mhurhangee/ep-ind-claims huggingface dataset:
A substrate (200, 300, 500) for receiving a chip, comprising: a plurality of traces (202, 204, 302, 304); a solder resist layer (208, 308, 504) covering the plurality of traces; an exposed portion for receiving the chip, the exposed portion being free of the solder resist layer and exposing portions of the plurality of traces for electrical connection with the chip; and a testing pad (210, 212, 214, 310) coupled to a trace from the plurality of traces, the testing pad being at least partially exposed and at least partially free of the solder resist layer and positioned at a location other than an end of the trace, an exposed portion of the trace at said location being at least partially free of the solder resist layer and the testing pad being provided on the exposed portion of the trace. a plurality of traces (202, 204, 302, 304); a solder resist layer (208, 308, 504) covering the plurality of traces; an exposed portion for receiving the chip, the exposed portion being free of the solder resist layer and exposing portions of the plurality of traces for electrical connection with the chip; and a testing pad (210, 212, 214, 310) coupled to a trace from the plurality of traces, the testing pad being at least partially exposed and at least partially free of the solder resist layer and positioned at a location other than an end of the trace, an exposed portion of the trace at said location being at least partially free of the solder resist layer and the testing pad being provided on the exposed portion of the trace.
A method for producing an asphalt construction material for road and path construction, wherein an asphalt mixture is produced in a hot asphalt mix plant from mineral aggregates and bitumen and optionally a temperature-lowering additive, characterised - in that a bitumen-dissolving flux component and a solid wax component are added to the asphalt mixture as a reactive additive in a mix plant, the solid wax component contains a filler in the form of rock flour, talcum, cement, lime flour, gypsum, fly ash cement or slag flour from iron or steel production as a filler portion and a synthetic or natural wax as a wax portion, and - in that, optionally, an activator is added during or shortly before the installation of the asphalt construction material. - in that a bitumen-dissolving flux component and a solid wax component are added to the asphalt mixture as a reactive additive in a mix plant, the solid wax component contains a filler in the form of rock flour, talcum, cement, lime flour, gypsum, fly ash cement or slag flour from iron or steel production as a filler portion and a synthetic or natural wax as a wax portion, and - in that, optionally, an activator is added during or shortly before the installation of the asphalt construction material.
Method for detecting SPAM over Internet Telephony, SPIT, in a Voice over Internet Protocol, VoIP, system, wherein a communication path is established within the VoIP system by a VoIP communication flow between a caller and a callee, wherein at least two devices (3, 4, 8) are provided along the communication path, each said device (3, 4, 8) acting as inspection device that is enabled to inspect the VoIP communication flow that transits said inspection device for a SPIT attack, wherein each said inspection device forwards information about the result of its inspection to subsequent inspection devices along the communication path, wherein the results of said single inspections are provided in form of a score and/or a probability indicating maliciousness of the respective communication flow, wherein the results of said single inspections are accumulated along the communication path, wherein the accumulation of the results of said single inspections is performed by the way of computing a path-cumulative score and/or probability that is forwarded to the callee as an overall result for the VoIP communication flow.
Supply device for feeding transported goods laterally onto a conveying installation, having: - a drive roller; - at least one end roller; and - a plurality of conveyor belts, wherein the conveyor belts are disposed approximately along the supply direction and approximately in parallel next to one another, and wherein a belt length of the respective conveyor belts increases from a first lateral end portion of the supply device to a second lateral end portion of the supply device; wherein each of the end rollers is assigned one of the conveyor belts which encompasses the drive roller and the assigned end roller, and which is able to be driven by means of the drive roller; wherein each of the conveyor belts on the internal side thereof has a guide strip which is disposed approximately along a supply direction and which for laterally guiding the respective conveyor belt engages in a guide groove that is assigned to each guide strip; and wherein each of the guide grooves is configured in the drive roller and in the at least one end roller, characterized in that at least one friction-increasing element for increasing the friction between the respective conveyor belt and the drive roller is configured on the drive roller, and in that on the drive roller at least one receptacle for the friction-increasing element is configured on each side of the respective guide groove, and one friction-increasing element is in each case disposed in the respective receptacle. - a drive roller; - at least one end roller; and - a plurality of conveyor belts, wherein each of the end rollers is assigned one of the conveyor belts which encompasses the drive roller and the assigned end roller, and which is able to be driven by means of the drive roller; wherein each of the conveyor belts on the internal side thereof has a guide strip which is disposed approximately along a supply direction and which for laterally guiding the respective conveyor belt engages in a guide groove that is assigned to each guide strip; and wherein each of the guide grooves is configured in the drive roller and in the at least one end roller, characterized in that at least one friction-increasing element for increasing the friction between the respective conveyor belt and the drive roller is configured on the drive roller, and in that on the drive roller at least one receptacle for the friction-increasing element is configured on each side of the respective guide groove, and one friction-increasing element is in each case disposed in the respective receptacle.
