mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: means configured to compare a first partial radio map and a second partial radio map; means configured to determine to replace the first partial radio map with the second partial radio map based at least in part on a result of the comparison, wherein the comparing comprises determining a number of access points that are comprised in the first partial radio map but not comprised in the second partial radio map; and wherein the apparatus comprises means configured to determine to cause the first partial radio map to be replaced with the second partial radio map if the number of access points that are comprised in the first partial radio map but not comprised in the second partial radio map exceeds a threshold. means configured to compare a first partial radio map and a second partial radio map; means configured to determine to replace the first partial radio map with the second partial radio map based at least in part on a result of the comparison, wherein the comparing comprises determining a number of access points that are comprised in the first partial radio map but not comprised in the second partial radio map; and wherein the apparatus comprises means configured to determine to cause the first partial radio map to be replaced with the second partial radio map if the number of access points that are comprised in the first partial radio map but not comprised in the second partial radio map exceeds a threshold.
An attachment structure configured to attach a function component having a function of detecting a state of a tire to an inner surface of the tire, comprising: a pedestal formed of an elastic member, and including a pedestal lower surface bonded to the inner surface of the tire and a pedestal upper surface bonded to the function component and arranged opposite to the pedestal lower surface, wherein an adhesive length in a tire circumferential direction where the pedestal lower surface is bonded to the inner surface of the tire is equal to or less than 45 mm, when the pedestal is bonded to the inner surface of the tire, wherein a width (W 2) in a tire widthwise direction of the pedestal lower surface is between 100% to 150% of a width (W 1) of the pedestal upper surface in the tire widthwise direction characterised in that M 240 denotes a mass of the function component; H 240 denotes a height of center of gravity of the function component in a vertical direction relative to the inner surface of the tire; T 210 denotes a thickness of the pedestal in the vertical direction; R' denotes a radius of the tire; L 210 denotes the adhesive length; V denotes a target durability speed; τmax denotes a maximum shearing stress generated at an end of the pedestal lower surface; A', B', and C' denote coefficients; D 130 denotes a depth from the inner surface of the tire to a reinforcement layer arranged to the tire in the vertical direction; and L 210 is equal to or more than a value that satisfies a relationship of τmax/(A'x C')=(H 240 + T 210 + D 130) x V 2 /R' x M 240 x EXP(-B' x L 210). a pedestal formed of an elastic member, and including a pedestal lower surface bonded to the inner surface of the tire and a pedestal upper surface bonded to the function component and arranged opposite to the pedestal lower surface, wherein an adhesive length in a tire circumferential direction where the pedestal lower surface is bonded to the inner surface of the tire is equal to or less than 45 mm, when the pedestal is bonded to the inner surface of the tire, wherein a width (W 2) in a tire widthwise direction of the pedestal lower surface is between 100% to 150% of a width (W 1) of the pedestal upper surface in the tire widthwise direction characterised in that M 240 denotes a mass of the function component; H 240 denotes a height of center of gravity of the function component in a vertical direction relative to the inner surface of the tire; T 210 denotes a thickness of the pedestal in the vertical direction; R' denotes a radius of the tire; L 210 denotes the adhesive length; V denotes a target durability speed; τmax denotes a maximum shearing stress generated at an end of the pedestal lower surface; A', B', and C' denote coefficients; D 130 denotes a depth from the inner surface of the tire to a reinforcement layer arranged to the tire in the vertical direction; and L 210 is equal to or more than a value that satisfies a relationship of τmax/(A'x C')=(H 240 + T 210 + D 130) x V 2 /R' x M 240 x EXP(-B' x L 210).
A method for packaging a plurality of containers in a flexible carrier, the method comprising: providing a flexible carrier having a plurality of bands defining a corresponding plurality of container receiving openings, wherein each container of the plurality of containers is positioned in a respective container receiving opening; providing a series of frangible lines of separation between each container receiving opening; wherein each receiving opening includes a longitudinal frangible line of separation and a transverse frangible line of separation, wherein the frangible lines of separation comprise a plurality of closely spaced perforations that extend laterally relative to a longitudinal direction of the carrier; and removing a container from the package resulting in the separation of the frangible lines of separation defining the respective container receiving opening, wherein the container and a respective band of the plurality of bands are removed from the package together, characterized in that the closely spaced perforations are graduated longer toward each end of each opening. providing a flexible carrier having a plurality of bands defining a corresponding plurality of container receiving openings, wherein each container of the plurality of containers is positioned in a respective container receiving opening; providing a series of frangible lines of separation between each container receiving opening; wherein each receiving opening includes a longitudinal frangible line of separation and a transverse frangible line of separation, wherein the frangible lines of separation comprise a plurality of closely spaced perforations that extend laterally relative to a longitudinal direction of the carrier; and removing a container from the package resulting in the separation of the frangible lines of separation defining the respective container receiving opening, wherein the container and a respective band of the plurality of bands are removed from the package together, characterized in that the closely spaced perforations are graduated longer toward each end of each opening.
