mhurhangee/patent-ind-claim-en huggingface dataset:
A method for purifying a carrier gas which comprises oxygenated impurities in a first degree of oxidation, the purification method comprising the circulation, advantageously uninterrupted, of the carrier gas through and in a direction XX' of a filter , the filter being made of an oxygen trapping material which has a redox potential E°, and a first portion of which is in a reduced redox state and within which the oxygenated impurities are trapped and/or pass from the first degree of oxidation to a second degree of oxidation, in which the oxygen trapping material is a ceramic which has an open porosity, the method being characterised in that it further comprises the application to the filter of an electrical potential ΔV which is higher, in absolute value, than the redox potential E° during a main purification cycle CP.
A method of transferring a multi-mode patient monitoring device between radio access technology, RAT, networks, comprising: establishing a first communication link between a multi-mode patient monitoring device and a first access point over a first RAT network, RAT-1, wherein the multi-mode patient monitoring device communicates with a hospital Internet protocol, IP, network via the first access point and wherein the first access point is a single-mode access point capable of communicating over the first RAT network, RAT-1; collecting, with a scanning device located remotely from the multi-mode patient monitoring device, candidate network information regarding one or more other RAT-2 candidate networks over which the multi-mode patient monitoring device is capable of communicating with the hospital IP network ; transmitting the candidate network information from the scanning device to the multi-mode patient monitoring device via the first access point; selecting a second access point from the one or more other RAT-2 candidate networks; initiating a handover by the multi-mode patient monitoring device from the first access point to the second access point to communicate with the hospital IP network ; and characterized in that the method further comprises pairing the first access point with the scanning device , wherein the collected candidate network information is transmitted to the patient monitor device in a beacon signal emitted periodically from the first access point . establishing a first communication link between a multi-mode patient monitoring device and a first access point over a first RAT network, RAT-1, wherein the multi-mode patient monitoring device communicates with a hospital Internet protocol, IP, network via the first access point and wherein the first access point is a single-mode access point capable of communicating over the first RAT network, RAT-1; collecting, with a scanning device located remotely from the multi-mode patient monitoring device, candidate network information regarding one or more other RAT-2 candidate networks over which the multi-mode patient monitoring device is capable of communicating with the hospital IP network ; transmitting the candidate network information from the scanning device to the multi-mode patient monitoring device via the first access point; selecting a second access point from the one or more other RAT-2 candidate networks; initiating a handover by the multi-mode patient monitoring device from the first access point to the second access point to communicate with the hospital IP network ; and characterized in that the method further comprises pairing the first access point with the scanning device , wherein the collected candidate network information is transmitted to the patient monitor device in a beacon signal emitted periodically from the first access point .
A disc brake device in which a moment (M1, M2) acts on a pad in a direction in which a rotation-in side portion is pushed up toward a radially outer side during braking, the disc brake device comprising: the pad including a pin insertion portion and a clip insertion portion ; a pad support member, including a pin inserted into the pin insertion portion in an axial direction, and supporting the pad so that the pad is movable in the axial direction; and a pad clip , including a pad pressing portion inserted into the clip insertion portion in the axial direction, and configured to press the pad radially outward, wherein the pad clip is configured to apply a pressing force to the pad so that a radially inner side portion of an inner peripheral surface of the pin insertion portion is pressed against a radially inner side portion of the pin , characterized in that the pad clip is elastically deformed between the pad and the pin , and applies the pressing force radially outward to the pad . the pad including a pin insertion portion and a clip insertion portion ; a pad support member, including a pin inserted into the pin insertion portion in an axial direction, and supporting the pad so that the pad is movable in the axial direction; and a pad clip , including a pad pressing portion inserted into the clip insertion portion in the axial direction, and configured to press the pad radially outward, wherein the pad clip is configured to apply a pressing force to the pad so that a radially inner side portion of an inner peripheral surface of the pin insertion portion is pressed against a radially inner side portion of the pin , characterized in that the pad clip is elastically deformed between the pad and the pin , and applies the pressing force radially outward to the pad .
A method comprising: while a device is in a locked state: receiving a speech input at the device, the speech input including a command associated with a restricted feature of the device; determining whether the speech input was spoken by an authorized user of the device, the determining including comparing the speech input to a voiceprint of the authorized user; processing the speech input to identify the command; and upon determining that the speech input was spoken by the authorized user, executing the identified command to invoke the restricted feature of the device, wherein the method is performed by one or more processors of the device. receiving a speech input at the device, the speech input including a command associated with a restricted feature of the device; determining whether the speech input was spoken by an authorized user of the device, the determining including comparing the speech input to a voiceprint of the authorized user; processing the speech input to identify the command; and upon determining that the speech input was spoken by the authorized user, executing the identified command to invoke the restricted feature of the device, wherein the method is performed by one or more processors of the device.
