mhurhangee/patent-ind-claim-en huggingface dataset:
A multi-layered band, comprising: - a support configured to hold at least one battery structure formed by a plurality of overlapped layers, said plurality of overlapped layers including: - a porous material , and - at least two electroactive electrodes , one oxidizing electrode and one reducing electrode , wherein the electroactive electrodes are separated at a certain distance between them and are in touch with said porous material , wherein said battery structure is configured to be activated upon the addition of a fluid, acting as the battery electrolyte, into a given region of the porous material and to provide electrical energy while said fluid impregnates by capillarity the porous material , and wherein said overlapped layers are constituted by parallel strips extending longitudinally along the length of the support , such that said multi-layered band can be cut transversally providing individual batteries of a same or different width each including the porous material and the at least two electroactive electrodes . - a support configured to hold at least one battery structure formed by a plurality of overlapped layers, said plurality of overlapped layers including: - a porous material , and - at least two electroactive electrodes , one oxidizing electrode and one reducing electrode , - a porous material , and - at least two electroactive electrodes , one oxidizing electrode and one reducing electrode , wherein the electroactive electrodes are separated at a certain distance between them and are in touch with said porous material , wherein said battery structure is configured to be activated upon the addition of a fluid, acting as the battery electrolyte, into a given region of the porous material and to provide electrical energy while said fluid impregnates by capillarity the porous material , and wherein said overlapped layers are constituted by parallel strips extending longitudinally along the length of the support , such that said multi-layered band can be cut transversally providing individual batteries of a same or different width each including the porous material and the at least two electroactive electrodes .
A needle cover for protecting a needle mounted on a tip of a barrel of a medical injection device , wherein the tip extends from a distal end of the barrel , the needle cover , comprising: an inner shield extending along a longitudinal axis (Z), comprising an inner proximal connection element configured to sealingly contact the tip of the barrel , and an outer shield surrounding at least partially the inner shield , and fixed to said inner shield , the outer shield comprising: a body including a first open end , a second end , and a sidewall extending between the first end and the second end , the body defining a cavity to receive the inner shield therein; a first undercut defined adjacent the first open end of the body , and a second undercut defined adjacent the first open end of the body , characterised in that a longitudinal length of the first undercut extending from the first open end towards the second end is less than a longitudinal length of the second undercut extending from the first open end towards the second end ; and wherein the outer shield is axially movable with respect to the inner shield , and during removal of the needle cover from the injection device , the first undercut contacts the connection element before the second undercut contacts the connection element , thereby flexing the inner shield in a radial direction to assist disengagement of the inner shield from the tip . an inner shield extending along a longitudinal axis (Z), comprising an inner proximal connection element configured to sealingly contact the tip of the barrel , and an outer shield surrounding at least partially the inner shield , and fixed to said inner shield , the outer shield comprising: a body including a first open end , a second end , and a sidewall extending between the first end and the second end , the body defining a cavity to receive the inner shield therein; a first undercut defined adjacent the first open end of the body , and a second undercut defined adjacent the first open end of the body , a body including a first open end , a second end , and a sidewall extending between the first end and the second end , the body defining a cavity to receive the inner shield therein; a first undercut defined adjacent the first open end of the body , and a second undercut defined adjacent the first open end of the body , characterised in that a longitudinal length of the first undercut extending from the first open end towards the second end is less than a longitudinal length of the second undercut extending from the first open end towards the second end ; and wherein the outer shield is axially movable with respect to the inner shield , and during removal of the needle cover from the injection device , the first undercut contacts the connection element before the second undercut contacts the connection element , thereby flexing the inner shield in a radial direction to assist disengagement of the inner shield from the tip .
A detection method for detecting a concavo-convex shape surface defect existing on a steel having a surface roughness Ra in the range of 0.5 to 2 μm comprising applying a magnetic flux to the steel so that a magnetic flux density of the steel to which the magnetic flux is applied is at least 75% and lower than 95% of the magnetic flux density at magnetic saturation; a step of sensing a signal attributed to strain of the concavo-convex shape surface defect having a size in a range of 0.5 to 6 μm, wherein the signal is magnetic flux leaking from the steel to which magnetic flux is applied, and a distance between the steel and a sensing apparatus that senses the signal is in a range of 0.5 to 1.5 mm; and a step of determining a point that corresponds to the signal having an intensity equal to or higher than a threshold value to be a defect.