A protective device, particularly for a lock of a door or leaf, comprising a covering element which is associated slidingly with a plate that can be fixed to said door or leaf and can be positioned selectively so as to close an opening for access to said lock which is provided in said plate, two pins (8a, 8b) being associated transversely with said plate and being adapted to block temporarily the sliding of said covering element with respect to said plate, characterized in that said pins (8a, 8b) interact with the arms of a rotor, which is associated rotatably, in contrast with at least one elastically deformable means, within a cavity provided in said plate, pivots protruding from said rotor and cooperating selectively with at least three cams, which are freely associated rotatably adjacent or proximate to a surface of said cavity, said at least three cams having an axis that lies at the vertices of a polygon and interacting with a magnet-based combination element which is adapted to modify the angular position of said at least three cams in order to allow or prevent the rotation of said rotor and therefore the temporary mutual release of said pins (8a, 8b) and said covering element.
A method for coexisting wireless communication systems, comprising: detecting, by a user equipment, interference for the user equipment operable on a communication system from another communication system, wherein said communication system employs scheduled communication resources and said another communication system employs contention-based resources; providing, by the user equipment, an indication of said interference to a base station, receiving, by the user equipment, an indication of a relocation of at least a portion of a control channel from a beginning of a subframe towards an end of the subframe or of a repetition of the control channel at the end of the subframe in response to said indication of said interference. detecting, by a user equipment, interference for the user equipment operable on a communication system from another communication system, wherein said communication system employs scheduled communication resources and said another communication system employs contention-based resources; providing, by the user equipment, an indication of said interference to a base station, receiving, by the user equipment, an indication of a relocation of at least a portion of a control channel from a beginning of a subframe towards an end of the subframe or of a repetition of the control channel at the end of the subframe in response to said indication of said interference.
A top loading washing machine comprising: a housing; a tub disposed inside the housing and having a laundry loading port; and a door configured to open and close the laundry loading port, characterized in that the door includes: a water collecting space provided to collect water flowing along one surface of the door when the laundry loading port is opened; a water collecting cover portion provided to cover at least a portion of the water collecting space; and a door cover and a cover holder on which the door cover is mounted and including the water collecting cover portion, wherein a portion of the door cover is spaced apart from the water collecting cover portion by a predetermined distance to form an inflow gap such that the water flows into the water collecting space. a housing; a tub disposed inside the housing and having a laundry loading port; and a door configured to open and close the laundry loading port, characterized in that the door includes: a water collecting space provided to collect water flowing along one surface of the door when the laundry loading port is opened; a water collecting cover portion provided to cover at least a portion of the water collecting space; and a water collecting space provided to collect water flowing along one surface of the door when the laundry loading port is opened; a water collecting cover portion provided to cover at least a portion of the water collecting space; and a door cover and a cover holder on which the door cover is mounted and including the water collecting cover portion, wherein a portion of the door cover is spaced apart from the water collecting cover portion by a predetermined distance to form an inflow gap such that the water flows into the water collecting space.
A method for recovering rhenium from a catalyst containing rhenium and at least silver on a solid support, the method comprising extracting from the catalyst at least a substantial portion of the rhenium by intimate contact of the catalyst with one or more polar non-acidic organic solvents substantially free of water such that a rhenium-containing solution is formed containing said polar non-acidic organic solvent and extracted rhenium, wherein said polar non-acidic organic solvent contains one or more oxygen, nitrogen, and/or halogen atoms and at least one carbon atom in its molecular structure.
A method of treating a hydrocarbon containing formation, wherein the hydrocarbon containing formation is a crude oil-bearing formation wherein the amount of asphaltenes in the crude oil is of from 0.001 to 6 wt.%, based on total crude oil composition, comprising: (a) providing a composition to at least a portion of the hydrocarbon containing formation, wherein the composition comprises water and an anionic surfactant which is an internal olefin sulfonate, which has a weight ratio of branched IOS molecules to linear IOS molecules which is of from 0.1:99.9 to 8:92, wherein the average carbon number for the IOS is 17 to 26, wherein the branching index of the IOS is of from 0.01 to 0.5, wherein the branching index is the total number of branches divided by the total number of molecules, and wherein the IOS comprises from 40% to 95% hydroxyalkane sulfonate molecules, from 5% to 50% alkene sulfonate molecules and from 0% to 10% di-sulfonate molecules; and (b) allowing the composition to interact with the hydrocarbons in the hydrocarbon containing formation. (a) providing a composition to at least a portion of the hydrocarbon containing formation, wherein the composition comprises water and an anionic surfactant which is an internal olefin sulfonate, which has a weight ratio of branched IOS molecules to linear IOS molecules which is of from 0.1:99.9 to 8:92, wherein the average carbon number for the IOS is 17 to 26, wherein the branching index of the IOS is of from 0.01 to 0.5, wherein the branching index is the total number of branches divided by the total number of molecules, and wherein the IOS comprises from 40% to 95% hydroxyalkane sulfonate molecules, from 5% to 50% alkene sulfonate molecules and from 0% to 10% di-sulfonate molecules; and (b) allowing the composition to interact with the hydrocarbons in the hydrocarbon containing formation.
