mhurhangee/patent-ind-claim-en huggingface dataset:
A propylene impact copolymer comprising: (a) a matrix comprising a polypropylene homopolymer or a propylene/alpha-olefin random copolymer which comprises more than 50 wt.% of units derived from propylene monomer; and (b) a dispersed phase comprising an ethylene-propylene copolymer, wherein the dispersed phase has a melting point between 100 °C and 130 °C and an enthalpy greater than 11 J/g and is obtainable in a dispersed phase polymerization step at a molar gas ratio of ethylene to the total of ethylene and propylene of greater than 0.82.
A safety laminate comprising at least one interlayer sheet that is laminated to one or more rigid sheets, one or more other polymeric interlayer sheets, or one or more film layers; wherein the at least one interlayer sheet comprises an ethylene copolymer composition; wherein the ethylene copolymer composition comprises a blend of Ethylene Copolymer 1 and Ethylene Copolymer 2; and wherein said Ethylene Copolymer 1 consists essentially of copolymerized units of ethylene, optionally 5 to 40 wt% of copolymerized units of a first olefin having a formula of CH 2 =C(R 1 )CO 2 R 2 , and 2 to 30 wt% of copolymerized units of a second olefin having a formula of CH 2 =C(R 3 )COOH, wherein the weight percentages of the copolymerized units of the first olefin and of the second olefin are based on the total weight of said Ethylene Copolymer 1; wherein optionally at least a portion of the carboxylic acid groups of the second olefin are neutralized to form carboxylate salts; wherein R 1 represents hydrogen or an alkyl group, R 2 represents an alkyl group, and R 3 represents hydrogen or an alkyl group; and wherein said Ethylene Copolymer 2 consists essentially of copolymerized units of ethylene, optionally up to 40 wt% of copolymerized units of the first olefin, and 3 to 15 wt% of copolymerized units of a third olefin having a formula of CH 2 =C(R 4 )-D, wherein the weight percentages of the copolymerized units of the first olefin and of the third olefin are based on the total weight of said Ethylene Copolymer 2; wherein R 4 represents hydrogen or an alkyl group; wherein -D represents a moiety selected from the group consisting of -CO 2 R 5 , -CO 2 R 6 -R 5 , -R 6 -R 5 , -O-R 5 , and -R 5 ; wherein R 5 represents a moiety containing an epoxy group and R 6 represents an alkylene group; with the proviso that, in the blend of Ethylene Copolymer 1 and Ethylene Copolymer 2, none of said first, second or third olefins is a dicarboxylic acid or a di-ester, mono-ester or anhydride of the dicarboxylic acid, and with the proviso that the laminate according to Example 1 of WO 2011/014777 A1 is excluded.
A drive mechanism for a toothed ring including a power machine , a transmission and a gear fitted with a bearing to a bearing support and meshing with the toothed ring , characterized in that the bearing support is supported in its place to a base structure by two support arms and a third pivot point , so that the virtual extensions of the support arms intersect with a line passing through the center point of the tooth contact between the toothed ring and the gear , and the third pivot point , that the third pivot point is formed by a ball-and-socket joint, and that at least one end of the support arms includes a joint , the joint being a ball-and-socket joint or a joint that turns relative to a single axis.
