mhurhangee/patent-ind-claim-en huggingface dataset:
A method of a remote unit comprising: generating a first Medium Access Control, MAC, Packet Data Unit, PDU for transmission on a first uplink, UL, configured grant, CG, associated with a first Hybrid Automatic Repeat Request, HARQ, process, the first UL CG being for a first UL bandwidth part, BWP; deprioritizing the first UL CG and not performing a transmission of the first MAC PDU in response to detecting a higher priority UL transmission overlapping with the first UL CG; switching an active UL BWP from the first UL BWP to a second UL BWP after deprioritizing the first UL CG; receiving a second UL CG associated with the first HARQ process on the second UL BWP; and preventing the first HARQ process from triggering a transmission of the first MAC PDU on the second UL CG in response to determining that the first UL CG associated with the first HARQ process was on a different UL BWP than the second UL BWP. generating a first Medium Access Control, MAC, Packet Data Unit, PDU for transmission on a first uplink, UL, configured grant, CG, associated with a first Hybrid Automatic Repeat Request, HARQ, process, the first UL CG being for a first UL bandwidth part, BWP; deprioritizing the first UL CG and not performing a transmission of the first MAC PDU in response to detecting a higher priority UL transmission overlapping with the first UL CG; switching an active UL BWP from the first UL BWP to a second UL BWP after deprioritizing the first UL CG; receiving a second UL CG associated with the first HARQ process on the second UL BWP; and preventing the first HARQ process from triggering a transmission of the first MAC PDU on the second UL CG in response to determining that the first UL CG associated with the first HARQ process was on a different UL BWP than the second UL BWP.
A composition for fermented soybean products comprising a fermentation product in which a carbohydrate raw material is fermented with at least one microorganism selected from C . utilis, S. fragilis, S. lactis, S. pombe, and Z. rouxii, wherein the fermentation product comprises alcohol in an amount of 0.01 v/v% to 4.0 v/v%%; wherein the carbohydrate raw material comprises: (i) wheat flour, as a first carbohydrate raw material; and (ii) at least one selected from the group consisting of wheat rice, whole wheat, quinoa, and defatted soy flour, as a second carbohydrate raw material; wherein the second carbohydrate raw material is comprised of 10 to 50 parts by weight based on 100 parts by weight of the first carbohydrate raw material. wherein the carbohydrate raw material comprises: (i) wheat flour, as a first carbohydrate raw material; and (ii) at least one selected from the group consisting of wheat rice, whole wheat, quinoa, and defatted soy flour, as a second carbohydrate raw material; wherein the second carbohydrate raw material is comprised of 10 to 50 parts by weight based on 100 parts by weight of the first carbohydrate raw material.
A vent arrangement for a flexible pipe body, the vent arrangement comprising: an annular region access port of a flexible pipe end fitting ; a vent valve arranged to couple to the region access port such that the vent valve can vent fluid from the pipe body annular region via the annular region access port ; and an annular region flushing valve arranged to couple to the annular region access port and in fluid communication with the vent valve , the annular region flushing valve being arranged to inject fluid into the vent arrangement for flushing the vent valve and the annular region access port , and arranged to inject fluid into the pipe body annular region via the annular region access port for flushing the pipe body annular region. an annular region access port of a flexible pipe end fitting ; a vent valve arranged to couple to the region access port such that the vent valve can vent fluid from the pipe body annular region via the annular region access port ; and an annular region flushing valve arranged to couple to the annular region access port and in fluid communication with the vent valve , the annular region flushing valve being arranged to inject fluid into the vent arrangement for flushing the vent valve and the annular region access port , and arranged to inject fluid into the pipe body annular region via the annular region access port for flushing the pipe body annular region.
A cubic boron nitride sintered material comprising: more than or equal to 20 volume% and less than 80 volume% of cubic boron nitride grains; and more than 20 volume% and less than or equal to 80 volume% of a binder phase, wherein the binder phase includes at least one selected from a group consisting of a compound composed of at least one element selected from a group consisting of a group 4 element, a group 5 element, a group 6 element in a periodic table, and aluminum, and at least one element selected from a group consisting of nitrogen, carbon, boron, and oxygen, and a solid solution originated from the compound, and when a carbon content is measured from a cubic boron nitride grain into the binder phase in a direction perpendicular to an interface between the cubic boron nitride grain and the binder phase using TEM-EDX using the method described in the description, a first region having a carbon content larger than an average value of a carbon content of the binder phase exists, the interface exists in the first region, and a length of the first region is more than or equal to 0.1 nm and less than or equal to 10 nm. the binder phase includes at least one selected from a group consisting of a compound composed of at least one element selected from a group consisting of a group 4 element, a group 5 element, a group 6 element in a periodic table, and aluminum, and at least one element selected from a group consisting of nitrogen, carbon, boron, and oxygen, and a solid solution originated from the compound, and when a carbon content is measured from a cubic boron nitride grain into the binder phase in a direction perpendicular to an interface between the cubic boron nitride grain and the binder phase using TEM-EDX using the method described in the description, a first region having a carbon content larger than an average value of a carbon content of the binder phase exists, the interface exists in the first region, and a length of the first region is more than or equal to 0.1 nm and less than or equal to 10 nm.