Casting and rolling plant for producing hot strip (230-1, 230-2), with a first casting line having a first mould for producing a first cast strip, a first strip guide, which is downstream of the first mould in casting direction, for deflecting the cast strip from the vertical to the horizontal, a first reducing stand for reducing the thickness of the first cast strip and a first casting platform which covers the first strip guide and at least parts of the first reducing stand; a second casting line having a second mould (112-2 for producing a second cast strip, a second strip guide, which is downstream of the second mould in casting direction, for deflecting the second cast strip from the vertical to the horizontal, a second reducing stand for reducing the thickness of the second cast strip and a second casting platform which covers the second strip guide and at least parts of the second reducing stand; at least one distributor device for supplying the first and second moulds (112-1, 112-2) with metal melts; and a roll change device for changing the rolls of the first and second reducing stands (116-1, 116-2); wherein the two casting lines are arranged parallelly to and at a spacing from one another; characterised in that the first and second reducing stands (116-1, 116-2) are installed in such a way that the operating sides (BS-1; BS-2) thereof are each disposed in the intermediate space between the two casting lines (110-1, 110-2); and the roll change device is constructed in the form of a turntable and is arranged in the intermediate space between the two casting lines at a level between the two reducing stands (116-1, 116-2).
An abrasive grain on the basis of electrofused aluminum oxide with a surface coating comprising titanium oxide and/or carbon, wherein compounds formed of titanium oxide particles and/or carbon particles at the abrasive grain surface by means of a temperature treatment are tightly connected to the abrasive grain surface, characterized in that a direct tight bond without an additional binding agent is formed between the abrasive grain surface and the titanium oxide and/or carbon particles comprising an average particle size of between 0.01 μm and 10 μm.
A wearable device for continuous monitoring of the respiratory rate of a patient, comprising: three inertial sensors (10, 11, 12), a first inertial sensor being positioned on the abdomen, a second inertial sensor being positioned on the thorax, and a third, reference, inertial sensor being positioned on a part of the body not subject to respiratory movements, fixed with respect to the torso, each inertial sensor (10, 11, 12) comprising an accelerometer, a magnetometer, and a gyroscope, each inertial sensor (10, 11, 12) comprising a microprocessor connected to said accelerometer, magnetometer, and gyroscope, said microprocessor being connected to a transmitter, and being configured for processing said signals and for supplying to said transmitter a signal represented by a quaternion that describes the orientation of said three inertial sensors with respect to the Earth's reference system; a receiver connected to a control centre and configured for receiving the abdominal quaternion of the first inertial sensor, the thoracic quaternion of the second inertial sensor, and the reference quaternion of the third inertial sensor, and for sending them to said control centre, said control centre being configured for processing the quaternions received so that the abdominal quaternion and the thoracic quaternion will be referenced to the reference quaternion, said control centre comprising a band-pass adaptive filter (55, 56), which filters the signals represented by the abdominal quaternion and by the thoracic quaternion to eliminate the residual components linked to the movements of the patient, said control centre being configured for calculating respiratory rate from the signals represented by the filtered abdominal quaternion and by the filtered thoracic quaternion.
