mhurhangee/ep-ind-claims huggingface dataset:
Pneumatic vehicle tyre for passenger cars of a radial type of construction, with a belt assembly comprising multiple belt plies, with a largely air-impermeable inner layer, with a profiled tread, with bead regions each having at least one bead core, with sidewalls each having at least one sidewall strip and with a single-ply carcass having textile reinforcing elements, which are arranged substantially parallel to one another within the ply and are embedded in elastomeric material, wherein the carcass runs through the tyre from bead region to bead region, wraps around the bead regions from the axial inside to the axial outside and is configured as a carcass turn-up, wherein the end of the carcass turn-up is arranged at a height that lies radially above the bead region, wherein the height of the end of the carcass turn-up is arranged in a first height region from 18 mm to 37 mm, preferably from 20 mm to 30 mm, and in that the height of the radial outer end of the bead region is arranged in a second height region from 13 mm to 21 mm, preferably from 15 mm to 18 mm, measured in each case from the lower edge of the bead core in the radial direction (rR), characterized in that the pneumatic vehicle tyre has a nominal sidewall height of 115 mm or less, and the bead region has axially outside the carcass precisely two components (13, 8) - a bead strip and a sidewall strip - which are formed from an elastomeric material, and each of the components (8, 13) is formed at least in the bead region from precisely one elastomeric material mixture, wherein the sidewall strip and the bead strip adjoin one another in a boundary line, wherein the boundary line - considered in the cross section of the tyre - • ends axially on the outside at a height of 20 mm to 30 mm, preferably of 22 mm to 28 mm, and • ends axially on the inside at a height of 0 mm to 20 mm, preferably of 12 mm 18 mm, • wherein the heights of the axial ends are measured from the lower edge of the bead core in the radial direction. • ends axially on the outside at a height of 20 mm to 30 mm, preferably of 22 mm to 28 mm, and • ends axially on the inside at a height of 0 mm to 20 mm, preferably of 12 mm 18 mm, • wherein the heights of the axial ends are measured from the lower edge of the bead core in the radial direction.
A computer-implemented method for material analysis, wherein the material comprises particles with two or more phases where the different phases have chemistries with insignificant density differences, and amorphous or crystalline states, the method comprising: obtaining a set of x-ray projections containing absorption and phase information for reconstruction of a tomography of a sample; reconstructing the set of x-ray projections into a first reconstructed volume dataset; obtaining morphological edge information from the first reconstructed volume dataset; and classifying particles within the sample based on a combined dataset; wherein before classifying the particles, the method further comprises one of: - performing differential absorption contrast enhancement on the set of x-ray projections, obtaining a second reconstructed volume dataset, and combining the first and second reconstructed volume datasets into the combined data set; - performing diffraction contrast tomography, obtaining a second reconstructed volume dataset, and combining the first and second reconstructed volume datasets into the combined dataset; or - performing x-ray fluorescence to detect different elements to create elemental maps, and combining the maps with the first reconstructed volume dataset into the combined dataset. obtaining a set of x-ray projections containing absorption and phase information for reconstruction of a tomography of a sample; reconstructing the set of x-ray projections into a first reconstructed volume dataset; obtaining morphological edge information from the first reconstructed volume dataset; and classifying particles within the sample based on a combined dataset; wherein before classifying the particles, the method further comprises one of: - performing differential absorption contrast enhancement on the set of x-ray projections, obtaining a second reconstructed volume dataset, and combining the first and second reconstructed volume datasets into the combined data set; - performing diffraction contrast tomography, obtaining a second reconstructed volume dataset, and combining the first and second reconstructed volume datasets into the combined dataset; or - performing x-ray fluorescence to detect different elements to create elemental maps, and combining the maps with the first reconstructed volume dataset into the combined dataset. - performing differential absorption contrast enhancement on the set of x-ray projections, obtaining a second reconstructed volume dataset, and combining the first and second reconstructed volume datasets into the combined data set; - performing diffraction contrast tomography, obtaining a second reconstructed volume dataset, and combining the first and second reconstructed volume datasets into the combined dataset; or - performing x-ray fluorescence to detect different elements to create elemental maps, and combining the maps with the first reconstructed volume dataset into the combined dataset.