An X-ray radiation beamforming apparatus, including: at least three field emission electron sources and one or more associated electrode structures housed in one or more vacuum enclosures ; a radiofrequency, RF, source and an RF controller configured to produce a plurality of individually controlled phase delayed RF signals; an RF matching circuit configured to match each of the at least three field emission electron sources with one of the plurality of individually controlled phase delayed signals to generate a plurality of RF modulated electron currents at the same frequency and phase delay of each of the plurality of phase delayed RF signals; one or more target anodes housed in the one or more vacuum enclosures , wherein a voltage potential between the one or more target anodes and the at least three field emission electron sources accelerates the plurality of RF modulated electron currents to produce X-rays whose intensity is modulated by the RF signal, so that RF modulated X-ray radiation is generated at the same frequency and phase delay of each of the plurality of phase delayed RF signals, and wherein the RF controller is configured to produce a plurality of individually controlled phase delayed signals to implement a predefined beamforming radiation pattern, wherein beamforming describes a shaping of the X-ray intensity in space and time where the X-ray radiation only add to increase the X-ray signal at specific locations. at least three field emission electron sources and one or more associated electrode structures housed in one or more vacuum enclosures ; a radiofrequency, RF, source and an RF controller configured to produce a plurality of individually controlled phase delayed RF signals; an RF matching circuit configured to match each of the at least three field emission electron sources with one of the plurality of individually controlled phase delayed signals to generate a plurality of RF modulated electron currents at the same frequency and phase delay of each of the plurality of phase delayed RF signals; one or more target anodes housed in the one or more vacuum enclosures , wherein a voltage potential between the one or more target anodes and the at least three field emission electron sources accelerates the plurality of RF modulated electron currents to produce X-rays whose intensity is modulated by the RF signal, so that RF modulated X-ray radiation is generated at the same frequency and phase delay of each of the plurality of phase delayed RF signals, and wherein the RF controller is configured to produce a plurality of individually controlled phase delayed signals to implement a predefined beamforming radiation pattern, wherein beamforming describes a shaping of the X-ray intensity in space and time where the X-ray radiation only add to increase the X-ray signal at specific locations.
A bottom part for a food processor formed for heating at least one food, including a first plate element , the top side of which is in contact with the at least one food in the operation of the bottom part , and including a second plate element , which is connected to at least one electrical heating element of the bottom part , wherein the bottom part comprises a third plate element , the top side of which is connected to a bottom side of the first plate element , and the bottom side of which is connected to a top side of the second plate element , wherein the third plate element has a greater thermal conductivity than the first plate element , wherein a thickness of the third plate element is larger than a thickness of the second plate element , characterized in that the plate elements are connected to each other in firmly bonded manner by soldering and/or the at least one heating element is connected to the second plate element in firmly bonded manner by soldering.
A composition comprising (A) a heterophasic propylene copolymer, (B) talc and (C) a functionalized polypropylene grafted with an acid or acid anhydride functional group, wherein the heterophasic propylene copolymer consists of (a) a propylene-based matrix, wherein the propylene-based matrix consists of a propylene homopolymer and/or a propylene- α-olefin copolymer consisting of at least 70 wt% of propylene and at most 30 wt% of α-olefin, based on the total weight of the propylene-based matrix and wherein the propylene-based matrix is present in an amount of 90 to 95 wt% based on the total heterophasic propylene copolymer and (b) a dispersed ethylene-α-olefin copolymer, wherein the dispersed ethylene-α-olefin copolymer is present in an amount of 10 to 5 wt% based on the total heterophasic propylene copolymer and wherein the sum of the total amount of propylene-based matrix and total amount of the dispersed ethylene-α-olefin copolymer in the heterophasic propylene copolymer is 100 wt%, wherein the heterophasic propylene copolymer has an MFI of 0.1 - 0.5 dg/min as determined according to ISO1133 at 230 oC and 2.16 kg and wherein the amount of the talc in the composition is 0.025-10 wt% of the total composition and the amount of the functionalized polypropylene is 0.005-2.5 wt% of the total composition. (a) a propylene-based matrix, wherein the propylene-based matrix consists of a propylene homopolymer and/or a propylene- α-olefin copolymer consisting of at least 70 wt% of propylene and at most 30 wt% of α-olefin, based on the total weight of the propylene-based matrix and wherein the propylene-based matrix is present in an amount of 90 to 95 wt% based on the total heterophasic propylene copolymer and (b) a dispersed ethylene-α-olefin copolymer, wherein the dispersed ethylene-α-olefin copolymer is present in an amount of 10 to 5 wt% based on the total heterophasic propylene copolymer and wherein the sum of the total amount of propylene-based matrix and total amount of the dispersed ethylene-α-olefin copolymer in the heterophasic propylene copolymer is 100 wt%, wherein the heterophasic propylene copolymer has an MFI of 0.1 - 0.5 dg/min as determined according to ISO1133 at 230 oC and 2.16 kg and wherein the amount of the talc in the composition is 0.025-10 wt% of the total composition and the amount of the functionalized polypropylene is 0.005-2.5 wt% of the total composition.
