mhurhangee/ep-ind-claims huggingface dataset:
A smoke inhalation device comprising: a housing; a cartridge (114; 214) configured to contain a substance; a release device (118; 218) associated with the cartridge (114; 214) and configured for releasing the substance; a sensor configured to detect an airstream passing through the housing; a timer configured to time the airstream through the housing and to measure the duration of the airstream through the housing each time the sensor is activated by the airstream; and a controller (124; 224) operatively and communicatively coupled to the release device (118; 218) and the sensor, the controller (124; 224) being configured to control the release device (118; 218) based on received data from the sensor, wherein the smoke inhalation device is configured so that the airstream duration is accumulated in a given period to activate a limit feature according to a substance distribution limit set in control logic of the controller (124; 224). a housing; a cartridge (114; 214) configured to contain a substance; a release device (118; 218) associated with the cartridge (114; 214) and configured for releasing the substance; a sensor configured to detect an airstream passing through the housing; a timer configured to time the airstream through the housing and to measure the duration of the airstream through the housing each time the sensor is activated by the airstream; and a controller (124; 224) operatively and communicatively coupled to the release device (118; 218) and the sensor, the controller (124; 224) being configured to control the release device (118; 218) based on received data from the sensor, wherein the smoke inhalation device is configured so that the airstream duration is accumulated in a given period to activate a limit feature according to a substance distribution limit set in control logic of the controller (124; 224).
A corrosion-resistant brass alloy with excellent thermoforming performance comprising: 74.5-76.5wt% Cu, 3.0-3.5wt% Si, 0.11-0.2wt% Fe, 0.04-0.10%wt% P, the balance being Zn and unavoidable impurities; optionally further comprising 0.001-0.01wt% of at least one element selected from the group consisting of B, Ag, Ti and RE; optionally further comprising at least one element selected from the group consisting of Pb, Bi, Se and Te, the content of Pb is 0.01-0.25wt%, the content of Bi is 0.01-0.4wt%, the content of Se is 0.005-0.4wt%, and the content of Te is 0.005-0.4wt%; optionally further comprising 0.05-0.2wt% of at least one element selected from the group consisting of Mn, Al, Sn and Ni; optionally further comprising 0.03-0.15wt% of at least one element selected from the group consisting of As and Sb.
A strip material treatment apparatus having an induction heating chamber, characterized in that the strip material treatiment apparatus comprises: a temperature variation compensating chamber positioned downstream of the induction heating chamber; an indirect heating chamber for heating the strip material by indirect heating downstream of the temperature variation compensating chamber; a circulation duct having a blower and a heater, the circulation duct circulating air in the temperature variation compensating chamber while heating the air; a plurality of hot air blowing nozzles, provided at the end of the circulation duct, that are aligned in a widthwise direction of a strip material and heat the strip material by blowing hot air against the strip material; temperature measuring means that measures a temperature distribution in the widthwise direction of the strip material downstream of the hot air blowing nozzles; an air flow quantity controller that regulates an airflow quantity of hot air to be blown for every hot air blowing nozzle so that a temperature variation in the widthwise direction of the strip material is reduced in accordance with a detection result of the temperature measuring means; a temperature sensor for measuring a temperature of the hot air to be blown by the air blowing nozzles; and a temperature controller for controlling the output of the heater so that the temperature of the hot air detected by the temperature sensor becomes a predetermined temperature. a temperature variation compensating chamber positioned downstream of the induction heating chamber; an indirect heating chamber for heating the strip material by indirect heating downstream of the temperature variation compensating chamber; a circulation duct having a blower and a heater, the circulation duct circulating air in the temperature variation compensating chamber while heating the air; a plurality of hot air blowing nozzles, provided at the end of the circulation duct, that are aligned in a widthwise direction of a strip material and heat the strip material by blowing hot air against the strip material; temperature measuring means that measures a temperature distribution in the widthwise direction of the strip material downstream of the hot air blowing nozzles; an air flow quantity controller that regulates an airflow quantity of hot air to be blown for every hot air blowing nozzle so that a temperature variation in the widthwise direction of the strip material is reduced in accordance with a detection result of the temperature measuring means; a temperature sensor for measuring a temperature of the hot air to be blown by the air blowing nozzles; and a temperature controller for controlling the output of the heater so that the temperature of the hot air detected by the temperature sensor becomes a predetermined temperature.