An implantable medical device comprising: an electrode connecting arrangement connectable to multiple electrodes (312, 314, 322, 324, 332-338, 342) of which at least one is being arranged on a cardiac lead (310, 320, 330) connectable to said electrode connecting arrangement; a signal generator for generating an electric signal applicable over a portion of a heart by a pair of electrodes (314, 338) of said multiple electrodes (312, 314, 322, 324, 332-338, 342); an impedance processor for determining, based on said electric signal and a resulting electric signal measured over a portion of said heart by a pair of electrodes (312, 332) of said multiple electrodes (312, 314, 322, 324, 332-338, 342), impedance data reflective of a transvalvular impedance of a valve (11, 13, 15, 17) of said heart during at least one heart cycle; and a representation processor for estimating a diastolic transvalvular impedance representation and a systolic transvalvular impedance representation based on said impedance data, characterized by: a condition processor for determining presence of a regurgitation or stenosis condition of said valve (11, 13, 15, 17) based on said diastolic transvalvular impedance representation and said systolic transvalvular impedance representation. an electrode connecting arrangement connectable to multiple electrodes (312, 314, 322, 324, 332-338, 342) of which at least one is being arranged on a cardiac lead (310, 320, 330) connectable to said electrode connecting arrangement; a signal generator for generating an electric signal applicable over a portion of a heart by a pair of electrodes (314, 338) of said multiple electrodes (312, 314, 322, 324, 332-338, 342); an impedance processor for determining, based on said electric signal and a resulting electric signal measured over a portion of said heart by a pair of electrodes (312, 332) of said multiple electrodes (312, 314, 322, 324, 332-338, 342), impedance data reflective of a transvalvular impedance of a valve (11, 13, 15, 17) of said heart during at least one heart cycle; and a representation processor for estimating a diastolic transvalvular impedance representation and a systolic transvalvular impedance representation based on said impedance data, characterized by: a condition processor for determining presence of a regurgitation or stenosis condition of said valve (11, 13, 15, 17) based on said diastolic transvalvular impedance representation and said systolic transvalvular impedance representation. a condition processor for determining presence of a regurgitation or stenosis condition of said valve (11, 13, 15, 17) based on said diastolic transvalvular impedance representation and said systolic transvalvular impedance representation.
A method for a server apparatus for distributing across a network a printer driver program, for controlling a printing device (150, 160), to a client apparatus (300, 310), comprising: a designation step of designating range information using address information; characterized by: a search step of searching for a plurality of printing devices (150, 160) connected to the network and obtaining address information of each of the plurality of printing devices (150, 160); a determination step of determining whether or not the obtained address information of each of the plurality of printing devices (150, 160) searched in the search step corresponds to the range information designated in the designation step; and a distribution step of distributing a plurality of printer driver programs to the client apparatus (300, 310), for controlling the plurality of printing devices (150, 160), in a case where the address information of each of the plurality of printing devices corresponds to the range information based on a result determined in the determination step. a designation step of designating range information using address information; characterized by: a search step of searching for a plurality of printing devices (150, 160) connected to the network and obtaining address information of each of the plurality of printing devices (150, 160); a determination step of determining whether or not the obtained address information of each of the plurality of printing devices (150, 160) searched in the search step corresponds to the range information designated in the designation step; and a distribution step of distributing a plurality of printer driver programs to the client apparatus (300, 310), for controlling the plurality of printing devices (150, 160), in a case where the address information of each of the plurality of printing devices corresponds to the range information based on a result determined in the determination step. a search step of searching for a plurality of printing devices (150, 160) connected to the network and obtaining address information of each of the plurality of printing devices (150, 160); a determination step of determining whether or not the obtained address information of each of the plurality of printing devices (150, 160) searched in the search step corresponds to the range information designated in the designation step; and a distribution step of distributing a plurality of printer driver programs to the client apparatus (300, 310), for controlling the plurality of printing devices (150, 160), in a case where the address information of each of the plurality of printing devices corresponds to the range information based on a result determined in the determination step.
An offset calculation device for processing three-axis or two-axis magnetism detection data sequentially acquired as data points in a three-axis or two-axis coordinate system, the offset calculation device being configured to translate N data points (where N ≥ 2) evenly such that one reference data point arbitrarily selected from the N data points coincides with an origin to derive (N-1) virtual data points except for the reference data point, calculate a virtual offset point that minimizes a sum of distances from a curved surface or curved line passing through the origin to the virtual data points respectively, and calculate offset values for the magnetism detection data by translating the virtual offset point inversely to previous translation.