A method of manufacturing a shoe upper including an upper member including a reinforced portion, the method comprising: preparing the upper member ; preparing thermoplastic resin powder to be formed as a reinforcing portion ; three-dimensionally forming the upper member ; and pre-heating the three-dimensionally formed upper member such that a portion-to-be-reinforced of the three-dimensionally formed upper member is heated to a temperature equal to or higher than a melting point of the thermoplastic resin powder; adhering the thermoplastic resin powder to the upper member so as to at least cover the portion-to-be-reinforced of the pre-heated upper member ; further heating the upper member to which the thermoplastic resin powder is adhered, and melting the thermoplastic resin powder adhered to the upper member ; and hardening the melted thermoplastic resin powder to firmly adhere the reinforcing portion to the upper member . an upper member including a reinforced portion, the method comprising: preparing the upper member ; preparing thermoplastic resin powder to be formed as a reinforcing portion ; three-dimensionally forming the upper member ; and pre-heating the three-dimensionally formed upper member such that a portion-to-be-reinforced of the three-dimensionally formed upper member is heated to a temperature equal to or higher than a melting point of the thermoplastic resin powder; adhering the thermoplastic resin powder to the upper member so as to at least cover the portion-to-be-reinforced of the pre-heated upper member ; further heating the upper member to which the thermoplastic resin powder is adhered, and melting the thermoplastic resin powder adhered to the upper member ; and hardening the melted thermoplastic resin powder to firmly adhere the reinforcing portion to the upper member . preparing the upper member ; preparing thermoplastic resin powder to be formed as a reinforcing portion ; three-dimensionally forming the upper member ; and pre-heating the three-dimensionally formed upper member such that a portion-to-be-reinforced of the three-dimensionally formed upper member is heated to a temperature equal to or higher than a melting point of the thermoplastic resin powder; adhering the thermoplastic resin powder to the upper member so as to at least cover the portion-to-be-reinforced of the pre-heated upper member ; further heating the upper member to which the thermoplastic resin powder is adhered, and melting the thermoplastic resin powder adhered to the upper member ; and hardening the melted thermoplastic resin powder to firmly adhere the reinforcing portion to the upper member .
A method for detecting N-nitrosodimethylamine impurity by gas chromatography-mass spectrometry, wherein the method comprises the following steps: dissolving a sample to be detected which is suspected to contain N-nitrosodimethylamine impurity in a diluent to prepare a test solution, and transferring the prepared test solution to an injection vial or headspace bottle, and analyzing the solution in the injection vial or headspace bottle by gas chromatography-mass spectrometry to determine the content of N-nitrosodimethylamine impurity in the sample, said method being characterized in that the sample to be detected is a sartan Active Pharmaceutical Ingredient (API) intermediate, a solvent used in a synthesis process of a sartan API, a sartan API or a composition containing a sartan API, wherein when the sample to be detected is a solvent used in a synthesis process of a sartan API, the solvent is injected directly without diluent. dissolving a sample to be detected which is suspected to contain N-nitrosodimethylamine impurity in a diluent to prepare a test solution, and transferring the prepared test solution to an injection vial or headspace bottle, and analyzing the solution in the injection vial or headspace bottle by gas chromatography-mass spectrometry to determine the content of N-nitrosodimethylamine impurity in the sample,
A motorcycle tire comprising: a carcass extending between a pair of bead portions through a tread portion and a pair of sidewall portions , and a band disposed radially outside the carcass in the tread portion , wherein the band is composed of a ply of a spirally wound steel band cord , characterised in that the steel band cord has a compressive stiffness of not more than 500 N/mm, a bending rigidity of not more than 15.0 g cm, and an elongation percentage at 49N of 0.5% to 2.5%, wherein the steel band cord is made up of a number (N) of steel filaments twisted together and includes at least one shaped steel filament , wherein a diameter (d) of each steel filament is set in a range from 0.15 mm to 0.25 mm, wherein a number of the final twist is set in a range from 8 to 12 turns/10 cm, wherein a shaping height (h) is set in a range from 0.15 mm to 0.25 mm, and wherein a shaping pitch length (P) is set in a range from 2.5 to 5.0 mm. a carcass extending between a pair of bead portions through a tread portion and a pair of sidewall portions , and a band disposed radially outside the carcass in the tread portion , wherein the band is composed of a ply of a spirally wound steel band cord , characterised in that the steel band cord has a compressive stiffness of not more than 500 N/mm, a bending rigidity of not more than 15.0 g cm, and an elongation percentage at 49N of 0.5% to 2.5%, wherein the steel band cord is made up of a number (N) of steel filaments twisted together and includes at least one shaped steel filament , wherein a diameter (d) of each steel filament is set in a range from 0.15 mm to 0.25 mm, wherein a number of the final twist is set in a range from 8 to 12 turns/10 cm, wherein a shaping height (h) is set in a range from 0.15 mm to 0.25 mm, and wherein a shaping pitch length (P) is set in a range from 2.5 to 5.0 mm.
