mhurhangee/patent-ind-claim-en huggingface dataset:
A method of providing communications including an extended protocol header comprising: receiving , by a recipient, a message in a communication protocol, said message having a header; including , by said recipient, an extension in said header to generate a message with said extended protocol header, said extension including additional information comprising authentication information and a service identifier; performing , by said recipient, an initial authentication of a user; routing , by said recipient, an initial requestor to a secondary information service with said authentication information embedded in said message; authenticating , by said secondary information service, said user by way of said authentication information of said message without having to re-request credentials from said user; and selecting , by said secondary information service, a specific service identified by said service identifier. receiving , by a recipient, a message in a communication protocol, said message having a header; including , by said recipient, an extension in said header to generate a message with said extended protocol header, said extension including additional information comprising authentication information and a service identifier; performing , by said recipient, an initial authentication of a user; routing , by said recipient, an initial requestor to a secondary information service with said authentication information embedded in said message; authenticating , by said secondary information service, said user by way of said authentication information of said message without having to re-request credentials from said user; and selecting , by said secondary information service, a specific service identified by said service identifier.
Mattress carrier comprising a base structure to which compressible means can be attached directly or indirectly, wherein the base structure comprises an opening and that said mattress carrier comprises a panel which can be moved through the opening and to which compressible means can be attached directly or indirectly, characterized in that said panel is movable between a top position in which said panel extends in a plane located above the plane of the base structure , and a bottom position in which said panel extends in a plane located below the plane of the base structure .
A sintered Nd-Fe-B magnet of a composition, wherein Pr and Nd are present in a total amount of 31wt.% ≤ Pr and Nd ≤ 35wt.%; B is present in an amount of 0.95wt.% ≤ B ≤ 1.2wt %; Al is present in an amount of 0.21wt.% ≤ Al ≤ 1wt.%; Co is present in an amount of 0.2wt.% ≤ Co ≤ 4wt.%; Cu is present in an amount of 0.1wt.% ≤ Cu ≤ 0.2wt.%; Ga is present in an amount of 0.5wt.% ≤ Ga ≤ 1wt.%; Ti is present in an amount of 0.3wt.% ≤ Ti ≤ 1wt.%; a total amount of heavy rare earth elements is less than or equal to 0.2wt.%; the balance element is Fe; and impurities of C, O, and N in the magnet satisfy formula 630ppm ≤ 1.2xC content + 0.6×O content + 1×N content ≤ 3680ppm.
An electric pressure cooker, comprising: a main body having an opened upper surface and defining a cooking space; an inner pot having an opened upper surface and stored in the cooking space, and a lid configured to open and close the upper surface of the main body , the lid comprising: a lid fastening ring fastened to the opened upper surface of the main body ; an inner lid comprising a steam outlet and a first flow guide path member defined on a lower surface of the inner lid and disposed inside of the lid fastening ring to block the upper surface of the inner pot ; and an inside lid comprising a second flow path guide member and coupled to a lower surface of the inner lid , and the inside lid guides steam generated in the inner pot to the steam outlet through a steam flow path defined by the first flow path guide member and a second flow path guide member , wherein the second flow path guide member comprises a circular depression formed downward with respect to the inside lid in an area formed by the first flow guide member , and the circular depression stores water or alien substances contained in the steam. a main body having an opened upper surface and defining a cooking space; an inner pot having an opened upper surface and stored in the cooking space, and a lid configured to open and close the upper surface of the main body , the lid comprising: a lid fastening ring fastened to the opened upper surface of the main body ; an inner lid comprising a steam outlet and a first flow guide path member defined on a lower surface of the inner lid and disposed inside of the lid fastening ring to block the upper surface of the inner pot ; and an inside lid comprising a second flow path guide member and coupled to a lower surface of the inner lid , and the inside lid guides steam generated in the inner pot to the steam outlet through a steam flow path defined by the first flow path guide member and a second flow path guide member , wherein the second flow path guide member comprises a circular depression formed downward with respect to the inside lid in an area formed by the first flow guide member , and the circular depression stores water or alien substances contained in the steam. a lid fastening ring fastened to the opened upper surface of the main body ; an inner lid comprising a steam outlet and a first flow guide path member defined on a lower surface of the inner lid and disposed inside of the lid fastening ring to block the upper surface of the inner pot ; and an inside lid comprising a second flow path guide member and coupled to a lower surface of the inner lid , and the inside lid guides steam generated in the inner pot to the steam outlet through a steam flow path defined by the first flow path guide member and a second flow path guide member , wherein the second flow path guide member comprises a circular depression formed downward with respect to the inside lid in an area formed by the first flow guide member , and the circular depression stores water or alien substances contained in the steam.