A kit (10, 30, 50) for use during open surgery that decreases the risk that foreign objects used in surgery will be unintentionally retained inside the subject of the surgery, the device comprising: (a) two or more foreign objects (12, 32, 52); (b) a junction member (20, 40, 60) providing a point of connection for the foreign objects; (c) an anchoring member (22, 42, 62), the anchoring member attachable to a point outside of the subject of the surgery; and (d) at least one or more connection members (14, 34, 54) connecting the foreign objects to the junction member and a single connection member (24, 44, 64) extending between the junction member and the anchoring member. (a) two or more foreign objects (12, 32, 52); (b) a junction member (20, 40, 60) providing a point of connection for the foreign objects; (c) an anchoring member (22, 42, 62), the anchoring member attachable to a point outside of the subject of the surgery; and (d) at least one or more connection members (14, 34, 54) connecting the foreign objects to the junction member and a single connection member (24, 44, 64) extending between the junction member and the anchoring member.
A high volume low pressure spray end effector (204, 304, 400) for a robotic arm (268, 306), the high volume low pressure spray end effector (204, 304, 400) comprising: a connection arm (206, 406) comprising a housing (210, 604) with flexible conduits (214, 602) running through the housing (210, 604), wherein a cross-section of the connection arm (206, 406) is configured to maneuver a monolithic spray head (208, 408) within tight areas of enclosures; the spray head (208, 408) with integral channels (216, 606) configured to receive air and a fluid from the flexible conduits (214, 602) and deliver the air and the fluid to a number of outlets (220, 508), wherein the number of outlets (220, 508) comprises a first outlet (222, 510) and a second outlet (224, 512) connected to the integral channels (216, 606), the high volume low pressure spray end effector (204, 304, 400) further comprises a respective nozzle (226, 230, 514, 518) and aircap (228, 230, 516, 520) for each of the first outlet (222, 510) and the second outlet (224, 512), and a quantity of the flexible conduits (214, 602) is at least six, including two of the flexible conduits (214, 602) configured to provide air to the first outlet (222, 510), one of the flexible conduits configured to provide fluid to the first outlet (222, 510), two of the flexible conduits configured to provide air to the second outlet (224, 512), and one of the flexible conduits (214, 602) configured to provide fluid to the second outlet (224, 512). a connection arm (206, 406) comprising a housing (210, 604) with flexible conduits (214, 602) running through the housing (210, 604), wherein a cross-section of the connection arm (206, 406) is configured to maneuver a monolithic spray head (208, 408) within tight areas of enclosures; the spray head (208, 408) with integral channels (216, 606) configured to receive air and a fluid from the flexible conduits (214, 602) and deliver the air and the fluid to a number of outlets (220, 508), wherein the number of outlets (220, 508) comprises a first outlet (222, 510) and a second outlet (224, 512) connected to the integral channels (216, 606), the high volume low pressure spray end effector (204, 304, 400) further comprises a respective nozzle (226, 230, 514, 518) and aircap (228, 230, 516, 520) for each of the first outlet (222, 510) and the second outlet (224, 512), and a quantity of the flexible conduits (214, 602) is at least six, including two of the flexible conduits (214, 602) configured to provide air to the first outlet (222, 510), one of the flexible conduits configured to provide fluid to the first outlet (222, 510), two of the flexible conduits configured to provide air to the second outlet (224, 512), and one of the flexible conduits (214, 602) configured to provide fluid to the second outlet (224, 512).
Fire door for closing an opening of a traffic tunnel, comprising a door leaf which is formed from a thermally insulating inner body and a casing which encloses the inner body at least in the region of the surfaces of the inner body that face the outer surfaces (4, 5) of the door leaf, characterized in that the casing is made of a mineral cast material, and a reinforcement designed in a lattice-shaped manner is embedded in the casing.
An apparatus for applying RF energy to an object (103, 902) in a cavity (110, 210, 310, 710, 904), the apparatus comprising: a plurality of pairs of radiating ports (906, 908), each pair comprising two radiating ports (134, 906a, 906b, 908a, 908b) configured to emit RF radiation into the cavity coherently with each other; and a plurality of electrically conductive elements (109C, 111C, 140, 240, 340, 345, 740, 910, 912), each positioned between two radiating ports constituting a pair of radiating ports, wherein the electrically conductive elements are arranged such that RF radiation emitted by the plurality of pairs of radiating ports concentrates closer to the center of the cavity than in the absence of the electrically conductive elements. a plurality of pairs of radiating ports (906, 908), each pair comprising two radiating ports (134, 906a, 906b, 908a, 908b) configured to emit RF radiation into the cavity coherently with each other; and a plurality of electrically conductive elements (109C, 111C, 140, 240, 340, 345, 740, 910, 912), each positioned between two radiating ports constituting a pair of radiating ports, wherein the electrically conductive elements are arranged such that RF radiation emitted by the plurality of pairs of radiating ports concentrates closer to the center of the cavity than in the absence of the electrically conductive elements.