A timer management method, applied to a terminal device, the method comprising: obtaining, by the terminal device, a first physical downlink control channel, PDCCH; and determining, by the terminal device, whether to stop or start or restart a timer, when the first PDCCH is scrambled by using a cell radio network temporary identifier, C-RNTI, wherein the timer is a semi-persistent scheduling, SPS, timer; wherein the determining whether to stop or start or restart the timer comprises: determining, by the terminal device, when meeting a second condition, to start or restart the timer, the second condition being a criterion for the terminal device to determine whether to start the timer; wherein the determining, by the terminal device, when meeting a second condition, to start or restart the timer comprises: starting or restarting the timer, by the terminal device, when determining that the terminal device is configured with SPS resources, wherein the configured SPS resources are not used to perform any transmission when the SPS timer is running. obtaining, by the terminal device, a first physical downlink control channel, PDCCH; and determining, by the terminal device, whether to stop or start or restart a timer, when the first PDCCH is scrambled by using a cell radio network temporary identifier, C-RNTI, wherein the timer is a semi-persistent scheduling, SPS, timer; wherein the determining whether to stop or start or restart the timer comprises: determining, by the terminal device, when meeting a second condition, to start or restart the timer, the second condition being a criterion for the terminal device to determine whether to start the timer; wherein the determining, by the terminal device, when meeting a second condition, to start or restart the timer comprises: starting or restarting the timer, by the terminal device, when determining that the terminal device is configured with SPS resources, wherein the configured SPS resources are not used to perform any transmission when the SPS timer is running. determining, by the terminal device, when meeting a second condition, to start or restart the timer, the second condition being a criterion for the terminal device to determine whether to start the timer; wherein the determining, by the terminal device, when meeting a second condition, to start or restart the timer comprises: starting or restarting the timer, by the terminal device, when determining that the terminal device is configured with SPS resources, wherein the configured SPS resources are not used to perform any transmission when the SPS timer is running.
Polypropylene composition comprising a) A propylene homopolymer (H-PP) and b) A propylene copolymer (C-PP) of propylene and 1-hexene, Wherein i. the propylene copolymer (C-PP) has an overall 1-hexene content in the range of 3.8 to 10.0 wt.-%, ii. the propylene copolymer (C-PP) has a xylene soluble content in the range of 8.0 to 30.0 wt.-%, and iii. the weight ratio [(C-PP)/(H-PP)] of the propylene copolymer (C-PP) to the propylene homopolymer (H-PP) is in the range of 10/90 to 45/55. a) A propylene homopolymer (H-PP) and b) A propylene copolymer (C-PP) of propylene and 1-hexene, i. the propylene copolymer (C-PP) has an overall 1-hexene content in the range of 3.8 to 10.0 wt.-%, ii. the propylene copolymer (C-PP) has a xylene soluble content in the range of 8.0 to 30.0 wt.-%, and iii. the weight ratio [(C-PP)/(H-PP)] of the propylene copolymer (C-PP) to the propylene homopolymer (H-PP) is in the range of 10/90 to 45/55.
A wall-flow-type exhaust gas purification catalyst to be placed in an exhaust pipe of an internal combustion system to purify exhaust gas emitted from the internal combustion system, the exhaust gas purification catalyst comprising: a substrate having a wall-flow structure with an exhaust inlet-side end and an exhaust outlet-side end, the substrate having an entrance cell that is open on the exhaust inlet-side end and an exit cell that is open on the exhaust outlet-side end, separated with a porous partition wall, a first catalytic layer provided to an internal portion of the partition wall in contact with the entrance cell, having a length L 1 from the exhaust inlet-side end in the running direction of the partition wall with L 1 being less than the total length L w of the partition wall in the running direction, a second catalytic layer provided to an internal portion of the partition wall in contact with the exit cell, having a length L 2 from the exhaust outlet-side end in the running direction of the partition wall with L 2 being less than the total length L w of the partition wall in the running direction; wherein in the internal portion of the partition wall in contact with the entrance cell, near the exhaust outlet-side end, the exhaust gas purification catalyst has a substrate-exposing segment (26N 1) free of the first and second catalytic layers, characterized in that each of the first and second catalytic layers comprises an oxygen storage material, and the first catalytic layer has a coating density D 1 and the second catalytic layer has a coating density D 2 with a D 1 /D 2 ratio value of 1.1 or higher, but 1.8 or lower. a substrate having a wall-flow structure with an exhaust inlet-side end and an exhaust outlet-side end, the substrate having an entrance cell that is open on the exhaust inlet-side end and an exit cell that is open on the exhaust outlet-side end, separated with a porous partition wall, a first catalytic layer provided to an internal portion of the partition wall in contact with the entrance cell, having a length L 1 from the exhaust inlet-side end in the running direction of the partition wall with L 1 being less than the total length L w of the partition wall in the running direction, a second catalytic layer provided to an internal portion of the partition wall in contact with the exit cell, having a length L 2 from the exhaust outlet-side end in the running direction of the partition wall with L 2 being less than the total length L w of the partition wall in the running direction; wherein in the internal portion of the partition wall in contact with the entrance cell, near the exhaust outlet-side end, the exhaust gas purification catalyst has a substrate-exposing segment (26N 1) free of the first and second catalytic layers, characterized in that each of the first and second catalytic layers comprises an oxygen storage material, and the first catalytic layer has a coating density D 1 and the second catalytic layer has a coating density D 2 with a D 1 /D 2 ratio value of 1.1 or higher, but 1.8 or lower.
