mhurhangee/patent-ind-claim-en huggingface dataset:
A pneumatic tire (1; 1A; 1B) comprising a carcass extending between bead cores of bead portions via a tread portion and sidewall portions , and a belt layer arranged on an outer side in a tire radial direction of the carcass and inside the tread portion , wherein a porous noise damper is arranged on an inner cavity surface of the tread portion , characterized in that the glass transition temperature of the noise damper is in a range of from -55 degrees Celsius to -45 degrees Celsius and not equal to -50 degrees Celsius.
A wireless access method, performed by an apparatus being a wireless network device, comprising: sending to a terminal a first signal set, wherein the number of signals in the first signal set is more than one and the first signal set comprises at least a synchronization signal; receiving a response signal from the terminal, the response signal comprising indication information of a resource on which a corresponding first signal set is located; and sending, according to the response signal, a second signal set to the terminal, wherein the second signal set comprises a first set of system information blocks excluding a master information block; wherein the method further comprises: receiving a random access signal from the terminal after sending the second signal set; and sending a random access answer signal to the terminal. sending to a terminal a first signal set, wherein the number of signals in the first signal set is more than one and the first signal set comprises at least a synchronization signal; receiving a response signal from the terminal, the response signal comprising indication information of a resource on which a corresponding first signal set is located; and sending, according to the response signal, a second signal set to the terminal, wherein the second signal set comprises a first set of system information blocks excluding a master information block; wherein the method further comprises: receiving a random access signal from the terminal after sending the second signal set; and sending a random access answer signal to the terminal. receiving a random access signal from the terminal after sending the second signal set; and sending a random access answer signal to the terminal.
A positive electrode active material for a secondary battery, the positive electrode active material comprising: a core including a lithium composite metal oxide; and a film-shaped coating layer disposed to surround the core, wherein the coating layer comprises at least one lithium ion conductive compound having a band gap of 5.5 eV to 10 eV, a thickness (d) of the coating layer satisfies X<d≤100X where X is a maximum distance at which electrons are capable of passing through the coating layer by a dielectric breakdown electric field when charging to an open circuit voltage of the lithium composite metal oxide versus lithium, wherein X is determined by Equation 1, wherein d is less than 500 nm, and the lithium ion conductive compound comprises at least one selected from the group consisting of LiBH 4 , LiBH 4 -LiI, and Li 2 NH: X = V / F b wherein, in Equation 1, V is the open circuit voltage of the lithium composite metal oxide versus lithium, and F b is a dielectric breakdown electric field value calculated by Equation 2, and F b = 24.442 exp 0.315 E g ω max wherein, in Equation 2, E g is a band gap, and ω max is a maximum phonon frequency. a core including a lithium composite metal oxide; and a film-shaped coating layer disposed to surround the core, wherein the coating layer comprises at least one lithium ion conductive compound having a band gap of 5.5 eV to 10 eV, a thickness (d) of the coating layer satisfies X<d≤100X where X is a maximum distance at which electrons are capable of passing through the coating layer by a dielectric breakdown electric field when charging to an open circuit voltage of the lithium composite metal oxide versus lithium, wherein X is determined by Equation 1, wherein d is less than 500 nm, and the lithium ion conductive compound comprises at least one selected from the group consisting of LiBH 4 , LiBH 4 -LiI, and Li 2 NH: X = V / F b wherein, in Equation 1, V is the open circuit voltage of the lithium composite metal oxide versus lithium, and F b is a dielectric breakdown electric field value calculated by Equation 2, and F b = 24.442 exp 0.315 E g ω max wherein, in Equation 2, E g is a band gap, and ω max is a maximum phonon frequency.
A filter assembly component comprising: a pleat guide comprising a repeating pattern comprising a plurality of peaks and a plurality of valleys distributed about a circumference of the pleat guide ; wherein the plurality of peaks and the plurality of valleys are configured to interface with a pleated filter media to maintain pleat spacing between corresponding pleats of the pleated filter media ; characterized in that the pleat guide defines a plurality of hollow passages extending from a central portion of the pleat guide to a circumferential surface of the pleat guide, each hollow passage connecting to a central aperture at the central portion and connecting to an outer circumferential aperture at the circumferential surface of the pleat guide, wherein the plurality of central apertures are connected to a hollow central coupling ring disposed at the center of each of the interior pleat guides , wherein the pleat guide further defines a fluid inlet port in fluid communication with the plurality of hollow passages , and wherein each central coupling ring is connected by a longitudinal hollow tube , which is further coupled to the fluid inlet port . a pleat guide comprising a repeating pattern comprising a plurality of peaks and a plurality of valleys distributed about a circumference of the pleat guide ; wherein the plurality of peaks and the plurality of valleys are configured to interface with a pleated filter media to maintain pleat spacing between corresponding pleats of the pleated filter media ; characterized in that the pleat guide defines a plurality of hollow passages extending from a central portion of the pleat guide to a circumferential surface of the pleat guide, each hollow passage connecting to a central aperture at the central portion and connecting to an outer circumferential aperture at the circumferential surface of the pleat guide, wherein the plurality of central apertures are connected to a hollow central coupling ring disposed at the center of each of the interior pleat guides , wherein the pleat guide further defines a fluid inlet port in fluid communication with the plurality of hollow passages , and wherein each central coupling ring is connected by a longitudinal hollow tube , which is further coupled to the fluid inlet port .