A terminal comprising: a receiving section configured to receive time interval information that indicates a monitoring periodicity for monitoring a downlink, DL, control channel, and to receive downlink control information including blank resource information that indicates a blank resource; wherein the downlink control information is received at timings indicated by the monitoring periodicity; characterized by comprising: a control section configured to identify the presence or absence and location of at least one of a downlink and an uplink control channel at timings apart from the monitoring periodicity based on the blank resource information; the control section being further configured to control rate matching of a DL data channel based on the identified presence or absence and location of the at least one of a downlink and an uplink control channel. a receiving section configured to receive time interval information that indicates a monitoring periodicity for monitoring a downlink, DL, control channel, and to receive downlink control information including blank resource information that indicates a blank resource; wherein the downlink control information is received at timings indicated by the monitoring periodicity; characterized by comprising: a control section configured to identify the presence or absence and location of at least one of a downlink and an uplink control channel at timings apart from the monitoring periodicity based on the blank resource information; the control section being further configured to control rate matching of a DL data channel based on the identified presence or absence and location of the at least one of a downlink and an uplink control channel. a control section configured to identify the presence or absence and location of at least one of a downlink and an uplink control channel at timings apart from the monitoring periodicity based on the blank resource information; the control section being further configured to control rate matching of a DL data channel based on the identified presence or absence and location of the at least one of a downlink and an uplink control channel.
A stent comprising: a stent body defining a longitudinal axis (K) and proximal and distal ends, the stent body being expandable from a compressed configuration to an expanded configuration, the stent body including a plurality of stent segments (104, 104a-g), wherein the stent segments (104, 104a-g) include a first end segment and a second end segment on opposite ends of the stent body and at least one intermediate segment disposed between the first end segment and the second end segment, wherein each stent segment (104, 104a-g) defines a plurality of cells (106, 106a-106d, 106e-106g, 106t-106w), wherein each stent segment (104, 104a-g) defines a plurality of peaks and valleys, wherein the at least one intermediate segment defines only x number of cells (106, 106a-106d, 106e-106g, 106t-106w), wherein the first end segment defines x + 1 number of cells (106, 106a-106d, 106e-106g, 106t-106w), each of the cells (106, 106a-106d, 106e-106g, 106t-106w) of the first end segment being substantially equal in size, wherein the at least one intermediate segment defines only y number of peaks and valleys, and wherein the first end segment defines only y number of peaks and valleys, wherein each of the cells (106, 106a-106d, 106e-106g, 106t-106w) of the at least one intermediate segment are substantially equal in size. a stent body defining a longitudinal axis (K) and proximal and distal ends, the stent body being expandable from a compressed configuration to an expanded configuration, the stent body including a plurality of stent segments (104, 104a-g), wherein the stent segments (104, 104a-g) include a first end segment and a second end segment on opposite ends of the stent body and at least one intermediate segment disposed between the first end segment and the second end segment, wherein each stent segment (104, 104a-g) defines a plurality of cells (106, 106a-106d, 106e-106g, 106t-106w), wherein each stent segment (104, 104a-g) defines a plurality of peaks and valleys, wherein the at least one intermediate segment defines only x number of cells (106, 106a-106d, 106e-106g, 106t-106w), wherein the first end segment defines x + 1 number of cells (106, 106a-106d, 106e-106g, 106t-106w), each of the cells (106, 106a-106d, 106e-106g, 106t-106w) of the first end segment being substantially equal in size, wherein the at least one intermediate segment defines only y number of peaks and valleys, and wherein the first end segment defines only y number of peaks and valleys, wherein each of the cells (106, 106a-106d, 106e-106g, 106t-106w) of the at least one intermediate segment are substantially equal in size.
