mhurhangee/patent-ind-claim-en huggingface dataset:
A component for a gas turbine engine , comprising: a body portion enclosing an interior compartment of the component, the body portion including an interior surface defining the interior compartment, an exterior surface opposite the interior surface, and one or more cooling holes within the body portion, wherein each of the one or more cooling holes extend from the interior surface to the exterior surface; a porous mesh liner at least partially enclosing the exterior surface of the body portion, the porous mesh liner being fluidly connected to the one or more cooling holes, wherein the cooling holes in operation direct cooling airflow from the interior compartment of the component into the porous mesh liner; and an attachment point located in the exterior surface of the body portion, wherein the porous mesh liner is attached to the exterior surface of the body portion via the attachment point, wherein the attachment point extends into the exterior surface of the body portion, characterized in that the attachment point includes a protruding undercut portion , wherein the attachment point includes a neck section at the exterior surface or proximate to an uppermost portion of the exterior surface , and wherein the attachment point includes a tapered section , the tapered section extends inwardly from the neck section and has an increasing width with increasing depth from the neck section to form the protruding undercut portion . a body portion enclosing an interior compartment of the component, the body portion including an interior surface defining the interior compartment, an exterior surface opposite the interior surface, and one or more cooling holes within the body portion, wherein each of the one or more cooling holes extend from the interior surface to the exterior surface; a porous mesh liner at least partially enclosing the exterior surface of the body portion, the porous mesh liner being fluidly connected to the one or more cooling holes, wherein the cooling holes in operation direct cooling airflow from the interior compartment of the component into the porous mesh liner; and an attachment point located in the exterior surface of the body portion, wherein the porous mesh liner is attached to the exterior surface of the body portion via the attachment point, wherein the attachment point extends into the exterior surface of the body portion, characterized in that the attachment point includes a protruding undercut portion , wherein the attachment point includes a neck section at the exterior surface or proximate to an uppermost portion of the exterior surface , and wherein the attachment point includes a tapered section , the tapered section extends inwardly from the neck section and has an increasing width with increasing depth from the neck section to form the protruding undercut portion .
A method performed by a first entity implementing an authenticating application program interface, API, exposing function, AEF, the method comprising: receiving (step 3a), from a second entity implementing an API invoker, an authentication request message; transmitting (step 3b), to a third entity implementing a common application program interface framework, CAPIF, core function, CCF, a security information request for authentication between the first entity and the second entity; and receiving (step 3c), from the third entity, security information including a pre-shared key, PSK, associated with a security method for authentication between the first entity and the second entity, the PSK being bound to an identity of the first entity, establishing (step 3d) a transport layer security, TLS, session between the first entity and the second entity using the PSK. receiving (step 3a), from a second entity implementing an API invoker, an authentication request message; transmitting (step 3b), to a third entity implementing a common application program interface framework, CAPIF, core function, CCF, a security information request for authentication between the first entity and the second entity; and receiving (step 3c), from the third entity, security information including a pre-shared key, PSK, associated with a security method for authentication between the first entity and the second entity, the PSK being bound to an identity of the first entity, establishing (step 3d) a transport layer security, TLS, session between the first entity and the second entity using the PSK.
A salt consisting of 5-({2-[({ 4-[I-(2-hydroxyethyl)piperidin-4-yl]phenyl}carbonyl)amino]pyridin-4-yl}oxy)-6-(2-methoxyethoxy)-N-methyl-1H-indole-1-carboxamide represented by formula (I): and succinic acid or maleic acid.