A system having a differential disposed in a bore of an axle housing , a first shaft and a second shaft coupled to the differential , comprising: a coupling device provided between the axle housing and the differential that modulates torque between the first and second shafts, characterized in that the coupling device comprises: a case having a first portion and a second portion (22; 42), the case forming an enclosure configured to trap piston forces between the first portion and the second portion, a clutch disposed in the case, a piston disposed in the case, wherein the piston selectively applies force to the clutch in response to hydraulic pressure within the case to engage the clutch, and an outer diameter spline coupling and an inner diameter spline coupling , the outer diameter spline coupling and the inner diameter spline coupling being adapted to couple the differential with at least one of the first shaft and the second shaft when the clutch engages. a case having a first portion and a second portion (22; 42), the case forming an enclosure configured to trap piston forces between the first portion and the second portion, a clutch disposed in the case, a piston disposed in the case, wherein the piston selectively applies force to the clutch in response to hydraulic pressure within the case to engage the clutch, and an outer diameter spline coupling and an inner diameter spline coupling , the outer diameter spline coupling and the inner diameter spline coupling being adapted to couple the differential with at least one of the first shaft and the second shaft when the clutch engages.
Loading hopper with scraper, comprising: - side walls designed to deviate a load towards an underlying bottom , characterized in that it comprises - a grooved plate defining said bottom of the hopper and provided with a plurality of longitudinal grooves which are arranged side by side and developed over the length of the bottom , - a discharge opening at the level of one end of said grooved plate , - a comb scraper provided with scraping ridges , each one of which is shaped in such a way that it moves within a corresponding longitudinal groove of said grooved plate , - moving means suited to move said comb scraper on said grooved plate between a rest position and an end-of-stroke position. - side walls designed to deviate a load towards an underlying bottom , - a grooved plate defining said bottom of the hopper and provided with a plurality of longitudinal grooves which are arranged side by side and developed over the length of the bottom , - a discharge opening at the level of one end of said grooved plate , - a comb scraper provided with scraping ridges , each one of which is shaped in such a way that it moves within a corresponding longitudinal groove of said grooved plate , - moving means suited to move said comb scraper on said grooved plate between a rest position and an end-of-stroke position.
A system for monitoring pressure in a subject, comprising: an elongated instrument configured to be placed within the subject, having an elongated wall extending a distance from a first terminal end, being a distal end to a second terminal end, being a proximal end and forming a lumen along at least a portion of the distance, the elongated instrument further including a passage into the lumen through the first terminal end, wherein the elongated wall includes a maximum cross-sectional dimension ; a plurality of portals formed though the elongated wall along a selected length configured to allow a fluid to flow into the lumen from an external environment, the selected length being defined from the distal-most of the plurality of portals to the proximal-most of the plurality of portals with respect to the first terminal end; a pressure sensor integrated with the elongated instrument, located within the selected length, so as to be configured to measure a pressure within the external environment at the plurality of portals along the selected length and transmit a pressure signal based on the measurement of the pressure, wherein the pressure sensor does not increase the maximum cross-sectional dimension greater than about 20%; and a monitoring system configured to receive the pressure signals and provide an output to a user based on the received pressure signals. an elongated instrument configured to be placed within the subject, having an elongated wall extending a distance from a first terminal end, being a distal end to a second terminal end, being a proximal end and forming a lumen along at least a portion of the distance, the elongated instrument further including a passage into the lumen through the first terminal end, wherein the elongated wall includes a maximum cross-sectional dimension ; a plurality of portals formed though the elongated wall along a selected length configured to allow a fluid to flow into the lumen from an external environment, the selected length being defined from the distal-most of the plurality of portals to the proximal-most of the plurality of portals with respect to the first terminal end; a pressure sensor integrated with the elongated instrument, located within the selected length, so as to be configured to measure a pressure within the external environment at the plurality of portals along the selected length and transmit a pressure signal based on the measurement of the pressure, wherein the pressure sensor does not increase the maximum cross-sectional dimension greater than about 20%; and a monitoring system configured to receive the pressure signals and provide an output to a user based on the received pressure signals.