A polyurethane foam obtained from a polyurethane raw material containing polyol, isocyanate, a foam stabilizer, a catalyst and a foam-forming gas by a mechanical froth method, wherein the polyol contains a caster oil-based polyol having a viscosity, measured according to JIS Z 8803:2011, at 25°C of 2,000 mPa·s or less, and a polyether-based polyol, the castor oil-based polyol is contained in an amount of from 20 to 80 parts by weight per 100 parts by weight of the polyol, the polyether-based polyol is contained in an amount of from 20 to 80 parts by weight per 100 parts by weight of the polyol, and the polyurethane foam has an apparent density, measured according to JIS K 7222:2005, of from 100 to 700 kg/m 3, and compressive residual strain at 100°C of 20% or less, measured according to JIS K 6400-4:2004, Method A (70°C), by changing the temperature to 100°C and performing 50% compression, characterized in that the polyol contains the polyether-based polyol in which an ethylene oxide ratio that is a proportion of an oxyethylene unit in polyoxyalkylene is 50 mol% or more, in an amount of from 20 to 80 parts by weight per 100 parts by weight of the polyol, and a total amount of the polyether-based polyol in which the ethylene oxide ratio is 50 mol% or more, and the castor oil-based polyol is from 50 to 100 parts by weight per 100 parts by weight of the polyol.
A sock-like outer shoe for a releasable arrangement around a frame (110, 910, 1210, 1710, 1810, 1910, 2010) to provide a modular shoe (100, 900, 1200, 1700, 1800, 1900, 2000), in particular a sports shoe, wherein the sock-like outer shoe comprises: - a plurality of profile elements (165, 965, 1265, 1765, 1865, 1965, 2065), wherein at least one of the profile elements (165, 965, 1265, 1765, 1865, 1965, 2065) extends from an outer side of the sock-like shoe (150, 950, 1250, 1750, 1850, 1950, 2050), wherein a region of the at least one of the profile elements (165, 965, 1265, 1765, 1865, 1965, 2065) is configured to releasably engage with a lower side of the frame of the modular shoe; and - the outer shoe further comprising a slip-resistant element arranged at an inner side of the outer shoe, and being characterised in that the slip-resistant element is adapted to interact with at least one slip-resistant element arranged at a heel counter of the frame. - a plurality of profile elements (165, 965, 1265, 1765, 1865, 1965, 2065), wherein at least one of the profile elements (165, 965, 1265, 1765, 1865, 1965, 2065) extends from an outer side of the sock-like shoe (150, 950, 1250, 1750, 1850, 1950, 2050), wherein a region of the at least one of the profile elements (165, 965, 1265, 1765, 1865, 1965, 2065) is configured to releasably engage with a lower side of the frame of the modular shoe; and - the outer shoe further comprising a slip-resistant element arranged at an inner side of the outer shoe, and being characterised in that the slip-resistant element is adapted to interact with at least one slip-resistant element arranged at a heel counter of the frame.