A method for producing a composite, comprising a step of placing a porous boron nitride sintered body immersed in a resin composition under a pressurized condition and then placing the boron nitride sintered body immersed in the resin composition under a pressure condition lower than the pressurized condition, wherein the step is repeated a plurality of times.
A signal receiving method, comprising: obtaining synchronization signal information; determining, according to the synchronization signal information, a time unit for a synchronization signal and a broadcast channel in a time window, wherein the synchronization signal comprises a primary synchronization signal, PSS, and/or a secondary synchronization signal, SSS, wherein the time window comprises S time units, the time unit is the j th time unit in the time window, wherein 1 ≤ j ≤S, and S and j are positive integers; and receiving the synchronization signal and the broadcast channel in the determined time unit by using a same antenna port. obtaining synchronization signal information; determining, according to the synchronization signal information, a time unit for a synchronization signal and a broadcast channel in a time window, wherein the synchronization signal comprises a primary synchronization signal, PSS, and/or a secondary synchronization signal, SSS, wherein the time window comprises S time units, the time unit is the j th time unit in the time window, wherein 1 ≤ j ≤S, and S and j are positive integers; and receiving the synchronization signal and the broadcast channel in the determined time unit by using a same antenna port.
Rotor for a synchronous machine, in particular a reluctance machine, comprising a cylindrically constructed, magnetically soft element , wherein the magnetically soft element has cutouts for the purpose of forming magnetic flux barriers which form an even number of salient magnetic poles, wherein at least one cutout is filled at least partially with a diamagnetic or paramagnetic medium instead of air, wherein the diamagnetic or paramagnetic medium forms a unipartite body and the magnetically soft element is a laminated core , characterized in that at least two adjacent sheets of the laminated core are arranged spaced apart from one another in the axial direction and the intermediate space that is formed is filled at least partially by the diamagnetic or paramagnetic medium , wherein the spacing is ensured by inserting a distance element .
A vehicle seat comprising a shoulder belt and a vehicle airbag device , comprising an airbag body including: a front-rear chamber configured to pass a side of a head (Ph) of an occupant (P) seated in the vehicle seat and to deploy toward a seat front side as a result of gas being ejected from an inflator actuated in a case in which a head-on collision of a vehicle is detected or predicted, so as to be disposed at the side of the head (Ph) of the occupant (P); a leading end chamber configured to deploy toward a seat width direction inner side from a seat front side end portion of the front-rear chamber so as to be disposed at the seat front side of the head (Ph) of the occupant (P); and a shoulder-contact section configured to contact, from the seat front side, a first shoulder (PsL) of the occupant so as to restrain the first shoulder, the first shoulder being at an opposite side from a second shoulder (PsR) of the occupant (P) across which the shoulder belt is worn, and wherein the shoulder-contact section includes a first shoulder-restraining face configured to extend toward a seat lower side from a lower end portion of the front-rear chamber . a front-rear chamber configured to pass a side of a head (Ph) of an occupant (P) seated in the vehicle seat and to deploy toward a seat front side as a result of gas being ejected from an inflator actuated in a case in which a head-on collision of a vehicle is detected or predicted, so as to be disposed at the side of the head (Ph) of the occupant (P); a leading end chamber configured to deploy toward a seat width direction inner side from a seat front side end portion of the front-rear chamber so as to be disposed at the seat front side of the head (Ph) of the occupant (P); and a shoulder-contact section configured to contact, from the seat front side, a first shoulder (PsL) of the occupant so as to restrain the first shoulder, the first shoulder being at an opposite side from a second shoulder (PsR) of the occupant (P) across which the shoulder belt is worn, and wherein the shoulder-contact section includes a first shoulder-restraining face configured to extend toward a seat lower side from a lower end portion of the front-rear chamber .