A polymer or oligomer comprising a) An oligomeric or polymeric core comprising carbon atoms and at least one of oxygen atoms and nitrogen atoms, and b) at least three hydrocarbyl terminal and/or pending groups having 12 to 100 carbon atoms, wherein the hydrocarbyl groups are linked to the core via c) a linking moiety comprising i) a urethane group and ii) a group selected from urethane group, urea group, and biuret group. a) An oligomeric or polymeric core comprising carbon atoms and at least one of oxygen atoms and nitrogen atoms, and b) at least three hydrocarbyl terminal and/or pending groups having 12 to 100 carbon atoms, wherein the hydrocarbyl groups are linked to the core via c) a linking moiety comprising i) a urethane group and ii) a group selected from urethane group, urea group, and biuret group.
An enclosure housing an integrated circuit, IC, assembly , the enclosure comprising: a molded lid structure having a body portion , and a side portion ; and a base structure coupled to the side portion of the molded lid structure to form a cavity that houses the IC assembly, wherein the IC assembly comprises one or more die electrically attached to a package substrate , and further wherein the side portion extends from the body portion and forms the cavity , wherein the body portion and the side portion share a contiguous interior material comprising a polymer and share a contiguous exterior material comprising a metal, the contiguous interior material having an opening formed in the body portion such that the IC assembly is thermally coupled with the contiguous exterior material through the opening. a molded lid structure having a body portion , and a side portion ; and a body portion , and a side portion ; and a base structure coupled to the side portion of the molded lid structure to form a cavity that houses the IC assembly, wherein the IC assembly comprises one or more die electrically attached to a package substrate , and further wherein the side portion extends from the body portion and forms the cavity , wherein the body portion and the side portion share a contiguous interior material comprising a polymer and share a contiguous exterior material comprising a metal, the contiguous interior material having an opening formed in the body portion such that the IC assembly is thermally coupled with the contiguous exterior material through the opening.
A method for forming an uncured rubber component, the method comprising: conveying an uncured extruded rubber strip (G) extruded continuously from an extruder (T) using a conveyor , the conveyor comprising a first conveyor and a second conveyor located at a downstream side (d) of the first conveyor in a convey direction, the step of conveying comprising shrinking the uncured extruded rubber strip (G), wherein the step of shrinking is such that the uncured extruded rubber strip (G), in a relaxed state of a U-shaped manner, passes through fluid held in a tank between the first conveyor and the second conveyor without being restrained so that the uncured extruded rubber strip (G) shrinks freely while receiving buoyancy from the fluid, wherein in the step of shrinking, a length of the uncured extruded rubber strip (G) passing through the fluid is from 1.6 to 2.0 times the predetermined length of the uncured rubber component; and cutting the uncured extruded rubber strip (G) in a predetermined length to form an uncured rubber component, after the step of shrinking. conveying an uncured extruded rubber strip (G) extruded continuously from an extruder (T) using a conveyor , the conveyor comprising a first conveyor and a second conveyor located at a downstream side (d) of the first conveyor in a convey direction, the step of conveying comprising shrinking the uncured extruded rubber strip (G), wherein the step of shrinking is such that the uncured extruded rubber strip (G), in a relaxed state of a U-shaped manner, passes through fluid held in a tank between the first conveyor and the second conveyor without being restrained so that the uncured extruded rubber strip (G) shrinks freely while receiving buoyancy from the fluid, wherein in the step of shrinking, a length of the uncured extruded rubber strip (G) passing through the fluid is from 1.6 to 2.0 times the predetermined length of the uncured rubber component; and cutting the uncured extruded rubber strip (G) in a predetermined length to form an uncured rubber component, after the step of shrinking.