An oligonucleotide which targets a Filaggrin natural antisense transcript for use as a therapeutic compound, wherein the oligonucleotide increases the expression of Filaggrin; wherein the Filaggrin natural antisense transcript has the nucleic acid sequence set forth in SEQ ID NO: 2, or a variant thereof which retains the function of the natural antisense transcript of SEQ ID NO: 2.
Glass holder for holding stemware for a rack of a dishwasher, having a goblet support for supporting a goblet of the stemware, which is designed to touch the goblet at only one point (P 1), and a stem holder for holding a stem of the stemware, characterised in that the stem holder can be moved along a base support of the glass holder.
A computer implemented method of determining a dimension of a gap between an edge of an aerofoil and a surface of an engine casing, the method comprising: receiving data generated by stereophotogrammetry apparatus and including a first image and a second image; generating a three dimensional model of the surface of the engine casing using the received data; identifying the edge of the aerofoil in the received data; determining a three dimensional position of a first location along the edge of the aerofoil in the received data using the identified edge; and determining a distance between the determined three dimensional position of the first location and the three dimensional model of the surface of the engine casing using an algorithm, wherein identifying the edge of the aerofoil includes: identifying one or more pairs of edges within the received data, the one or more pairs of edges defining one or more shadow images respectively, the one or more shadow images being caused by the aerofoil and the engine case being illuminated and the aerofoil casting a shadow on the engine case; and selecting a pair of edges from the one or more pairs of identified edges that satisfies at least one predetermined criterion. receiving data generated by stereophotogrammetry apparatus and including a first image and a second image; generating a three dimensional model of the surface of the engine casing using the received data; identifying the edge of the aerofoil in the received data; determining a three dimensional position of a first location along the edge of the aerofoil in the received data using the identified edge; and determining a distance between the determined three dimensional position of the first location and the three dimensional model of the surface of the engine casing using an algorithm, wherein identifying the edge of the aerofoil includes: identifying one or more pairs of edges within the received data, the one or more pairs of edges defining one or more shadow images respectively, the one or more shadow images being caused by the aerofoil and the engine case being illuminated and the aerofoil casting a shadow on the engine case; and selecting a pair of edges from the one or more pairs of identified edges that satisfies at least one predetermined criterion. identifying one or more pairs of edges within the received data, the one or more pairs of edges defining one or more shadow images respectively, the one or more shadow images being caused by the aerofoil and the engine case being illuminated and the aerofoil casting a shadow on the engine case; and selecting a pair of edges from the one or more pairs of identified edges that satisfies at least one predetermined criterion.
A resource determination method comprising: collecting, by a network functions virtualization orchestrator, NFVO, resource data from at least one of: a virtualized infrastructure manager, VIM, and a wide area network infrastructure manager, WIM; establishing, by the NFVO, a resource pool according to the collected resource data; receiving, by the NFVO, a lifecycle operation for a network service, NS; determining unifiedly, by the NFVO, resources required by performing the lifecycle operation for the NS, wherein the resources comprise: resources of a plurality of virtualized network functions, VNFs, and a VNF virtual link, VL, resource; and determining unifiedly and directly, by the NFVO, grant information of the determined resources according to the determined resources and current resource information of the resource pool. collecting, by a network functions virtualization orchestrator, NFVO, resource data from at least one of: a virtualized infrastructure manager, VIM, and a wide area network infrastructure manager, WIM; establishing, by the NFVO, a resource pool according to the collected resource data; receiving, by the NFVO, a lifecycle operation for a network service, NS; determining unifiedly, by the NFVO, resources required by performing the lifecycle operation for the NS, wherein the resources comprise: resources of a plurality of virtualized network functions, VNFs, and a VNF virtual link, VL, resource; and determining unifiedly and directly, by the NFVO, grant information of the determined resources according to the determined resources and current resource information of the resource pool.