A marine foundation comprising: - a planar base , a perimeter wall and a cover forming a shell structure having a cavity , - a hollow structure extending through an opening in the cover to the base , - wherein within the cavity a plurality of compartments is formed, - wherein the marine foundation is configured to change from a floating state to a semi-submerged state by pumping of material capable of being pumped into the cavity , - wherein the marine foundation is configured to change from the semi-submerged state to the floating state by pumping of material capable of being pumped out of the cavity , and - wherein in the floating state at least the cover and a part of the hollow structure are located above a water surface, and wherein in the semi-submerged state the base is positioned on a seabed, characterized in that - the base is polygonal, - the cover is polygonal and planar, - the perimeter wall has a plurality of planar sides protruding from the polygonal base to the polygonal cover , - wherein the plurality of compartments is formed by inner walls extending from at least two edges to the hollow structure , wherein each edge is formed between two adjacent planar sides of the perimeter wall , and - wherein each planar side of the perimeter wall is inclined at an angle to the polygonal base in a range between 45° and 80°. - a planar base , a perimeter wall and a cover forming a shell structure having a cavity , - a hollow structure extending through an opening in the cover to the base , - wherein within the cavity a plurality of compartments is formed, - wherein the marine foundation is configured to change from a floating state to a semi-submerged state by pumping of material capable of being pumped into the cavity , - wherein the marine foundation is configured to change from the semi-submerged state to the floating state by pumping of material capable of being pumped out of the cavity , and - wherein in the floating state at least the cover and a part of the hollow structure are located above a water surface, and wherein in the semi-submerged state the base is positioned on a seabed, characterized in that - the base is polygonal, - the cover is polygonal and planar, - the perimeter wall has a plurality of planar sides protruding from the polygonal base to the polygonal cover , - wherein the plurality of compartments is formed by inner walls extending from at least two edges to the hollow structure , wherein each edge is formed between two adjacent planar sides of the perimeter wall , and - wherein each planar side of the perimeter wall is inclined at an angle to the polygonal base in a range between 45° and 80°.
Fuel tank delimited by an outer casing, one face of which is intended to be an upper face in the mounted position of the fuel tank in a motor vehicle, carries at least one ventilation valve connected to a ventilation duct discharging fuel vapors leaving the tank through said at least one valve for ventilation intended to a device for storing and processing fuel vapors, the tank comprising a protective pipe having an inlet end connected to said minus a valve and an outlet end connected to an inlet of the ventilation duct , a portion of the protective duct having means of prohibition passage of liquid fuel to the ventilation duct , the protective pipe of said at least one valve extending along the upper face of the casing of the tank of fuel, characterized in that at least one groove is hollowed out on the upper face of the casing of the fuel tank for at least partial reception of the protective pipe .
A production method for a steel wire for a spring, the method comprising: heating the entirety of the steel wire to a higher temperature than a temperature of austenite transformation point and then quenching the steel wire; heating only a surface layer of the steel wire to a temperature (T1) ranging from 800 to 1000 °C that is higher than the temperature of the austenite transformation point (T AC3 ) while heating a center portion of the steel wire to a lower temperature (T3) than a tempering temperature (T temp ) in the subsequent tempering, wherein an intermediate layer between the surface layer and the center portion is heated to a lower temperature than the temperature of the austenite transformation point (T AC3 ) and higher than the tempering temperature (T temp ), and then quenching the steel wire; and tempering the entirety of the steel wire by heating, wherein the above steps are performed in the above order, thereby forming the surface layer , the intermediate layer interior to the surface layer , and the center portion interior to the intermediate layer and reaches a center of the steel wire, and the intermediate layer having lower hardness than the surface layer and the center portion . heating the entirety of the steel wire to a higher temperature than a temperature of austenite transformation point and then quenching the steel wire; heating only a surface layer of the steel wire to a temperature (T1) ranging from 800 to 1000 °C that is higher than the temperature of the austenite transformation point (T AC3 ) while heating a center portion of the steel wire to a lower temperature (T3) than a tempering temperature (T temp ) in the subsequent tempering, wherein an intermediate layer between the surface layer and the center portion is heated to a lower temperature than the temperature of the austenite transformation point (T AC3 ) and higher than the tempering temperature (T temp ), and then quenching the steel wire; and tempering the entirety of the steel wire by heating, wherein the above steps are performed in the above order, thereby forming the surface layer , the intermediate layer interior to the surface layer , and the center portion interior to the intermediate layer and reaches a center of the steel wire, and the intermediate layer having lower hardness than the surface layer and the center portion .
A scaffold suitable for the growth of tissue in vivo formed by a matrix of interconnected growth surfaces defined by the interconnection of multiple fibers or three-dimensional structures and spaced at regular intervals equal or larger than 0.7 mm and smaller than 3.0 mm, the interconnection of multiple fibers or three-dimensional structures being uniformly arranged to create open areas.
Use of a formulated oil as lubricating oil in an engine for preventing or reducing low speed pre-ignition, wherein said formulated oil comprises a lubricating oil base stock as a major component; and from 1.0 to 6.0 wt% based on the total weight of the lubricating oil of at least one detergent, as a minor component; wherein said detergent comprises at least one magnesium salt of an organic acid in an amount of from 100 to 3000 ppm of magnesium based on the total weight of the lubricating oil; and wherein the engine exhibits greater than 50% reduced low speed pre-ignition, based on normalized low speed pre-ignition (LSPI) counts per 25,000 engine cycles, engine operation at 2000 revolutions per minute (RPM) and brake mean effective pressure (BMEP) at 18 bar, as compared to low speed pre-ignition performance achieved in an engine using a lubricating oil that does not comprise at least one magnesium salt of an organic acid.
