the overlap of the emitted laser light in the field-of-view such that an intensity of the defined illumination pattern varies in the field-of-view less than 20%".
A method performed by User Equipment, UE, for multi-connectivity, the method comprising: receiving a first Radio Resource Control, RRC, message comprising at least one Secondary Cell Group, SCG, Data Radio Bearer, DRB, configuration from a Master Cell Group, MCG; starting a first timer upon receiving the first RRC message; reporting failure information to the MCG via an SCG Failure Information message when the first timer expires, the failure information comprising an SCG failure cause value and at least one first cell identity, ID, indicating at least one suitable cell determined by the UE, the SCG failure cause value indicating a reconfiguration failure of the first RRC message; and stopping the first timer when at least one of the following conditions is satisfied: initiating an RRC reestablishment procedure by sending an RRC reestablishment request message to the MCG; and sending the SCG Failure Information message to the MCG before the first timer expires. receiving a first Radio Resource Control, RRC, message comprising at least one Secondary Cell Group, SCG, Data Radio Bearer, DRB, configuration from a Master Cell Group, MCG; starting a first timer upon receiving the first RRC message; reporting failure information to the MCG via an SCG Failure Information message when the first timer expires, the failure information comprising an SCG failure cause value and at least one first cell identity, ID, indicating at least one suitable cell determined by the UE, the SCG failure cause value indicating a reconfiguration failure of the first RRC message; and stopping the first timer when at least one of the following conditions is satisfied: initiating an RRC reestablishment procedure by sending an RRC reestablishment request message to the MCG; and sending the SCG Failure Information message to the MCG before the first timer expires. initiating an RRC reestablishment procedure by sending an RRC reestablishment request message to the MCG; and sending the SCG Failure Information message to the MCG before the first timer expires.
A respiratory assistance apparatus having an integrated cooling system and comprising an enclosure accommodating a fan that has an electric motor coupled to an impeller and having an inlet and at least two air outlets (121, 122), a gas outlet for the patient and a cooling air outlet of the electric motor which has a longitudinal axis (X'X) and is delimited by a casing having a longitudinal tubular wall and transverse end flanges (20a, 20b), said motor comprising a stator mounted on the tubular wall of the casing and a rotor mounted on a longitudinal motor shaft passing through at least one of the transverse flanges (20a, 20b) of the casing via guide bearings in order to rotate the impeller accommodated in an air-receiving volute, in which apparatus the air circulated by the impeller blades is pulsed toward the gas outlet for the patient via an outlet duct coupled to the volute, a fraction of this air being drawn from the volute and flowing between the rotor and the stator of the motor through the cooling system that comprises openings (24, 27) formed in each of the transverse flanges (20a, 20b), and an air discharge pipe is coupled both to the tubular wall of the casing and to the cooling air outlet of the enclosure, characterized in that, in said apparatus, an air flow coming directly from the inlet of the enclosure is suctioned (arrows F1) into the volute by the rotation of the impeller blades, said air flows (arrows F1) coming directly from the space located above the volute, and in that, in said system, sealing washers (4a, 4b), secured to the transverse flanges (20a, 20b) so as to cover said flanges, are centered on the motor shaft and are large enough for said washers (4a, 4b) to protect the bearings from the air (F3, F4, F5) flowing through and leaving the motor by extending as close to the motor shaft as possible without generating friction or closing off the openings (24, 27) of the cooling system.
A filter for an apparatus for delivering a flow of gas to a patient, the filter comprising: a filter body, wherein the filter body has a main compartment and a sub-compartment at least partly within the main compartment, wherein the main compartment is in fluid communication with a main compartment gases inlet and the sub-compartment is in fluid communication with a sub-compartment gases inlet, the sub-compartment comprising walls (1023, 1025, 1027) that provide a barrier to direct all gases from the sub-compartment gases inlet through a sub-compartment gases outlet and through a filter medium; and the filter medium associated with both the main compartment and the sub-compartment, and that is arranged to filter gases exiting the main compartment and the sub-compartment such that gases exiting the main compartment and gases exiting the sub-compartment are entrained together after passing through the filter medium, wherein the sub-compartment is configured to receive gases from an alternative supply to that of the main compartment. a filter body, wherein the filter body has a main compartment and a sub-compartment at least partly within the main compartment, wherein the main compartment is in fluid communication with a main compartment gases inlet and the sub-compartment is in fluid communication with a sub-compartment gases inlet, the sub-compartment comprising walls (1023, 1025, 1027) that provide a barrier to direct all gases from the sub-compartment gases inlet through a sub-compartment gases outlet and through a filter medium; and the filter medium associated with both the main compartment and the sub-compartment, and that is arranged to filter gases exiting the main compartment and the sub-compartment such that gases exiting the main compartment and gases exiting the sub-compartment are entrained together after passing through the filter medium, wherein the sub-compartment is configured to receive gases from an alternative supply to that of the main compartment.