Diagnosis method for a process-engineering plant , having the following steps: - (S1) providing a course over time (V) of plant data (D), which at least partially characterises the plant status; and characterised by the following steps: - (S2a) classification of a plant status with the aid of at least two models on the basis of the course over time (V) of the plant data (D), wherein the models differ in respect of a time window (T 1 , T 2 , T 3 ), from which the plant data (D) are based; - (S2b) allocating in each case one confidence to the classifications, which result from the at least two models; and - (S7) outputting diagnosis information, which is based on the classifications of the plant status and the confidences allocated thereto. - (S1) providing a course over time (V) of plant data (D), which at least partially characterises the plant status; - (S2a) classification of a plant status with the aid of at least two models on the basis of the course over time (V) of the plant data (D), wherein the models differ in respect of a time window (T 1 , T 2 , T 3 ), from which the plant data (D) are based; - (S2b) allocating in each case one confidence to the classifications, which result from the at least two models; and - (S7) outputting diagnosis information, which is based on the classifications of the plant status and the confidences allocated thereto.
An electron spin resonance (ESR) analytical method comprising: providing a probe molecule capable of binding selectively to a target, wherein a paramagnetic moiety is bound to the probe molecule via two thioether linkages, wherein each thioether linkage is a carbon-sulphur-carbon linkage and one carbon of the thioether linkage is part of the probe molecule, and the other carbon is part of either the paramagnetic moiety or a linker group that binds to the paramagnetic moiety; contacting the probe molecule with a first sample, which may or may not comprise the target, to form a mixed sample and obtaining an electron spin resonance signal of the mixed sample, wherein the probe molecule is selected from an antibody fragment, an antibody and an aptamer. providing a probe molecule capable of binding selectively to a target, wherein a paramagnetic moiety is bound to the probe molecule via two thioether linkages, wherein each thioether linkage is a carbon-sulphur-carbon linkage and one carbon of the thioether linkage is part of the probe molecule, and the other carbon is part of either the paramagnetic moiety or a linker group that binds to the paramagnetic moiety; contacting the probe molecule with a first sample, which may or may not comprise the target, to form a mixed sample and obtaining an electron spin resonance signal of the mixed sample,
A composition comprising nicotinamide 1-10%, 2,4-ditert butyl phenol 1-10%, palmitic acid 5-40%, oleic acid 2-20%, and/or squalene 5-30% together with a pharmaceutically acceptable carrier and/or diluent for use in the treatment or prevention of microbial skin infections selected from the group consisting of: herpes oral cold sore (Type I), warts, impetigo, cellulitis, tinea, intertrigo, scabies, mange, pediculosis (including pediculosis capitis) cutaneous candidiasis or thrush.
An inhaler article for use in an inhaler system for delivering a dry powder to the lungs of a user of the inhaler system, the inhaler article comprising: a body extending along a longitudinal axis of the inhaler article from a mouthpiece end to a distal upstream end ; a capsule cavity defined within the body and bounded downstream by a filter element and bounded upstream by a tubular element defining a central passage in fluid communication with the capsule cavity , the central passage forms an air inlet aperture extending along the longitudinal axis of the inhaler article and from the distal end of the body to the capsule cavity , wherein the tubular element has a central passage inner diameter in a range from about 70% to about 90% of an inner diameter of the capsule cavity ; a capsule disposed within the capsule cavity , the capsule containing the dry powder; wherein the inhaler article is configured to receive a swirling inhalation airflow into the central passage . a body extending along a longitudinal axis of the inhaler article from a mouthpiece end to a distal upstream end ; a capsule cavity defined within the body and bounded downstream by a filter element and bounded upstream by a tubular element defining a central passage in fluid communication with the capsule cavity , the central passage forms an air inlet aperture extending along the longitudinal axis of the inhaler article and from the distal end of the body to the capsule cavity , wherein the tubular element has a central passage inner diameter in a range from about 70% to about 90% of an inner diameter of the capsule cavity ; a capsule disposed within the capsule cavity , the capsule containing the dry powder; wherein the inhaler article is configured to receive a swirling inhalation airflow into the central passage .