Method for sterilizing stretching means of a container moulding device equipping an installation for manufacturing containers made of thermoplastic material obtained by stretch-blow moulding from production preforms, said method for sterilizing stretching means comprises at least the steps consisting in: - introducing a determined quantity of a sterilizing agent inside a sterilization preform , - during a so-called transformation step, transforming said sterilization preform into a hollow body by stretch-blow moulding in said moulding device , characterized in that said introduction of the sterilizing agent is done in the vapour state in a sterilization preform having a temperature allowing a deposition to be obtained by condensation of a uniform film of mist on an internal surface of said sterilization preform , and the successive transformation into hollow bodies of at least two sterilization preforms in one and the same moulding device is carried out, and in which the transformation step consisting in obtaining a partially formed container. - introducing a determined quantity of a sterilizing agent inside a sterilization preform , - during a so-called transformation step, transforming said sterilization preform into a hollow body by stretch-blow moulding in said moulding device ,
An in vitro method for detecting a biomarker gene or its splice variant for evaluating the competence of an unfertilized mammalian oocyte to lead to childbirth, implantation, formation of a pre-implantation blastocyst or embryo, and/or fertilization; said method comprising: - making exon level analysis of gene expression in a sample comprising at least one granulosa or cumulus cell isolated from the unfertilized oocyte; - making intra-patient based comparison of said exon level analysis of gene expression; and - using live birth and embryo development as a selection endpoint by considering only p-values <0.05 in a paired t-test as significant for a biomarker gene in being suitable for evaluating the competence of a mammalian unfertilized oocyte to lead to childbirth, implantation, formation of a pre-implantation blastocyst or embryo, and/or fertilization. - making exon level analysis of gene expression in a sample comprising at least one granulosa or cumulus cell isolated from the unfertilized oocyte; - making intra-patient based comparison of said exon level analysis of gene expression; and - using live birth and embryo development as a selection endpoint by considering only p-values <0.05 in a paired t-test as significant for a biomarker gene in being suitable for evaluating the competence of a mammalian unfertilized oocyte to lead to childbirth, implantation, formation of a pre-implantation blastocyst or embryo, and/or fertilization.
An implantable medical device comprising: a polymer substrate including a surface portion extending into the polymer substrate from a surface of the substrate; and at least one nanofiber including: a first portion interpenetrated with the surface portion of the substrate, and mechanically fixed to the substrate; and a second portion projecting from the surface , wherein the at least one nanofiber includes at least one of a fluoropolymer or a polyurethane, the implantable medical device further including a cross-linked poly(ethylene glycol) coating mechanically linked to the second portion of the at least one nanofiber . a polymer substrate including a surface portion extending into the polymer substrate from a surface of the substrate; and at least one nanofiber including: a first portion interpenetrated with the surface portion of the substrate, and mechanically fixed to the substrate; and a second portion projecting from the surface , wherein the at least one nanofiber includes at least one of a fluoropolymer or a polyurethane, the implantable medical device further including a cross-linked poly(ethylene glycol) coating mechanically linked to the second portion of the at least one nanofiber . a first portion interpenetrated with the surface portion of the substrate, and mechanically fixed to the substrate; and a second portion projecting from the surface , wherein the at least one nanofiber includes at least one of a fluoropolymer or a polyurethane, the implantable medical device further including a cross-linked poly(ethylene glycol) coating mechanically linked to the second portion of the at least one nanofiber .
Wood derived multilayer glued or laminated product having an integrated electric circuit, comprising a paper layer and conducting elements of conductive ink deposited on said paper layer, said elements being suitable for forming an electric circuit and said paper layer has a rugosity inferior to 60 μm as measured using the method disclosed in the description, wherein the product is obtained by: depositing conductive ink on the paper layer, in a roll or sheet by sheet, to form said electric circuit including conducting elements; arranging the paper layer with at least one electric circuit under at least one further paper layer; pressing the paper layers together with the electric circuit paper layer; wherein the paper used in the multilayer product is kraft paper. depositing conductive ink on the paper layer, in a roll or sheet by sheet, to form said electric circuit including conducting elements; arranging the paper layer with at least one electric circuit under at least one further paper layer; pressing the paper layers together with the electric circuit paper layer; wherein the paper used in the multilayer product is kraft paper.
An antifouling structure , comprising: a microporous layer ; and an antifouling liquid retained at a surface part of the microporous layer and at an inner part of the microporous layer , wherein the microporous layer comprises a liquid retaining portion that is formed in a film shape at the surface part of the microporous layer and retains the antifouling liquid ; and a liquid ejecting portion that is formed in a film shape at the inner part of the microporous layer and has lower affinity for the antifouling liquid than the liquid retaining portion , and wherein a film thickness (X) of the liquid retaining portion is within the range of 1/100 to 1/50 of a film thickness (T) of the liquid ejecting portion or within the range of 1/101 to 1/51 of a depth (h) of pores of the microporous layer , wherein a pore volume ratio of the microporous layer is within the range of 5% to 60%. wherein the microporous layer comprises a liquid retaining portion that is formed in a film shape at the surface part of the microporous layer and retains the antifouling liquid ; and a liquid ejecting portion that is formed in a film shape at the inner part of the microporous layer and has lower affinity for the antifouling liquid than the liquid retaining portion , and wherein a film thickness (X) of the liquid retaining portion is within the range of 1/100 to 1/50 of a film thickness (T) of the liquid ejecting portion or within the range of 1/101 to 1/51 of a depth (h) of pores of the microporous layer , wherein a pore volume ratio of the microporous layer is within the range of 5% to 60%.