A method performed by a User Equipment, UE , for facilitating Conditional Primary Secondary Cell, PSCell, Change, comprising the steps of: Receiving from a Master Node, MN , a Radio Resource Control, RRC, Reconfiguration message, the RRC Reconfiguration message comprising: an Secondary Cell Group, SCG, Container including a SCG MeasConfig for Conditional Configuration; and a conditional reconfiguration configuration; performing measurements for each measurement identity, measId, received in the SCG MeasConfig if: - the report type is condTriggerConfig for the associated reportConfig; and - the measId is set to at least one condExecutionCond associated to a condReconfigId, wherein the condExecutionCond is part of the conditional reconfiguration configuration. Receiving from a Master Node, MN , a Radio Resource Control, RRC, Reconfiguration message, the RRC Reconfiguration message comprising: an Secondary Cell Group, SCG, Container including a SCG MeasConfig for Conditional Configuration; and a conditional reconfiguration configuration; performing measurements for each measurement identity, measId, received in the SCG MeasConfig if: - the report type is condTriggerConfig for the associated reportConfig; and - the measId is set to at least one condExecutionCond associated to a condReconfigId, wherein the condExecutionCond is part of the conditional reconfiguration configuration. - the report type is condTriggerConfig for the associated reportConfig; and - the measId is set to at least one condExecutionCond associated to a condReconfigId, wherein the condExecutionCond is part of the conditional reconfiguration configuration.
A method for statistical iterative reconstruction for photon-counting computed tomography, PCCT, imaging of an object to be reconstructed, the method comprising: acquiring , via a PCCT imaging system, projection data corresponding to the object to be reconstructed; generating a measured sinogram based on the acquired projection data; formulating a forward model, wherein the forward model is representative of a characteristic of the imaging system; generating an estimated sinogram based on an estimated image of the object and the forward model; formulating a statistical model based on at least one of pile-up characteristics and dead time characteristics of a detector of the imaging system; determining an update corresponding to the estimated image based on the statistical model, the measured sinogram, and the estimated sinogram; verifying the convergence of the update; and if the update has not converged, updating the estimated image based on the determined update to generate an updated estimated image of the object; and if the update has converged, outputting the estimated image as a final image of the object acquiring , via a PCCT imaging system, projection data corresponding to the object to be reconstructed; generating a measured sinogram based on the acquired projection data; formulating a forward model, wherein the forward model is representative of a characteristic of the imaging system; generating an estimated sinogram based on an estimated image of the object and the forward model; formulating a statistical model based on at least one of pile-up characteristics and dead time characteristics of a detector of the imaging system; determining an update corresponding to the estimated image based on the statistical model, the measured sinogram, and the estimated sinogram; verifying the convergence of the update; and if the update has not converged, updating the estimated image based on the determined update to generate an updated estimated image of the object; and if the update has converged, outputting the estimated image as a final image of the object
A method for radio access network, RAN, based notification area, RNA, update for an RRC_INACTIVE user equipment, UE, the method comprising: receiving, by the RRC _INACTIVE UE , a cell ID and a RAN area ID broadcasted by a second cell; initiating, by the RRC _INACTIVE UE , an RNA update procedure, when the RRC INACTIVE UE determines that the RAN area ID from the second cell does not belong to a stored list of RAN area IDs; and receiving, by the RRC INACTIVE UE , an updated list of RAN area IDs, from at least one of a first cell and the second cell. receiving, by the RRC _INACTIVE UE , a cell ID and a RAN area ID broadcasted by a second cell; initiating, by the RRC _INACTIVE UE , an RNA update procedure, when the RRC INACTIVE UE determines that the RAN area ID from the second cell does not belong to a stored list of RAN area IDs; and receiving, by the RRC INACTIVE UE , an updated list of RAN area IDs, from at least one of a first cell and the second cell.