A fiber optic cable, comprising: (A) a core subassembly , comprising at least one optical transmission element , wherein the optical transmission element comprises at least one optical fiber and a tube surrounding the at least one optical fiber; and (B) a jacket surrounding the core subassembly , wherein the jacket comprises: (i) an inner layer comprising a first flame retardant material; (ii) an intermediate layer comprising a second flame retardant material being different from the first flame retardant material of the inner layer; and (iii) an outer layer comprising a non-flame retardant material having a lower coefficient of friction than the first and the second flame retardant material, the outer layer having a thickness of equal to or less than 100 μm; wherein the first flame retardant material has a higher flame resistance than the second flame retardant material. (A) a core subassembly , comprising at least one optical transmission element , wherein the optical transmission element comprises at least one optical fiber and a tube surrounding the at least one optical fiber; and (B) a jacket surrounding the core subassembly , wherein the jacket comprises: (i) an inner layer comprising a first flame retardant material; (ii) an intermediate layer comprising a second flame retardant material being different from the first flame retardant material of the inner layer; and (iii) an outer layer comprising a non-flame retardant material having a lower coefficient of friction than the first and the second flame retardant material, the outer layer having a thickness of equal to or less than 100 μm; (i) an inner layer comprising a first flame retardant material; (ii) an intermediate layer comprising a second flame retardant material being different from the first flame retardant material of the inner layer; and (iii) an outer layer comprising a non-flame retardant material having a lower coefficient of friction than the first and the second flame retardant material, the outer layer having a thickness of equal to or less than 100 μm;
Induction hob comprising a circuitry for powering at least one induction coil , the circuitry comprising a power circuit portion with at least one switching element adapted to provide pulsed electric power to said induction coil and an oscillating circuit portion , said induction coil being electrically coupled with said power circuit portion and said oscillating circuit portion , wherein said induction hob comprises a control entity , the induction hob being characterized in that said control entity is configured to receive first information correlated with a first voltage provided at said power circuit portion and second information correlated with a second voltage correlated with said oscillating circuit portion , said control entity being further configured to calculate information regarding a peak value and a power factor of the electric current provided through said induction coil based on said received first and second information.
Adjusting device for a vehicle part that is movable relative to a body of a vehicle, in particular for a vehicle door or a vehicle panel, comprising - a drive assembly comprising a drive unit and a connecting unit which is designed to connect the drive assembly to a superordinate assembly, i.e. an assembly that is not part of the adjusting device , namely either the body of the vehicle or the movable vehicle part , and - an adjusting element , which can be displaced axially relative to the drive assembly along an adjustment axis (A) by means of the drive unit , such that a free end of the adjusting element can be displaced away from the drive assembly or towards it, and which comprises, at the free end thereof, an additional connecting unit which is designed to connect the adjusting element to a superordinate assembly, i.e. an assembly that is not part of the adjusting device, namely either the movable vehicle part or the body of the vehicle, wherein the drive assembly has one end, on which it cooperates with the adjustment element or on which the adjustment element exits the drive assembly , and one free and opposite said one end, wherein the one connecting unit is connected to the drive assembly at a point that is remote from the free end of the drive assembly , characterised in that a pivot axis of the one connection unit , around which the drive assembly is displaceable relative to the superordinate assembly, is skewed relative to the adjustment axis (A) of the adjusting element , wherein the one connection unit is integrally connected to the drive assembly , for example welded or bonded, or is formed in one piece therewith. - a drive assembly comprising a drive unit and a connecting unit which is designed to connect the drive assembly to a superordinate assembly, i.e. an assembly that is not part of the adjusting device , namely either the body of the vehicle or the movable vehicle part , and - an adjusting element , which can be displaced axially relative to the drive assembly along an adjustment axis (A) by means of the drive unit , such that a free end of the adjusting element can be displaced away from the drive assembly or towards it, and which comprises, at the free end thereof, an additional connecting unit which is designed to connect the adjusting element to a superordinate assembly, i.e. an assembly that is not part of the adjusting device, namely either the movable vehicle part or the body of the vehicle, wherein the drive assembly has one end, on which it cooperates with the adjustment element or on which the adjustment element exits the drive assembly , and one free and opposite said one end, wherein the one connecting unit is connected to the drive assembly at a point that is remote from the free end of the drive assembly , characterised in that a pivot axis of the one connection unit , around which the drive assembly is displaceable relative to the superordinate assembly, is skewed relative to the adjustment axis (A) of the adjusting element , wherein the one connection unit is integrally connected to the drive assembly , for example welded or bonded, or is formed in one piece therewith.