A method of monitoring the level of an analyte in a subject, comprising the steps of: (a) measuring the concentration of the analyte in a sample; (b) introducing into the sample a quantity of the analyte that is representative of the level of analyte in the subject; (c) re-measuring the concentration of the analyte in the sample; (d) determining the level of the analyte in the subject based on the difference between the measurement of concentration in step (c) and the previous measurement of concentration; and (e) repeating steps (b) to (d) at intervals to generate a sequence of determinations over time. (a) measuring the concentration of the analyte in a sample; (b) introducing into the sample a quantity of the analyte that is representative of the level of analyte in the subject; (c) re-measuring the concentration of the analyte in the sample; (d) determining the level of the analyte in the subject based on the difference between the measurement of concentration in step (c) and the previous measurement of concentration; and (e) repeating steps (b) to (d) at intervals to generate a sequence of determinations over time.
A distributed antenna system, comprising: a master unit (114, 602) adapted for communicating digitized signals with remote units (116, 604) operable for providing wireless network coverage in an area, the master unit including a plurality of base transceiver station cards adapted for: receiving call information in network protocol data from a network, decoding the network protocol data, and generating digital signals comprising digital samples from the decoded network protocol data for distribution to the remote units, the digital signals including the call information; and characterized by a self-optimized network controller adapted for: preventing transmission of signals in a downlink band by a remote unit of the distributed antenna system; sending a command to tune a receiver in the remote unit to receive signals in the downlink band from a base station outside of the distributed antenna system; and sending (410, 412) a command to the remote unit regarding transmission of signals in the downlink band based on a comparison of processed signals received in the downlink band to an interference threshold. a master unit (114, 602) adapted for communicating digitized signals with remote units (116, 604) operable for providing wireless network coverage in an area, the master unit including a plurality of base transceiver station cards adapted for: receiving call information in network protocol data from a network, decoding the network protocol data, and generating digital signals comprising digital samples from the decoded network protocol data for distribution to the remote units, the digital signals including the call information; and characterized by receiving call information in network protocol data from a network, decoding the network protocol data, and generating digital signals comprising digital samples from the decoded network protocol data for distribution to the remote units, the digital signals including the call information; and characterized by a self-optimized network controller adapted for: preventing transmission of signals in a downlink band by a remote unit of the distributed antenna system; sending a command to tune a receiver in the remote unit to receive signals in the downlink band from a base station outside of the distributed antenna system; and sending (410, 412) a command to the remote unit regarding transmission of signals in the downlink band based on a comparison of processed signals received in the downlink band to an interference threshold. preventing transmission of signals in a downlink band by a remote unit of the distributed antenna system; sending a command to tune a receiver in the remote unit to receive signals in the downlink band from a base station outside of the distributed antenna system; and sending (410, 412) a command to the remote unit regarding transmission of signals in the downlink band based on a comparison of processed signals received in the downlink band to an interference threshold.