A base station apparatus comprising: a processor configured to: allocate, to a mobile station , a plurality of uplink resource blocks, the plurality of uplink resource blocks being consecutive in a frequency domain, the plurality of the consecutive uplink resource blocks being respectively associated with a plurality of resources of downlink; map ACK or NACK signals respectively associated with at least two of the uplink resource blocks that are consecutive in the frequency domain in a distributed manner to different groups of frequency bands in a downlink; and map ACK or NACK signals respectively associated with uplink resource blocks that are non-consecutive in the frequency domain to a same or different group of frequency bands in the downlink; and a transmitter configured to transmit the mapped ACK or NACK signals to the mobile station on a hybrid ARQ indicator channel, HICH, and the processor is configured to map the ACK or NACK signals to the resources of downlink to which the HICH is mapped. a processor configured to: allocate, to a mobile station , a plurality of uplink resource blocks, the plurality of uplink resource blocks being consecutive in a frequency domain, the plurality of the consecutive uplink resource blocks being respectively associated with a plurality of resources of downlink; map ACK or NACK signals respectively associated with at least two of the uplink resource blocks that are consecutive in the frequency domain in a distributed manner to different groups of frequency bands in a downlink; and map ACK or NACK signals respectively associated with uplink resource blocks that are non-consecutive in the frequency domain to a same or different group of frequency bands in the downlink; and allocate, to a mobile station , a plurality of uplink resource blocks, the plurality of uplink resource blocks being consecutive in a frequency domain, the plurality of the consecutive uplink resource blocks being respectively associated with a plurality of resources of downlink; map ACK or NACK signals respectively associated with at least two of the uplink resource blocks that are consecutive in the frequency domain in a distributed manner to different groups of frequency bands in a downlink; and map ACK or NACK signals respectively associated with uplink resource blocks that are non-consecutive in the frequency domain to a same or different group of frequency bands in the downlink; and a transmitter configured to transmit the mapped ACK or NACK signals to the mobile station on a hybrid ARQ indicator channel, HICH, and the processor is configured to map the ACK or NACK signals to the resources of downlink to which the HICH is mapped.
A clamp device and a barb member having a barbed region for disposing within an end of a tube having an outer surface so as to form a distorted region in said outer surface of said tube, said device comprising: a flexible member comprising a body having a plurality of finger members (36a-36f) compressible between a first resting position and a second clamping position, said body having a through bore and an outer surface comprising threads , a compression member having a body , said body having a through bore and an inner surface comprising threads , said compression member being slidable over said outer surface of said tube and towards said flexible member; wherein the threads on the body of said flexible member extend onto said finger members and said flexible member is slidable over said barbed region of said barb fitting and over said distorted region in said outer surface of said tube , wherein, upon threadingly engaging said compression member with said flexible member, the compression member compresses the finger member against the barb member and at least one of said flexible finger members has a tooth (37a-37f), which projects radially inwardly from the surface of said through bore, such that, when said compression member is threadingly engaged with said flexible member, said one or more teeth sit behind and compress said distorted region in said outer surface of said tube and provide an axial stop against the underside of the barbed region of said barb fitting. a flexible member comprising a body having a plurality of finger members (36a-36f) compressible between a first resting position and a second clamping position, said body having a through bore and an outer surface comprising threads , a compression member having a body , said body having a through bore and an inner surface comprising threads , said compression member being slidable over said outer surface of said tube and towards said flexible member; wherein the threads on the body of said flexible member extend onto said finger members and said flexible member is slidable over said barbed region of said barb fitting and over said distorted region in said outer surface of said tube , wherein, upon threadingly engaging said compression member with said flexible member, the compression member compresses the finger member against the barb member and at least one of said flexible finger members has a tooth (37a-37f), which projects radially inwardly from the surface of said through bore, such that, when said compression member is threadingly engaged with said flexible member, said one or more teeth sit behind and compress said distorted region in said outer surface of said tube and provide an axial stop against the underside of the barbed region of said barb fitting.
A tyre comprising a sidewall portion provided with a mark indicating portion having one or more marks , wherein the mark indicating portion comprises a reference surface (x) provided on a surface of the sidewall portion and the one or more marks formed on the reference surface (x), at least a part of a surface of each mark is provided with a serration portion in which a plurality of ridges is arranged in parallel, each of the ridges has a triangular or trapezoidal cross section taken perpendicular to a length direction thereof having a first oblique side and a second oblique side , wherein an angle θ1 of the first oblique side with respect to the reference surface (x) is different from an angle θ2 of the second oblique side with respect to the reference surface (x); characterised in that the surface of each mark is inclined with respect to the reference surface (x) in a direction in which a height (H) thereof increases from one side to the other side in a tyre circumferential direction.