Method wherein elastomer with a cable embedded in the elastomer is applied onto a fabric layer of a garment or a bandage characterized by the following method steps: - the elastomer is applied to the fabric layer in a deformable state via a nozzle , - the cable is applied to the fabric layer via the same nozzle in phases at the same time together with the elastomer in such a way that the elastomer surrounds the cable at least partially, - in another phase only the cable but no elastomer is applied via the nozzle to the fabric layer , wherein an end of the cable that has already exited the nozzle is fixed relative to the fabric layer , and the fixing of the end of the cable which has exited the nozzle occurs before the method step in which the elastomer and the cable are applied at least in phases at the same time. - the elastomer is applied to the fabric layer in a deformable state via a nozzle , - the cable is applied to the fabric layer via the same nozzle in phases at the same time together with the elastomer in such a way that the elastomer surrounds the cable at least partially, - in another phase only the cable but no elastomer is applied via the nozzle to the fabric layer , wherein an end of the cable that has already exited the nozzle is fixed relative to the fabric layer , and the fixing of the end of the cable which has exited the nozzle occurs before the method step in which the elastomer and the cable are applied at least in phases at the same time.
Cartridge-in-chamber detection system for firearms comprising at least one first plate , a second plate and a dielectric disposed between the first plate and the second plate , and a sensor circuit connected to a microprocessor characterized in that the at least one first plate is displaceable or the dielectric varies, between a first position corresponding to the presence of a cartridge in the chamber and a second position corresponding to the non-presence of a cartridge in the chamber, or vice-versa, and where the microprocessor , through the sensor circuit , detects the capacitive variation between the first plate and the second plate , between the first position corresponding to the presence of a cartridge in the chamber and the second position corresponding to the non-presence of a cartridge in the chamber, or vice-versa, making it possible to determine in this way the presence or non-presence of a cartridge in the chamber and wherein the first plate is an extractor of the weapon.
A negative electrode active material comprising: low crystalline artificial graphite; and an amorphous carbon coating layer formed on the low crystalline artificial graphite, wherein the low crystalline artificial graphite has an interplanar spacing (d 002 ) of a plane in a range of greater than 0.338 nm to less than 0.3396 nm and has a peak's full width at half-maximum (FWHM) in a range of 0.5° to 0.6°, as measured by X-ray diffraction (XRD), wherein the low crystalline artificial graphite is crystallized in the form of a meso carbon by sintering soft carbon at a temperature range of 2000°C to 2800°C, wherein the soft carbon is formed by carbonizing one or a mixed carbonaceous material of two or more selected from a polyvinyl alcohol, a polyvinyl chloride, a carboniferous pitch, a petroleum-based pitch, a mesophase pitch, and heavy oil, wherein the negative electrode active material has an I peak's full width at half-maximum (FWHM) in a range of 0.5° to 0.6° as measured by XRD and has an aspect ratio (a length on the major axis/a length on the minor axis) in a range of 0.1 to 1, wherein the negative electrode active material has a crystal orientation index with respect to an area ratio I /I in a range of 0.0261 to 0.0268, the area ratio being obtained by integrating XRD peaks, and wherein the negative electrode active material has a tap density in a range of 0.8 g/cc to 1 g/cc. low crystalline artificial graphite; and an amorphous carbon coating layer formed on the low crystalline artificial graphite, wherein the low crystalline artificial graphite has an interplanar spacing (d 002 ) of a plane in a range of greater than 0.338 nm to less than 0.3396 nm and has a peak's full width at half-maximum (FWHM) in a range of 0.5° to 0.6°, as measured by X-ray diffraction (XRD), wherein the low crystalline artificial graphite is crystallized in the form of a meso carbon by sintering soft carbon at a temperature range of 2000°C to 2800°C, wherein the soft carbon is formed by carbonizing one or a mixed carbonaceous material of two or more selected from a polyvinyl alcohol, a polyvinyl chloride, a carboniferous pitch, a petroleum-based pitch, a mesophase pitch, and heavy oil, wherein the negative electrode active material has an I peak's full width at half-maximum (FWHM) in a range of 0.5° to 0.6° as measured by XRD and has an aspect ratio (a length on the major axis/a length on the minor axis) in a range of 0.1 to 1, wherein the negative electrode active material has a crystal orientation index with respect to an area ratio I /I in a range of 0.0261 to 0.0268, the area ratio being obtained by integrating XRD peaks, and wherein the negative electrode active material has a tap density in a range of 0.8 g/cc to 1 g/cc.