An ink-jet printer comprising: an ink-jet head for printing operation by way of discharging an ink drop onto a medium, a heater for heating up the medium after the printing operation, a second heater for further heating up the medium after the medium is heated up by the heater, a frame to which the second heater is fixed, and a wound roll holding unit for holding a wound roll that is the medium, being wound like a roll after the printing operation; wherein, provided that an axial direction of the wound roll is represented as a right-and-left direction, and a direction perpendicular to a vertical direction and the right-and-left direction is represented as a front-and-back direction; the wound roll is placed at a position lower than the heater; characterized in that : the second heater is rotatable in relation to the frame, with the right-and-left direction as an axial direction of a rotary movement, between a first position, where the second heater is placed at a location of a lower side of the heater and a front side of the wound roll, and a second position, where the second heater is placed at a location of an upper side of the wound roll, at a time when the second heater is placed at the second position, the second heater and the heater face each other across a clearance, and the medium after printing operation passes through between the second_heater and the heater, the ink-jet printer includes a cable connected to the second heater, and a heater holding member to which an end part of the second heater in the right-and-left direction is fixed, and the cable is led from the heater holding member, outward in the right-and-left direction. the second heater is rotatable in relation to the frame, with the right-and-left direction as an axial direction of a rotary movement, between a first position, where the second heater is placed at a location of a lower side of the heater and a front side of the wound roll, and a second position, where the second heater is placed at a location of an upper side of the wound roll, at a time when the second heater is placed at the second position, the second heater and the heater face each other across a clearance, and the medium after printing operation passes through between the second_heater and the heater, the ink-jet printer includes a cable connected to the second heater, and a heater holding member to which an end part of the second heater in the right-and-left direction is fixed, and the cable is led from the heater holding member, outward in the right-and-left direction.
A coil arrangement for an inductive sensor, comprising - a transmitter coil, - at least one first receiver coil, and - at least one second receiver coil, - wherein the windings of the first receiver coil are inside all windings of the transmitter coil, - wherein the windings of the second receiver coil are outside all windings of the transmitter coil, and - wherein each winding of the first receiver coil is associated a winding of the second receiver coil and said windings are arranged in relation to the transmitter coil such that, when a current flows through the transmitter coil, said windings are permeated with a magnetic flux of the same size, but in opposite directions, characterized in that the coil arrangement further includes at least one compensation coil being connected in series with a receiver coil such that the sum of self-inductances of said receiver coils and the compensation coil corresponds to the self-inductance of at least the other receiver coil. - a transmitter coil, - at least one first receiver coil, and - at least one second receiver coil, - wherein the windings of the first receiver coil are inside all windings of the transmitter coil, - wherein the windings of the second receiver coil are outside all windings of the transmitter coil, and - wherein each winding of the first receiver coil is associated a winding of the second receiver coil and said windings are arranged in relation to the transmitter coil such that, when a current flows through the transmitter coil, said windings are permeated with a magnetic flux of the same size, but in opposite directions,
A fully-automated monobloc machine for manufacturing ice in particles for food use, comprising at least one storage tank of process water in the liquid state, an evaporator provided with forming means for forming ice particles from the process water in the liquid state, a collection container of the ice particles, an access hatch door to said collection container , surface sterilisation means of said ice particles present in said collection container , detection means of the open or closed position of said access hatch door , and control means communicating with said detection means and configured to activate said surface sterilisation means only if said closed position of said access hatch door is detected , characterised in that said control means are configured to activate said surface sterilisation means according to a predefined timed program, as a function at least of the type of the ice particles produced and collected in the container , and as a function at least of the quantity of the ice particles detected in the collection container .
A camera skid, comprising: a body into which a camera can be inserted, wherein the body is constructed of a first material wherein the first material is a rigid or semi-rigid material; and a front portion received into the body , the front portion including a lip that contacts a front face of the camera when the camera is inserted in the body , characterised in that the front portion is constructed of a pliable material less rigid than the first material. a body into which a camera can be inserted, wherein the body is constructed of a first material wherein the first material is a rigid or semi-rigid material; and a front portion received into the body , the front portion including a lip that contacts a front face of the camera when the camera is inserted in the body , characterised in that the front portion is constructed of a pliable material less rigid than the first material.