Gold alloy consisting of, by weight: - at least 750 ‰ gold, - at least a first alloying element selected from the group consisting of 30 to 220 ‰ niobium, 80 to 120 ‰ silver, and 10 to 180 ‰ vanadium, - at least a second alloying element selected from the group consisting of 30 to 70 ‰ iron, 20 to 120 ‰ palladium, 30 to 120 ‰ chromium and 5 to 40 ‰ titanium, - 0 to 2 ‰ of at least one grain refiner element selected from the group consisting of ruthenium, rhenium, iron, iridium, cobalt, vanadium, molybdenum and mixtures thereof, the grain refiner element being different from gold, from the first alloying element and from the second alloying element, the total amount of first and second elements of the gold alloy ranging from 150 ‰ to 250 ‰. - at least 750 ‰ gold, - at least a first alloying element selected from the group consisting of 30 to 220 ‰ niobium, 80 to 120 ‰ silver, and 10 to 180 ‰ vanadium, - at least a second alloying element selected from the group consisting of 30 to 70 ‰ iron, 20 to 120 ‰ palladium, 30 to 120 ‰ chromium and 5 to 40 ‰ titanium, - 0 to 2 ‰ of at least one grain refiner element selected from the group consisting of ruthenium, rhenium, iron, iridium, cobalt, vanadium, molybdenum and mixtures thereof, the grain refiner element being different from gold, from the first alloying element and from the second alloying element, the total amount of first and second elements of the gold alloy ranging from 150 ‰ to 250 ‰.
An electrode for a non-aqueous electrolyte secondary battery comprising an electrode active material layer, wherein the electrode active material layer comprises carbon dioxide and a lithium titanium oxide or LiNi 0.8 Co 0.2 O 2 , characterized in that the electrode active material layer releases the carbon dioxide in a range of 0.1 ml to 10 ml per 1 g when heated at 350°C for 1 minute, and an amount of carbon dioxide comprised in the electrode active material layer is measured by gas chromatography (GC) under an inert gas atmosphere other than carbon dioxide.
Method for controlling a display of an augmented reality display device for a motor vehicle , comprising the following steps: - determining a target maneuver of the motor vehicle ; - determining an execution location of the target maneuver; - generating a target maneuver marking for display by the augmented reality display device ; and - outputting the target maneuver marking for display by the augmented reality display device ; characterized in that the target maneuver marking is displayed in a stationary manner in the region of the execution location of the target maneuver perpendicular to a traffic lane to be traveled by the motor vehicle and located in the transverse direction at the edge of the traffic lane to be traveled. - determining a target maneuver of the motor vehicle ; - determining an execution location of the target maneuver; - generating a target maneuver marking for display by the augmented reality display device ; and - outputting the target maneuver marking for display by the augmented reality display device ;
Injection syringe for dispensing a fluid, in particular for medical use, including a) a basic body which has a longitudinal axis (A) and comprises a preferably hollow-cylindrical receiving space for receiving the fluid and a connection channel which communicates with the receiving space , wherein the connection channel opens out at a valve face of the basic body , b) a flow control element which is arranged so as to be movable on the basic body and comprises one or several flow channels (7, 7', 7"), wherein the flow channels (7, 7', 7") open out at a valve face of the flow control element , wherein the connection channel of the basic body and the flow channels (7, 7', 7") of the flow control element are directly or indirectly fluidically connected to one another or are movable into fluidic connection as a result of a relative movement of the basic body and the flow control element , wherein a sealing element is arranged between the valve face of the basic body and the valve face of the flow control element , wherein a cannula , in particular an injection needle or an irrigation cannula, is arranged or is arrangeable in such a manner on the flow control element that there is a fluid-tight fluid connection to a flow channel (7', 7"), wherein the cannula is fixedly inserted into the flow channel and is arranged, in particular, parallel to the longitudinal axis (A) of the basic body . a) a basic body which has a longitudinal axis (A) and comprises a preferably hollow-cylindrical receiving space for receiving the fluid and a connection channel which communicates with the receiving space , wherein the connection channel opens out at a valve face of the basic body , b) a flow control element which is arranged so as to be movable on the basic body and comprises one or several flow channels (7, 7', 7"), wherein the flow channels (7, 7', 7") open out at a valve face of the flow control element ,