A communication method performed by an apparatus, wherein the method comprises: receiving compression configuration information from a network device, wherein the compression configuration information is used to indicate a parameter of a first Ethernet compression capability; sending a second Ethernet packet to the network device, wherein the second Ethernet packet comprises a second header, the second header comprises a first context identifier and first context information corresponding to the first context identifier, and wherein the second Ethernet packet is an uncompressed packet; receiving first feedback information from the network device, wherein the first feedback information indicates that the network device successfully receives a correspondence between the first context identifier and the first context information; generating a first Ethernet packet based on the parameter of the first Ethernet compression capability, wherein the first Ethernet packet comprises a first header, the first header comprises the first context identifier but does not comprise the first context information, and wherein the first Ethernet packet is a compressed packet; and sending the first Ethernet packet to the network device. receiving compression configuration information from a network device, wherein the compression configuration information is used to indicate a parameter of a first Ethernet compression capability; sending a second Ethernet packet to the network device, wherein the second Ethernet packet comprises a second header, the second header comprises a first context identifier and first context information corresponding to the first context identifier, and wherein the second Ethernet packet is an uncompressed packet; receiving first feedback information from the network device, wherein the first feedback information indicates that the network device successfully receives a correspondence between the first context identifier and the first context information; generating a first Ethernet packet based on the parameter of the first Ethernet compression capability, wherein the first Ethernet packet comprises a first header, the first header comprises the first context identifier but does not comprise the first context information, and wherein the first Ethernet packet is a compressed packet; and sending the first Ethernet packet to the network device.
A method performed by a terminal in a multiple input multiple output, MIMO, wireless communication system, the method comprising: receiving, from a base station, control information configuring a plurality of channel state information, CSI, resource sets for a CSI reporting, wherein each of the plurality of CSI resource sets is configured as semi-static and comprises a first resource set including a CSI reference signal, CSI-RS, resource for channel measurement and at least one of a second resource set including a CSI-RS resource for interference measurement or a third resource set including an interference measurement resource without any transmission signal for the terminal from the base station; receiving, from the base station, downlink control information, DCI, including a CSI request for a CSI resource set among the plurality of CSI resource sets; receiving, from the base station, a reference signal periodically on the CSI resource set corresponding to the CSI request; generating CSI for the CSI reporting based on the received reference signal; and transmitting, to the base station, the CSI. receiving, from a base station, control information configuring a plurality of channel state information, CSI, resource sets for a CSI reporting, wherein each of the plurality of CSI resource sets is configured as semi-static and comprises a first resource set including a CSI reference signal, CSI-RS, resource for channel measurement and at least one of a second resource set including a CSI-RS resource for interference measurement or a third resource set including an interference measurement resource without any transmission signal for the terminal from the base station; receiving, from the base station, downlink control information, DCI, including a CSI request for a CSI resource set among the plurality of CSI resource sets; receiving, from the base station, a reference signal periodically on the CSI resource set corresponding to the CSI request; generating CSI for the CSI reporting based on the received reference signal; and transmitting, to the base station, the CSI.
A rotor (101, 201) for a permanent magnet machine, the rotor comprising: - a first rotor section comprising first permanent magnets generating magnetic field having a pole pitch (pp), - a second rotor section comprising second permanent magnets generating magnetic field having the same pole pitch, the first and second rotor sections being axially successive, and - a first coupling system for connecting the first rotor section to a shaft and a second coupling system for connecting the second rotor section to the shaft or to the first rotor section, wherein the second rotor section is rotatable with respect to the first rotor section by an angle corresponding to the pole pitch in response to releasing the second coupling system so as to set magnetic flux-linkages generated by the first and second permanent magnets on stator windings of the permanent magnet machine to be substantially zeroes, characterized in that the rotor further comprises at least one spring loaded locking device for locking the second rotor section with respect to the first rotor section in response to a situation in which the second rotor section has been rotated by the angle corresponding to the pole pitch with respect to the first rotor section. - a first rotor section comprising first permanent magnets generating magnetic field having a pole pitch (pp), - a second rotor section comprising second permanent magnets generating magnetic field having the same pole pitch, the first and second rotor sections being axially successive, and - a first coupling system for connecting the first rotor section to a shaft and a second coupling system for connecting the second rotor section to the shaft or to the first rotor section,
An article for a humid environment, comprising a glazing or consisting of a glazing, said glazing comprising a glass substrate coated, on at least one of its two faces, preferably on each of its two faces: - with a single layer of titanium zirconium oxide, deposited directly on the glass substrate and having a physical thickness preferably of between 3 and 14 nanometers, more preferably between 5 and 13 nm, and - with a hydrophobic layer formed by grafting, by covalent bonding, a fluoroalkylsilane directly to the layer based on a titanium zirconium oxide, this hydrophobic layer being in contact with the atmosphere. - with a single layer of titanium zirconium oxide, deposited directly on the glass substrate and having a physical thickness preferably of between 3 and 14 nanometers, more preferably between 5 and 13 nm, and - with a hydrophobic layer formed by grafting, by covalent bonding, a fluoroalkylsilane directly to the layer based on a titanium zirconium oxide, this hydrophobic layer being in contact with the atmosphere.