A two-layer structure colored optical fiber comprising: a glass optical fiber; a primary coating layer coating the glass optical fiber; and a colored secondary coating layer coating the primary coating layer, a surface cure percentage of the colored secondary coating layer being 99% or more at an infrared absorption peak of a wave number of 1407 cm -1 , a difference in the surface cure percentage between a portion near a surface of the colored secondary coating layer and a portion near an interface between the primary coating layer and the colored secondary coating layer being 3.0% or less, a surface kinetic friction force in Knot Test of the colored secondary coating layer being less than 0.075 N. a glass optical fiber; a primary coating layer coating the glass optical fiber; and a colored secondary coating layer coating the primary coating layer, a surface cure percentage of the colored secondary coating layer being 99% or more at an infrared absorption peak of a wave number of 1407 cm -1 , a difference in the surface cure percentage between a portion near a surface of the colored secondary coating layer and a portion near an interface between the primary coating layer and the colored secondary coating layer being 3.0% or less, a surface kinetic friction force in Knot Test of the colored secondary coating layer being less than 0.075 N.
A method for determining at least one internal quality attribute of an article of agricultural produce, comprising: receiving a plurality of first spectroscopic values obtained from directing low band light in a first wavelength associated to a low band of wavelengths from at least one low band light source for respective distances r through the article toward at least one detector ; receiving a plurality of second spectroscopic values obtained from directing high band light in a second wavelength associated to a high band of wavelengths from at least one high band light source for the same respective distances r through the article toward the at least one detector , wherein the first wavelength is lower than the second wavelength; determining at least one measured spatial profile associated to the article comprising a plurality of transmittance ratios of respective first spectroscopic values to respective second spectroscopic values; and determining the at least one internal quality attribute at least partly from a comparison of the at least one measured spatial profile with at least one reference spatial profile associated to a class of healthy articles of agricultural produce, characterized in that : the first and second wavelengths have been selected so that the attenuation coefficient of the first and second wavelengths are the same or similar for a healthy article such that the transmittance ratio would be almost constant with distance for a healthy article. receiving a plurality of first spectroscopic values obtained from directing low band light in a first wavelength associated to a low band of wavelengths from at least one low band light source for respective distances r through the article toward at least one detector ; receiving a plurality of second spectroscopic values obtained from directing high band light in a second wavelength associated to a high band of wavelengths from at least one high band light source for the same respective distances r through the article toward the at least one detector , wherein the first wavelength is lower than the second wavelength; determining at least one measured spatial profile associated to the article comprising a plurality of transmittance ratios of respective first spectroscopic values to respective second spectroscopic values; and determining the at least one internal quality attribute at least partly from a comparison of the at least one measured spatial profile with at least one reference spatial profile associated to a class of healthy articles of agricultural produce, characterized in that : the first and second wavelengths have been selected so that the attenuation coefficient of the first and second wavelengths are the same or similar for a healthy article such that the transmittance ratio would be almost constant with distance for a healthy article.
A method for manufacturing a bonded wafer, comprising: implanting at least one gas ion selected from a hydrogen ion and a rare gas ion into a bond wafer from a surface of the bond wafer to form an ion implantation layer ; bonding the surface from which the ion is implanted into the bond wafer and a surface of a base wafer directly or through an insulator film; and delaminating a part of the bond wafer along the ion implantation layer by a heat treatment to form a bonded wafer having a thin film on the base wafer, wherein the heat treatment is performed at 400°C or lower to delaminate a part of the bond wafer along the ion implantation layer; the method further comprising measuring thicknesses of the bond wafer and the base wafer and selecting a combination of the bond wafer and the base wafer such that a difference between the thicknesses of both the wafers is 5 μm or more before bonding the bond wafer and the base wafer. implanting at least one gas ion selected from a hydrogen ion and a rare gas ion into a bond wafer from a surface of the bond wafer to form an ion implantation layer ; bonding the surface from which the ion is implanted into the bond wafer and a surface of a base wafer directly or through an insulator film; and delaminating a part of the bond wafer along the ion implantation layer by a heat treatment to form a bonded wafer having a thin film on the base wafer, wherein the heat treatment is performed at 400°C or lower to delaminate a part of the bond wafer along the ion implantation layer; the method further comprising measuring thicknesses of the bond wafer and the base wafer and selecting a combination of the bond wafer and the base wafer such that a difference between the thicknesses of both the wafers is 5 μm or more before bonding the bond wafer and the base wafer.