Arrangement for modifying surfaces of metallic components, having a first and second laser radiation source and a first and second optical arrangement (OC, LH), wherein a first laser beam (LS1) is directed from the first laser radiation source into the first optical arrangement (OC), which is designed to split the first laser beam (LS1) into at least two partial beams (B1, B2) and is designed in such a way that the at least two partial beams (B1, B2) interfere with one another in the region of the surface of a metallic component , so that material removal takes place on the surface of the component with a defined structural period Λ, characterised in that a second laser beam (LS2) is directed from the second laser radiation source into the second optical arrangement (LH), and the second optical arrangement (LH) is designed in such a way that structured surface regions of the surface of the metallic component are cured by the second laser beam (B3) being influenced by the second optical arrangement (LH), and material removal does not take place there with the energy of the second laser beam (B3), and the surface of the metallic component and the focal spots of the second laser beam (B3) directed onto the surface of the metallic component and influenced by the second optical arrangement (LH) and of the at least two partial beams (B1, B2) can be moved at least two-dimensionally relative to one another, wherein the second laser beam (B3) being influenced by the second optical arrangement (LH) has a greater power and a larger cross-sectional area of its focal spot on the surface of the metallic component than the at least two partial beams (B1, B2) together, and the power density of the interfering partial beams (B1, B2) in their focal spots is greater than that of the focal spot of the second laser beam on the component surface. a second laser beam (LS2) is directed from the second laser radiation source into the second optical arrangement (LH), and the second optical arrangement (LH) is designed in such a way that structured surface regions of the surface of the metallic component are cured by the second laser beam (B3) being influenced by the second optical arrangement (LH), and material removal does not take place there with the energy of the second laser beam (B3), and the surface of the metallic component and the focal spots of the second laser beam (B3) directed onto the surface of the metallic component and influenced by the second optical arrangement (LH) and of the at least two partial beams (B1, B2) can be moved at least two-dimensionally relative to one another, wherein the second laser beam (B3) being influenced by the second optical arrangement (LH) has a greater power and a larger cross-sectional area of its focal spot on the surface of the metallic component than the at least two partial beams (B1, B2) together, and the power density of the interfering partial beams (B1, B2) in their focal spots is greater than that of the focal spot of the second laser beam on the component surface.
A method for determining transmission time interval, TTI, bundling parameters on a wireless communication device, wherein each TTI bundle is treated as a single resource for which a single uplink grant and a single HARQ acknowledgement is used, the method comprising: receiving signaling that indicates a TTI bundling configuration; receiving signaling that indicates an uplink grant; determining at least one TTI bundling parameter based on the TTI bundling configuration and the uplink grant, wherein determining the at least one TTI bundling parameter comprises determining that TTI bundling is enabled for a certain subset of subframes of an uplink shared channel, UL-SCH, and not enabled for another subset of subframes of the UL-SCH; and transmitting information in a TTI bundle in accordance with the at least one TTI bundling parameter. receiving signaling that indicates a TTI bundling configuration; receiving signaling that indicates an uplink grant; determining at least one TTI bundling parameter based on the TTI bundling configuration and the uplink grant, wherein determining the at least one TTI bundling parameter comprises determining that TTI bundling is enabled for a certain subset of subframes of an uplink shared channel, UL-SCH, and not enabled for another subset of subframes of the UL-SCH; and transmitting information in a TTI bundle in accordance with the at least one TTI bundling parameter.