A reactor proper to production of boron and advanced ceramic powders via chemical vapor deposition method, which is used for the purpose of producing elemental boron and advanced ceramic powders with chemical vapor deposition method and basically comprises the following elements - at least one inner tube , through which the gas including the component to be precipitated by heat is passed and said inner tube is produced from quartz material due to the fact that elemental boron and advanced ceramic powders deposited on the inner surface thereof include only Si containing particles as impurity which can be easily removed at the purification step., - at least one heating element which surrounds the inner tube and enables to heat both the inner tube and the gas passing therethrough, - at least one outer tube which encompasses the inner tube and the heating element such that it encloses them, - at least one reflector which encompasses the outer tube and whose surface facing the outer tube is reflective, - at least one jacket which surrounds the reflector as a continuous second wall or is in the shape of a spiral through which the coolant fluid passes, - at least one stopper which protects the distance between the reflector and the outer tube , which clogs the openings of the reflector and which prevents heat escape from the open ends of the reflector . - at least one inner tube , through which the gas including the component to be precipitated by heat is passed and said inner tube is produced from quartz material due to the fact that elemental boron and advanced ceramic powders deposited on the inner surface thereof include only Si containing particles as impurity which can be easily removed at the purification step., - at least one heating element which surrounds the inner tube and enables to heat both the inner tube and the gas passing therethrough, - at least one outer tube which encompasses the inner tube and the heating element such that it encloses them, - at least one reflector which encompasses the outer tube and whose surface facing the outer tube is reflective, - at least one jacket which surrounds the reflector as a continuous second wall or is in the shape of a spiral through which the coolant fluid passes, - at least one stopper which protects the distance between the reflector and the outer tube , which clogs the openings of the reflector and which prevents heat escape from the open ends of the reflector .
A conveyor chain transfer system comprising: (a) a conveyor chain comprising a plurality of links; and (b) a transfer comb comprising a plurality of prongs ; wherein the conveyor chain is formed from said plurality of links hinged to another and comprises, at least, one conveying element arranged to convey objects located on the conveyor chain assembly; and wherein said conveying element extends vertically in relation to the horizontal defined by the upper or transport surface of said chain and is hinged thereto; and wherein the conveying element comprises three regions that are different in height: (i) an upper region that is defined by the upper surface of a plurality of arms extending vertically from the upper or transport surface of the conveyor chain ; (ii) an intermediate region of transport defined by the upper surface of perpendicular bodies perpendicular to the arms , spaced out to receive the prongs of the transfer comb therebetween; and (iii) a lower region is the region immediately below the intermediate region, the height of said lower region being arranged such that when the prongs of said transfer comb are received between the perpendicular bodies , said prongs are located below the plane of support of the objects located on the chain , said plane corresponding to the intermediate region, wherein the conveying element laterally frames a plurality of grooves , such that the plurality of arms forming the upper region are located such that they are parallel to and spaced out from one another by a specific length which corresponds to the width of the prongs of the transfer comb ; and wherein each prong of the comb faces a groove defined by the arms of the conveying element , in such a way that the free end of each prong is housed in a corresponding groove such that the prongs are located below the plane of support of the objects located on the conveyor chain , characterized in that the comb adopts an inclined position, such that a slope is established between the conveyor chain and the receiving area or chain adjacent to the comb.
A nozzle housing for a servo valve , the nozzle housing comprising: a circumferential wall defining a return passage extending along a longitudinal axis (A) for holding a return nozzle , the return passage having an opening for fluid communication with a spool valve and a return port for fluid communication with atmosphere; characterised by : a first plate extending across the return passage , the first plate engaged with the circumferential wall and disposed between the opening and the return port ; and a second plate extending across the return passage , the second plate engaged with the circumferential wall and disposed between the first plate and the return port , wherein the first plate has at least one first aperture , and the second plate has at least one second aperture that is misaligned with the at least one first aperture such that there is no linear axial flow path between the return port and the opening . a circumferential wall defining a return passage extending along a longitudinal axis (A) for holding a return nozzle , the return passage having an opening for fluid communication with a spool valve and a return port for fluid communication with atmosphere; characterised by : a first plate extending across the return passage , the first plate engaged with the circumferential wall and disposed between the opening and the return port ; and a second plate extending across the return passage , the second plate engaged with the circumferential wall and disposed between the first plate and the return port , wherein the first plate has at least one first aperture , and the second plate has at least one second aperture that is misaligned with the at least one first aperture such that there is no linear axial flow path between the return port and the opening . a first plate extending across the return passage , the first plate engaged with the circumferential wall and disposed between the opening and the return port ; and a second plate extending across the return passage , the second plate engaged with the circumferential wall and disposed between the first plate and the return port , wherein the first plate has at least one first aperture , and the second plate has at least one second aperture that is misaligned with the at least one first aperture such that there is no linear axial flow path between the return port and the opening .