Method for monitoring an integrity of a distributed system, having the following steps: - definition (S1), on a random sample basis, of a test dataset depending on a dataset that is to be transmitted via a communication connection of the distributed system; - cryptographically protected provision (S2) of the test dataset to a checking unit, wherein the dataset is transmitted via the communication connection in such a way that it is unaffected by the definition and provision; - checking (S3) of the integrity of the cryptographically protected test dataset by the checking unit using cryptographic calculations and plausibility information, characterized in that the plausibility information relates to a profile or a pattern of the dataset that is to be transmitted. - definition (S1), on a random sample basis, of a test dataset depending on a dataset that is to be transmitted via a communication connection of the distributed system; - cryptographically protected provision (S2) of the test dataset to a checking unit, wherein the dataset is transmitted via the communication connection in such a way that it is unaffected by the definition and provision; - checking (S3) of the integrity of the cryptographically protected test dataset by the checking unit using cryptographic calculations and plausibility information,
A latch assembly (200; 300; 400; 500a, 500b) for opening and closing an openable structure, the latch assembly (200; 300; 400; 500a, 500b) comprising: a housing (204; 304) defining a cavity , characterised by : a handle (202; 302) movably mounted to the housing (204; 304); and a latching mechanism (214; 314) in the cavity and disposed between the handle (202; 302) and the housing (204; 304), the latching mechanism (214; 314) comprising: a first body (234; 334; 534a, 534b) the first body (234; 334; 534a, 534b) having a first latching element (206; 306; 406) extending through the housing (204; 304); a second body (236; 336; 536a, 536b) the second body (236; 336; 536a, 536b) having a second latching element (208; 308; 408) extending through the housing (204; 304); a first link attached to the first body (234; 334; 534a, 534b); a second link attached to the second body (236; 336; 536a, 536b); and a link connector (244; 344) operably connecting the first link to the second link , wherein movement of the link connector (244; 344) urges the first latching element (206; 306; 406) and the second latching element (208; 308; 408) apart through movement of the first link and the second link and the first body (234; 334; 534a, 534b) and the second body (236; 336; 536a, 536b); characterized in at least one guide pin (224; 324) being mounted to the housing (204; 304); wherein the first body (234; 334; 534a, 534b) and the second body (236; 336; 536a, 536b) are movable along the at least one guide pin (224; 324). a housing (204; 304) defining a cavity , characterised by : a handle (202; 302) movably mounted to the housing (204; 304); and a latching mechanism (214; 314) in the cavity and disposed between the handle (202; 302) and the housing (204; 304), the latching mechanism (214; 314) comprising: a handle (202; 302) movably mounted to the housing (204; 304); and a latching mechanism (214; 314) in the cavity and disposed between the handle (202; 302) and the housing (204; 304), the latching mechanism (214; 314) comprising: a first body (234; 334; 534a, 534b) the first body (234; 334; 534a, 534b) having a first latching element (206; 306; 406) extending through the housing (204; 304); a second body (236; 336; 536a, 536b) the second body (236; 336; 536a, 536b) having a second latching element (208; 308; 408) extending through the housing (204; 304); a first link attached to the first body (234; 334; 534a, 534b); a second link attached to the second body (236; 336; 536a, 536b); and a link connector (244; 344) operably connecting the first link to the second link , wherein movement of the link connector (244; 344) urges the first latching element (206; 306; 406) and the second latching element (208; 308; 408) apart through movement of the first link and the second link and the first body (234; 334; 534a, 534b) and the second body (236; 336; 536a, 536b); characterized in at least one guide pin (224; 324) being mounted to the housing (204; 304); wherein the first body (234; 334; 534a, 534b) and the second body (236; 336; 536a, 536b) are movable along the at least one guide pin (224; 324).
A user equipment, UE , comprising: a transceiver configured to receive RRC signaling which is used to configure a first corresponding serving cell list in a first LogicalChannelConfig information element, IE, for a first logical channel of an SRB and a second corresponding serving cell list in a second LogicalChannelConfig IE for a second logical channel of the SRB configured as a duplicate logical channel in carrier aggregation, wherein a PCell is included in one of the serving cell lists; wherein the transceiver is configured to transmit, on serving cells in the first corresponding serving cell list, data from the first logical channel, and to transmit, on serving cells in the second corresponding serving cell list, data from the second logical channel, the first LogicalChannelConfig IE is used to configure logical channel parameters of the first logical channel, and the second LogicalChannelConfig IE is used to configure logical channel parameters of the second logical channel. a transceiver configured to receive RRC signaling which is used to configure a first corresponding serving cell list in a first LogicalChannelConfig information element, IE, for a first logical channel of an SRB and a second corresponding serving cell list in a second LogicalChannelConfig IE for a second logical channel of the SRB configured as a duplicate logical channel in carrier aggregation, wherein a PCell is included in one of the serving cell lists; wherein the transceiver is configured to transmit, on serving cells in the first corresponding serving cell list, data from the first logical channel, and to transmit, on serving cells in the second corresponding serving cell list, data from the second logical channel, the first LogicalChannelConfig IE is used to configure logical channel parameters of the first logical channel, and the second LogicalChannelConfig IE is used to configure logical channel parameters of the second logical channel.
Tire comprising a tread , at least one groove , at least one wear indicator arranged in the groove , and further comprising at least one wear indicator , characterized in that the wear indicator comprises at least two coaxial parts, a radially inner part and a radially outer part arranged in the extension of the radially inner part , the section of the radially outer part being greater by at least 30% than the section of the radially inner part .