A nanocellulose dispersion composition (NDC) comprising: (i) a partitioning agent comprising a carbon black filler and at least one of an elastomer latex and/or a wax; and (ii) a nanocellulose. (i) a partitioning agent comprising a carbon black filler and at least one of an elastomer latex and/or a wax; and (ii) a nanocellulose.
An electronic device comprising: a housing having a hole formed therethrough; an earphone jack built in the housing so as to receive an earphone plug therein through the hole; a gas sensor integrally formed with the earphone jack ; a memory positioned inside the housing ; and a processor positioned inside the housing and electrically connected to the earphone jack , the gas sensor , and the memory , wherein the memory stores instructions that cause, when executed, the processor to: control the gas sensor so as to obtain data related to a specific component of outside air; and calculate a cleanliness level of the outside air, based on at least one piece of data obtained by the gas sensor before a predetermined measurement disturbance element is generated or data obtained by the gas sensor after the measurement disturbance element is removed, and adjust a measurement period of the gas sensor , based on the calculated cleanliness level. a housing having a hole formed therethrough; an earphone jack built in the housing so as to receive an earphone plug therein through the hole; a gas sensor integrally formed with the earphone jack ; a memory positioned inside the housing ; and a processor positioned inside the housing and electrically connected to the earphone jack , the gas sensor , and the memory , wherein the memory stores instructions that cause, when executed, the processor to: control the gas sensor so as to obtain data related to a specific component of outside air; and calculate a cleanliness level of the outside air, based on at least one piece of data obtained by the gas sensor before a predetermined measurement disturbance element is generated or data obtained by the gas sensor after the measurement disturbance element is removed, and adjust a measurement period of the gas sensor , based on the calculated cleanliness level. control the gas sensor so as to obtain data related to a specific component of outside air; and calculate a cleanliness level of the outside air, based on at least one piece of data obtained by the gas sensor before a predetermined measurement disturbance element is generated or data obtained by the gas sensor after the measurement disturbance element is removed, and adjust a measurement period of the gas sensor , based on the calculated cleanliness level.
A method for reducing the concentration of NO X in a dust containing gas stream comprising: a. passing a first gas stream containing NO X into a contacting zone; b. contacting the first gas stream with a ceramic foam catalyst bed having one or more flow paths through the catalyst bed wherein the ceramic foam comprises a NO X reduction catalyst to produce a second gas stream with a reduced NO X concentration, and the catalyst bed has from 10 to 30 pores per inch; and c. passing the second gas stream out of the contacting zone wherein the first gas stream has a dust concentration of at least 5 mg/Nm 3 and the second gas stream comprises at least 50% of the amount of dust in the first gas stream. a. passing a first gas stream containing NO X into a contacting zone; b. contacting the first gas stream with a ceramic foam catalyst bed having one or more flow paths through the catalyst bed wherein the ceramic foam comprises a NO X reduction catalyst to produce a second gas stream with a reduced NO X concentration, and the catalyst bed has from 10 to 30 pores per inch; and c. passing the second gas stream out of the contacting zone wherein the first gas stream has a dust concentration of at least 5 mg/Nm 3 and the second gas stream comprises at least 50% of the amount of dust in the first gas stream.
A computer-implemented method of determining moisture content of a composite structure, said method comprising: performing a thermal analysis calculation on the composite structure to determine a temporal surface temperature profile of the composite structure based on temporal environmental parameter profiles , wherein the surface temperature profile is determined independently of a moisture content of the composite structure; and performing a moisture content analysis calculation on the composite structure to determine a moisture content of the composite structure, wherein the moisture content analysis calculation is based on the determined temporal surface temperature profile and a thickness of the composite structure, characterised in that the thermal analysis calculation is performed iteratively with a first time period and the moisture content analysis calculation is performed iteratively with a second time period that is longer than the first time period. performing a thermal analysis calculation on the composite structure to determine a temporal surface temperature profile of the composite structure based on temporal environmental parameter profiles , wherein the surface temperature profile is determined independently of a moisture content of the composite structure; and performing a moisture content analysis calculation on the composite structure to determine a moisture content of the composite structure, wherein the moisture content analysis calculation is based on the determined temporal surface temperature profile and a thickness of the composite structure, characterised in that the thermal analysis calculation is performed iteratively with a first time period and the moisture content analysis calculation is performed iteratively with a second time period that is longer than the first time period.