Device for drilling shafts in a ground consisting of rock, clay and/or related materials, comprising a borehole casing and means for arranging the borehole casing in the ground ; and a drilling means which can be lowered into the borehole casing by means of a flexible suspension; wherein the drilling means comprises a hollow drill string , received in a housing , and provided with a drill head with cutting tools and means for setting the drill string into rotation, and wherein the drilling means is further provided with securing means with which the drilling means can be secured in the borehole casing both in a longitudinal direction of the borehole casing and perpendicularly thereof against an inner wall of the borehole casing, the securing means being provided on the peripheral surface of the housing, wherein the device is further provided with discharge means for dislodged ground material connected to the hollow drill string and with translation means for displacing the drill head over a determined stroke length in the longitudinal direction of the borehole casing , wherein the drilling means is in secured state; and wherein the means for setting the drill string into rotation and the translation means are positioned above the securing means.
A method performed by a terminal in a wireless communication system, the method comprising: identifying a transmission of a first sidelink signal associated with a first radio access technology, RAT, for a long term evolution, LTE, and a transmission of a second sidelink signal associated with a second RAT for a new radio, NR; identifying whether the transmission of the first sidelink signal overlaps with the transmission of the second sidelink signal on a time domain; and transmitting one sidelink signal among the first sidelink signal or the second sidelink signal based on a first priority associated with the first sidelink signal and a second priority associated with the second sidelink signal, in case that the transmission of the first sidelink signal overlaps with the transmission of the second sidelink signal, wherein, in case that the first sidelink signal corresponds to a first physical sidelink shared channel, PSSCH, using the first RAT, the first priority is obtained based on sidelink control information, SCI, scheduling the first PSSCH, and wherein, in case that the second sidelink signal corresponds to a physical sidelink feedback channel, PSFCH, using the second RAT, the second priority is obtained based on SCI scheduling a second PSSCH corresponding to the PSFCH. identifying a transmission of a first sidelink signal associated with a first radio access technology, RAT, for a long term evolution, LTE, and a transmission of a second sidelink signal associated with a second RAT for a new radio, NR; identifying whether the transmission of the first sidelink signal overlaps with the transmission of the second sidelink signal on a time domain; and transmitting one sidelink signal among the first sidelink signal or the second sidelink signal based on a first priority associated with the first sidelink signal and a second priority associated with the second sidelink signal, in case that the transmission of the first sidelink signal overlaps with the transmission of the second sidelink signal, wherein, in case that the first sidelink signal corresponds to a first physical sidelink shared channel, PSSCH, using the first RAT, the first priority is obtained based on sidelink control information, SCI, scheduling the first PSSCH, and wherein, in case that the second sidelink signal corresponds to a physical sidelink feedback channel, PSFCH, using the second RAT, the second priority is obtained based on SCI scheduling a second PSSCH corresponding to the PSFCH.
A refractory composition which is gunnable for repairing linings of vessels used for the containment of molten metals, said refractory composition comprising: • an aggregate, present in an amount of 5-90 wt.% and comprising a material selected from the group consisting of calcined flint clay, calcined kaolin, calcined bauxitic kaolin, andalusite, tabular alumina, silicon carbide, silicon nitride, calcined alumina, reactive alumina, hydrated alumina, silica fume, white fused alumina, brown fused alumina, calcined bauxite, silica sand, silica, clay, kyanite, spinel, fused silica, zircon, zirconia, and combinations thereof, • poly(N-vinylpyrrolidone), present in an amount of 0.05 - 20 wt.%; • a resin, present in an amount of 0.05 - 20 wt.%; and • a hydraulic cement, present in an amount of 0.1 - 20 wt.%; and wherein the amounts are expressed in percentage of the total composition, including liquids and solids. • an aggregate, present in an amount of 5-90 wt.% and comprising a material selected from the group consisting of calcined flint clay, calcined kaolin, calcined bauxitic kaolin, andalusite, tabular alumina, silicon carbide, silicon nitride, calcined alumina, reactive alumina, hydrated alumina, silica fume, white fused alumina, brown fused alumina, calcined bauxite, silica sand, silica, clay, kyanite, spinel, fused silica, zircon, zirconia, and combinations thereof, • poly(N-vinylpyrrolidone), present in an amount of 0.05 - 20 wt.%; • a resin, present in an amount of 0.05 - 20 wt.%; and • a hydraulic cement, present in an amount of 0.1 - 20 wt.%; and