A network congestion control method, comprising: obtaining, by a mobility management entity, MME, congestion information of a radio access network, RAN; configuring, by the MME a frequency selection priority of user equipment, UE, based on the congestion information of the RAN; and sending, by the MME to the RAN, a selection priority identifier, SPID, corresponding to the frequency selection priority, wherein the SPID is used by the RAN to perform access control on the UE based on the SPID, wherein the obtaining, by the MME, congestion information of the RAN comprises: receiving, by the MME, congestion information of the RAN from a radio access network congestion awareness function, RCAF, wherein the congestion information of the RAN comprises a first access network user plane congestion information, RUCI, report and a network congestion level list, and the first RUCI comprises RUCI of all RANs managed by the MME, and wherein the configuring, by the MME the frequency selection priority of the UE based on the congestion information of the RAN comprises: adjusting, by the MME, the frequency selection priority of the UE based on the first RUCI report and the network congestion level list. obtaining, by a mobility management entity, MME, congestion information of a radio access network, RAN; configuring, by the MME a frequency selection priority of user equipment, UE, based on the congestion information of the RAN; and sending, by the MME to the RAN, a selection priority identifier, SPID, corresponding to the frequency selection priority, wherein the SPID is used by the RAN to perform access control on the UE based on the SPID, wherein the obtaining, by the MME, congestion information of the RAN comprises: receiving, by the MME, congestion information of the RAN from a radio access network congestion awareness function, RCAF, wherein the congestion information of the RAN comprises a first access network user plane congestion information, RUCI, report and a network congestion level list, and the first RUCI comprises RUCI of all RANs managed by the MME, and wherein the configuring, by the MME the frequency selection priority of the UE based on the congestion information of the RAN comprises: adjusting, by the MME, the frequency selection priority of the UE based on the first RUCI report and the network congestion level list. receiving, by the MME, congestion information of the RAN from a radio access network congestion awareness function, RCAF, wherein the congestion information of the RAN comprises a first access network user plane congestion information, RUCI, report and a network congestion level list, and the first RUCI comprises RUCI of all RANs managed by the MME, and wherein the configuring, by the MME the frequency selection priority of the UE based on the congestion information of the RAN comprises: adjusting, by the MME, the frequency selection priority of the UE based on the first RUCI report and the network congestion level list.
A method of processing a signal, the method comprising: obtaining a channel estimate for a first signal of a cell, the channel estimate comprising a plurality of taps; removing certain taps from the channel estimate; if a combined power of taps of the channel estimate after removing certain taps that define a to be measured channel is less than a certain threshold below an amount based on a total power of the first signal, discarding the channel estimate for the cell and/or reporting a minimum reportable receive power and /or processing a very small value, wherein removing certain taps from the channel estimate comprises using a regression approach to differentiate between the taps to be removed and the taps not to be removed and wherein using a regression approach comprises: sorting the plurality of taps into a sorted list; performing a linear regression on a subset of taps in a sorted list representing interference and noise to produce a regression result comprising a square or linear function describing a noise/interference signature; and removing taps that are not large enough compared to the regression result as defined by a threshold. obtaining a channel estimate for a first signal of a cell, the channel estimate comprising a plurality of taps; removing certain taps from the channel estimate; if a combined power of taps of the channel estimate after removing certain taps that define a to be measured channel is less than a certain threshold below an amount based on a total power of the first signal, discarding the channel estimate for the cell and/or reporting a minimum reportable receive power and /or processing a very small value, wherein removing certain taps from the channel estimate comprises using a regression approach to differentiate between the taps to be removed and the taps not to be removed and wherein using a regression approach comprises: sorting the plurality of taps into a sorted list; performing a linear regression on a subset of taps in a sorted list representing interference and noise to produce a regression result comprising a square or linear function describing a noise/interference signature; and removing taps that are not large enough compared to the regression result as defined by a threshold.