Chip having a multiplicity of electrically addressable measurement regions, wherein a hydrophobic structure, in particular a hydrophobic layer, defining the measurement regions is provided on the chip surface, characterized in that the hydrophobic structure is formed three-dimensionally, that the hydrophobic structure separates the measurement regions from one another, that the hydrophobic structure is formed in a grid-like and/or honeycombed manner, that the hydrophobic structure has a layer thickness of 1 to 10 μm, that the hydrophobic structure, in particular the hydrophobic layer, is formed on the basis of a photoresist, wherein the coating composition employed for producing the coating is a photoresist or contains a photoresist, that the coating composition to form the hydrophobic structure, in particular the hydrophobic layer, is a solution or dispersion of at least one organic polymer, and wherein the polymer is obtainable by polymerisation or oligomerisation from acrylic acid, methacrylic acid, esters of acrylic acid with C 1 - to C 6 -alcohols, esters of methacrylic acid with C 1 - to C 6 -alcohols, styrene, cyclobutarenes and mixtures thereof, that the hydrophobic structure forms hydrophobic regions between the measurement regions and in that the regions have a width between the measurement regions of more than 20 μm, that the measurement regions have a diameter of from 50 to 500 μm.
An isolation valve, comprising: a solenoid-actuated valve; at least one port (14, 16) having a port extension (14a, 16a); a sensor assembly coupled to the port extension (14a, 16a), wherein the sensor assembly includes a printed circuit board, an integrated circuit disposed on the circuit board, and at least one pressure sensor coupled to said at least one port extension (14a, 16a) to measure a vapor pressure in said at least one port extension (14a 16a); wherein said at least one pressure sensor is disposed on a first side of the printed circuit board and the integrated circuit is disposed on a second side of the printed circuit board. a solenoid-actuated valve; at least one port (14, 16) having a port extension (14a, 16a); a sensor assembly coupled to the port extension (14a, 16a), wherein the sensor assembly includes a printed circuit board, an integrated circuit disposed on the circuit board, and at least one pressure sensor coupled to said at least one port extension (14a, 16a) to measure a vapor pressure in said at least one port extension (14a 16a); wherein said at least one pressure sensor is disposed on a first side of the printed circuit board and the integrated circuit is disposed on a second side of the printed circuit board.
A method of controlling radio transmission in a mobile network, the method comprising: a network node serving a cell of the mobile network indicating, to a user equipment in the cell, an offset value to be added to a channel quality value measured by the user equipment for triggering a handover from the cell to a further cell of the mobile network; the network node increasing the indicated offset value until a handover of the user equipment to the further cell is triggered; after the handover to the further cell, the network node receiving a request to protect radio resources of the downlink control, the request comprising an indication of a channel quality of a downlink control channel of the further cell as experienced by the user equipment, the indication including a recommendation for an adjusted offset value; and in response to the received indication of the channel quality of the downlink control channel, the network node protecting radio resources of the downlink control channel which are assigned to the user equipment and adjusting the offset value for the user equipment, based on the recommendation for an adjusted offset value. a network node serving a cell of the mobile network indicating, to a user equipment in the cell, an offset value to be added to a channel quality value measured by the user equipment for triggering a handover from the cell to a further cell of the mobile network; the network node increasing the indicated offset value until a handover of the user equipment to the further cell is triggered; after the handover to the further cell, the network node receiving a request to protect radio resources of the downlink control, the request comprising an indication of a channel quality of a downlink control channel of the further cell as experienced by the user equipment, the indication including a recommendation for an adjusted offset value; and in response to the received indication of the channel quality of the downlink control channel, the network node protecting radio resources of the downlink control channel which are assigned to the user equipment and adjusting the offset value for the user equipment, based on the recommendation for an adjusted offset value.
A drafting device for a spinning frame, wherein the drafting device includes a back top roller, a back bottom roller and a fiber bundle feed stopping device, the fiber bundle feed stopping device includes a stopping member provided with a wedge, the wedge is forced between the back top roller and the back bottom roller to block transmission of rotation from the back bottom roller to the back top roller and clamp a fiber bundle, which is fed to the drafting device, with the back top roller, the stopping member is configured to move between a fiber bundle release position that is where the stopping member is separated from the back top roller and a fiber bundle clamp position that is where the back top roller and the wedge clamp the fiber bundle, wherein the stopping member includes a combing portion located upstream of where the back top roller and the wedge clamp the fiber bundle, wherein the combing portion is configured to, when the stopping member is at the fiber bundle clamp position while the draft device is driven, pierce the fiber bundle and allow the fiber bundle to move through the combing portion, thereby combing and untwisting the fiber bundle.