A manufacturing machine for the production of capsules for smoking articles, in particular for filters, designed to contain a liquid to be used in the cooling of the smoke; wherein each capsule comprises a cup-shaped body , defined by a side wall and, at one end, by a bottom wall ; the side wall has a longitudinal axis and delimits, with the bottom wall , a compartment , which is suitable for containing a predetermined amount of liquid; the capsule comprising a collar defined by the end of the side wall opposite the bottom wall ; the manufacturing machine comprises: - a moulding station (S1) for the cup-shaped bodies ; - a first control station (S4) arranged downstream of the moulding station (S1) to check the conformity of a first wall of the cup-shaped body ; and - a first transfer station (S5) arranged downstream of the first control station (S4) and transfers the cup-shaped bodies into trays fed on a conveyor; the machine is characterized in that it comprises a support member for a plurality of cup-shaped bodies having at least three capsule-carrier tables , which are designed to house a given number of cup-shaped bodies in respective first seats ; wherein two peripheral capsule-carrier tables are movable between a first position, in which they are arranged at a distance (D), other than zero, from a central capsule-carrier table , and a second position in which they are arranged close to the central capsule-carrier table , and vice versa; wherein, in the transfer from the first control station (S4) to the first transfer station (S5), the two peripheral capsule-carrier tables are moved from the first position to the second position. - a moulding station (S1) for the cup-shaped bodies ; - a first control station (S4) arranged downstream of the moulding station (S1) to check the conformity of a first wall of the cup-shaped body ; and - a first transfer station (S5) arranged downstream of the first control station (S4) and transfers the cup-shaped bodies into trays fed on a conveyor;
Veterinary composition, characterized in that it comprises oxytocin, lecirelin and caffeine.
A terminal comprising: a receiving section configured to receive a configuration for a physical uplink control channel, PUCCH, corresponding to a multicast physical downlink shared channel, PDSCH, downlink control information, DCI, scheduling the PDSCH, and the PDSCH; and a control section configured to determine a PUCCH resource for hybrid automatic repeat request acknowledgement, HARQ-ACK, for the PDSCH, based on the configuration, a PUCCH resource indicator field included in the DCI, and a control channel element, CCE, index for a physical downlink control channel, PDCCH, transmitting the DCI, wherein a transmission power control, TPC, command field is not used in the DCI, the receiving section is configured to monitor the DCI in a common search space for multicast, and a PUCCH format for the PUCCH resource is a PUCCH format without a demodulation reference signal. a receiving section configured to receive a configuration for a physical uplink control channel, PUCCH, corresponding to a multicast physical downlink shared channel, PDSCH, downlink control information, DCI, scheduling the PDSCH, and the PDSCH; and a control section configured to determine a PUCCH resource for hybrid automatic repeat request acknowledgement, HARQ-ACK, for the PDSCH, based on the configuration, a PUCCH resource indicator field included in the DCI, and a control channel element, CCE, index for a physical downlink control channel, PDCCH, transmitting the DCI, wherein a transmission power control, TPC, command field is not used in the DCI, the receiving section is configured to monitor the DCI in a common search space for multicast, and a PUCCH format for the PUCCH resource is a PUCCH format without a demodulation reference signal.
A process for preparing glycerol carbonate methacrylate, wherein glycidyl methacrylate is reacted with carbon dioxide in the presence of a catalyst and a solvent, wherein the catalyst is potassium iodide, the solvent is acetonitrile, one or more monoalcohols, or any desired mixture of acetonitrile and one or more monoalcohols, and the reaction of glycidyl methacrylate with carbon dioxide is carried out at a pressure from 0.5 to 5 bar.
A method of forming a part, the method comprising: applying first fiber tows according to a pattern to form a first ply of a set of plies ; and applying second fiber tows according to the pattern to form a second ply of the set of plies , the second ply overlying the first ply , wherein the pattern of the second ply is shifted longitudinally relative to the pattern of the first ply by an offset distance based on a period of the first fiber tows and a number of plies having the pattern in the set of plies , wherein the period corresponds to a length between an end of a first overlap of the first ply to an end of a second overlap of the first ply , and the offset distance is calculated by dividing the length of the period by the number of plies having the pattern in the set of plies, and wherein the first ply and the second ply have a same orientation. applying first fiber tows according to a pattern to form a first ply of a set of plies ; and applying second fiber tows according to the pattern to form a second ply of the set of plies , the second ply overlying the first ply , wherein the pattern of the second ply is shifted longitudinally relative to the pattern of the first ply by an offset distance based on a period of the first fiber tows and a number of plies having the pattern in the set of plies , wherein the period corresponds to a length between an end of a first overlap of the first ply to an end of a second overlap of the first ply , and the offset distance is calculated by dividing the length of the period by the number of plies having the pattern in the set of plies, and wherein the first ply and the second ply have a same orientation.