A data transmission method, applied to a first apparatus in a distributed system, wherein the distributed system comprises the first apparatus and M second apparatuses, and the method comprises: separately sending an identity range of at least one stream of a target connection to each of N second apparatuses of the M second apparatuses, such that the N second apparatuses receive different identity ranges; and sending connection information of the target connection to each of the N second apparatuses, so that each of the N second apparatuses determines a stream identity based on the identity range and transmits data to a target end by using the at least one stream of the target connection, wherein different streams correspond to different identity ranges, the stream identity is carried in the at least one stream, the target connection is a target transport protocol-based connection, the target connection is a connection established between the first apparatus and the target end, the connection information is used to indicate a parameter required for data transmission, both M and N are positive integers greater than or equal to 1, and N is less than or equal to M. separately sending an identity range of at least one stream of a target connection to each of N second apparatuses of the M second apparatuses, such that the N second apparatuses receive different identity ranges; and sending connection information of the target connection to each of the N second apparatuses, so that each of the N second apparatuses determines a stream identity based on the identity range and transmits data to a target end by using the at least one stream of the target connection, wherein different streams correspond to different identity ranges, the stream identity is carried in the at least one stream, the target connection is a target transport protocol-based connection, the target connection is a connection established between the first apparatus and the target end, the connection information is used to indicate a parameter required for data transmission, both M and N are positive integers greater than or equal to 1, and N is less than or equal to M.
A non-combustion heating-type smoking article comprising: a mouthpiece having a suction port hole; a flavor source accommodation section that accommodates a flavor source and that has a vapor discharge port through which a vapor component generated by evaporation of the flavor source is discharged; a heater for heating and evaporating the flavor source; a chamber section for establishing communication between the vapor discharge port and the suction port hole and temporarily storing the vapor component generated by the evaporation of the flavor source; and an air intake hole that establishes communication between an inside and an outside of the chamber section, wherein the vapor discharge port is opened to only the chamber section, the vapor component that has accumulated in the chamber section is mixed during suction with intake air that has flowed into the chamber section from the air intake hole, and the vapor component is transported to the suction port hole, characterized in that the heater includes a heating element that heats a side surface of the flavor source accommodation section. a mouthpiece having a suction port hole; a flavor source accommodation section that accommodates a flavor source and that has a vapor discharge port through which a vapor component generated by evaporation of the flavor source is discharged; a heater for heating and evaporating the flavor source; a chamber section for establishing communication between the vapor discharge port and the suction port hole and temporarily storing the vapor component generated by the evaporation of the flavor source; and an air intake hole that establishes communication between an inside and an outside of the chamber section, wherein the vapor discharge port is opened to only the chamber section, the vapor component that has accumulated in the chamber section is mixed during suction with intake air that has flowed into the chamber section from the air intake hole, and the vapor component is transported to the suction port hole, characterized in that the heater includes a heating element that heats a side surface of the flavor source accommodation section.
A motorcycle comprising: an engine including an exhaust port; a first silencer; a second silencer separate from the first silencer; a first exhaust pipe connecting the exhaust port and the first silencer; and a connecting pipe portion connecting the first silencer and the second silencer; wherein, the first silencer includes: a first expansion chamber for allowing exhaust to expand, the first expansion chamber being located downstream of the first exhaust pipe in the exhaust flow; and a second expansion chamber for allowing exhaust to expand, the second expansion chamber being partitioned from the first expansion chamber, the second expansion chamber being located further downstream than the first expansion chamber, characterized in that the connecting pipe portion includes: a second exhaust pipe connected to the first expansion chamber; an exhaust control valve for controlling a flow passage area of the second exhaust pipe, the exhaust control valve being located on the second exhaust pipe; and a third exhaust pipe connected to the second expansion chamber. an engine including an exhaust port; a first silencer; a second silencer separate from the first silencer; a first exhaust pipe connecting the exhaust port and the first silencer; and a connecting pipe portion connecting the first silencer and the second silencer; wherein, the first silencer includes: a first expansion chamber for allowing exhaust to expand, the first expansion chamber being located downstream of the first exhaust pipe in the exhaust flow; and a second expansion chamber for allowing exhaust to expand, the second expansion chamber being partitioned from the first expansion chamber, the second expansion chamber being located further downstream than the first expansion chamber, characterized in that the connecting pipe portion includes: a first expansion chamber for allowing exhaust to expand, the first expansion chamber being located downstream of the first exhaust pipe in the exhaust flow; and a second expansion chamber for allowing exhaust to expand, the second expansion chamber being partitioned from the first expansion chamber, the second expansion chamber being located further downstream than the first expansion chamber, characterized in that the connecting pipe portion includes: a second exhaust pipe connected to the first expansion chamber; an exhaust control valve for controlling a flow passage area of the second exhaust pipe, the exhaust control valve being located on the second exhaust pipe; and a third exhaust pipe connected to the second expansion chamber.