A laminated rotor core including a plurality of band-shaped core sheets (11, 12) each having arc-shaped segment core sheets (15, 15a), the adjacent segment core sheets (15, 15a) connected together by a connecting portion (16, 16a) provided therebetween, each segment core sheet (15, 15a) having a plurality of pole sections (13, 14, 13a, 14a) protruding radially outward, the plurality of band-shaped core sheets (11, 12) being wound in a spiral form and laminated while being bent at the connecting portions (16, 16a) with the pole sections (13, 14, 13a, 14a) axially superimposed one on another, the laminated rotor core characterized by: joining portions (22, 22a) each joining the adjacent pole sections (13, 14, 13a, 14a) of each segment core sheet (15, 15a), the joining portions (22, 22a) located axially above and below each bent connecting portion (16, 16a), and notches (23, 23a) each receiving a bulge in the axial direction produced by bending the connecting portion (16, 16a), the notches (23, 23a) each provided at a radially outward side of each joining portion (22, 22a) and positioned in correspondence with each bent connecting portion (16, 16a). joining portions (22, 22a) each joining the adjacent pole sections (13, 14, 13a, 14a) of each segment core sheet (15, 15a), the joining portions (22, 22a) located axially above and below each bent connecting portion (16, 16a), and notches (23, 23a) each receiving a bulge in the axial direction produced by bending the connecting portion (16, 16a), the notches (23, 23a) each provided at a radially outward side of each joining portion (22, 22a) and positioned in correspondence with each bent connecting portion (16, 16a).
A method in which a carbon dioxide fraction is at least partially separated by a first gas scrubbing from a first gas stream which, in addition to the carbon dioxide contains an amount of methane produced by catalytic methanation, said catalytic methanation of a reactant gas being the source of the first gas stream, and at least a part of the carbon dioxide contained in a second methane-rich gas stream originating from a different source is separated in a second gas scrubbing, wherein the regeneration of the respective washing liquid for both gas scrubbings takes place together at the same location and wherein the carbon dioxide separated from the second gas stream is used to form the reactant gas.
A valve fixation device for fixing solenoid valves (8, 12) to a valve block, in particular a valve block for automated manual transmission, the fixation device comprising a plate body having a plurality of solenoid openings for granting access to said solenoid valves (8, 12), the valve fixation device being characterised by: at least a first leg at a first side of said plate body integrally formed with said plate body and extending substantially perpendicular with respect to said plate body, and at least a second leg at a second side of said plate body opposite said first side integrally formed with said plate body and extending substantially perpendicular with respect to said plate body, wherein said first leg comprises a first abutment surface for abutting against said valve block when in a mounted state, and said second leg comprises a second abutment surface for abutting against said valve block when in a mounted state, said first leg having a first length and said second leg having a second length for clamping said solenoid valves (8, 12) against said valve body, and wherein said at least first leg and said at least second leg are substantially parallel to each other. at least a first leg at a first side of said plate body integrally formed with said plate body and extending substantially perpendicular with respect to said plate body, and at least a second leg at a second side of said plate body opposite said first side integrally formed with said plate body and extending substantially perpendicular with respect to said plate body, wherein said first leg comprises a first abutment surface for abutting against said valve block when in a mounted state, and said second leg comprises a second abutment surface for abutting against said valve block when in a mounted state, said first leg having a first length and said second leg having a second length for clamping said solenoid valves (8, 12) against said valve body, and wherein said at least first leg and said at least second leg are substantially parallel to each other.
An injector device for percutaneously injecting biomaterial in the form of particles of different sizes or of a paste, comprising: · a trocar of generally cylindrical shape presenting an open first end with a sharp edge, the wall of said first end presenting at least one orifice (36, 38) for passing the biomaterial, and a second end that is likewise open; · a reservoir for receiving said biomaterial, the reservoir comprising a part of substantially cylindrical shape having two open ends (54, 56), said cylindrical part being capable of being inserted at least in a portion of the trocar via the second end thereof and presenting an inside diameter that is substantially constant over its entire length, the diameter of the inner wall of the open first end of the trocar and the diameter of the inner wall of the cylindrical part of the reservoir being substantially equal, and removable means (22, 24) for closing both ends of the reservoir; and · a piston insertable in said cylindrical part when said closure means are removed, said piston being capable of sliding in said cylindrical part over the entire length thereof and in the first end of the trocar. · a trocar of generally cylindrical shape presenting an open first end with a sharp edge, the wall of said first end presenting at least one orifice (36, 38) for passing the biomaterial, and a second end that is likewise open; · a reservoir for receiving said biomaterial, the reservoir comprising a part of substantially cylindrical shape having two open ends (54, 56), said cylindrical part being capable of being inserted at least in a portion of the trocar via the second end thereof and presenting an inside diameter that is substantially constant over its entire length, the diameter of the inner wall of the open first end of the trocar and the diameter of the inner wall of the cylindrical part of the reservoir being substantially equal, and removable means (22, 24) for closing both ends of the reservoir; and · a piston insertable in said cylindrical part when said closure means are removed, said piston being capable of sliding in said cylindrical part over the entire length thereof and in the first end of the trocar.