A system (100, 200) for treating valvular regurgitation in a heart valve, the system (100, 200) including a delivery configuration and a deployed configuration, the system (100, 200) comprising: a flexible canopy (102, 202) including a first surface and a second surface opposite the first surface; and an elongated tether (104, 204) configured to be placed under tension in situ, the elongated tether (104, 204) including an elastic portion (124, 224) and an inelastic portion (126, 226) coupled to the elastic portion (124, 224), wherein the elastic portion (124, 224) is at least as long as the inelastic portion (126, 226) and a proximal end of the elongated tether (104, 204) is attached to a distal end (108, 208) of the flexible canopy (102, 202), wherein when the system (100, 200) is in the deployed configuration, a proximal end (106, 206) of the flexible canopy (102, 202) is anchored to an annulus of the heart valve and a distal end of the elongated tether (104, 204) is anchored to tissue of a ventricle such that the first surface of the flexible canopy (102, 202) overlays an underlying first surface of a first leaflet of the heart valve, and the elongated tether (104, 204) is placed under tension such that the system (100, 200) is configured to prevent the first leaflet of the heart valve from prolapsing, and to permit a portion of the second surface of the flexible canopy (102, 202) to coapt with at least an opposing mating portion of a second leaflet of the heart valve. a flexible canopy (102, 202) including a first surface and a second surface opposite the first surface; and an elongated tether (104, 204) configured to be placed under tension in situ, the elongated tether (104, 204) including an elastic portion (124, 224) and an inelastic portion (126, 226) coupled to the elastic portion (124, 224), wherein the elastic portion (124, 224) is at least as long as the inelastic portion (126, 226) and a proximal end of the elongated tether (104, 204) is attached to a distal end (108, 208) of the flexible canopy (102, 202), wherein when the system (100, 200) is in the deployed configuration, a proximal end (106, 206) of the flexible canopy (102, 202) is anchored to an annulus of the heart valve and a distal end of the elongated tether (104, 204) is anchored to tissue of a ventricle such that the first surface of the flexible canopy (102, 202) overlays an underlying first surface of a first leaflet of the heart valve, and the elongated tether (104, 204) is placed under tension such that the system (100, 200) is configured to prevent the first leaflet of the heart valve from prolapsing, and to permit a portion of the second surface of the flexible canopy (102, 202) to coapt with at least an opposing mating portion of a second leaflet of the heart valve.
An optically variable security element (12, 40) for securing value objects, with a substrate, a dark background layer (22, 42) arranged on the substrate and an optically variable ink-layer structure arranged above the background layer, said ink-layer structure comprising a first effect layer (26, 44) and a second effect layer (28, 48), wherein the first effect layer is arranged on the background layer and contains effect pigments that are reversibly orientable by an external magnetic field, and wherein the second effect layer represents an optically variable layer which is arranged on and/or next to the first effect layer, characterized in that the second effect layer contains effect pigments that are also reversibly orientable by an external magnetic field, said effect pigments enhancing the optical effect of the reversibly orientable effect pigments of the first effect layer.
An apparatus comprising a processing unit configured to perform processing of transmission signals using a first CQI table related to combinations of CQI indexes, modulation schemes, coding rates according to the LTE standard, also referred to as current coding rates, and new coding rates defined in the first CQI table, wherein, for each CQI index of the first CQI table, a new coding rate is equal to or less than a corresponding coding rate of the same CQI index, and for each CQI index of the first CQI table, a modulation scheme is at least one of QPSK, 16-quadrature-amplitude modulation, 16QAM, and 64-quadrature-amplitude modulation, 64QAM, such that said first CQI table is defined by the following structure and content: CQI index Modulation scheme Current coding rate New coding rate 1 QPSK 0.076172 0.076172 2 QPSK 0.1172 0.093 3 QPSK 0.1885 0.117 4 QPSK 0.3008 0.151 5 QPSK 0.4385 0.182 6 QPSK 0.5879 0.2275 7 16QAM 0.3691 0.13025 8 16QAM 0.4785 0.16125 9 16QAM 0.6016 0.19425 10 64QAM 0.4551 0.14255 11 64QAM 0.5337 0.16765 12 64QAM 0.6540 0.20215 13 64QAM 0.7540 0.23515 14 64QAM 0.8525 0.26725 15 64QAM 0.9258 0.30205 a processing unit configured to perform processing of transmission signals using a first CQI table related to combinations of CQI indexes, modulation schemes, coding rates according to the LTE standard, also referred to as current coding rates, and new coding rates defined in the first CQI table, wherein, for each CQI index of the first CQI table, a new coding rate is equal to or less than a corresponding coding rate of the same CQI index, and for each CQI index of the first CQI table, a modulation scheme is at least one of QPSK, 16-quadrature-amplitude modulation, 16QAM, and 64-quadrature-amplitude modulation, 64QAM, such that said first CQI table is defined by the following structure and content: CQI index Modulation scheme Current coding rate New coding rate 1 QPSK 0.076172 0.076172 2 QPSK 0.1172 0.093 3 QPSK 0.1885 0.117 4 QPSK 0.3008 0.151 5 QPSK 0.4385 0.182 6 QPSK 0.5879 0.2275 7 16QAM 0.3691 0.13025 8 16QAM 0.4785 0.16125 9 16QAM 0.6016 0.19425 10 64QAM 0.4551 0.14255 11 64QAM 0.5337 0.16765 12 64QAM 0.6540 0.20215 13 64QAM 0.7540 0.23515 14 64QAM 0.8525 0.26725 15 64QAM 0.9258 0.30205
Wiper blade comprising a resilient support rail and a wiper strip which is fastened to the support rail, wherein the wiper strip has a wiper lip with a substantially rigid cross-sectional structure and the wiper lip is mounted in cross section between a first bending region and a second bending region, wherein the first bending region and/or the second bending region has at least one first support shoulder for supporting the wiper lip, wherein the wiper lip has a substantially triangular shape, characterized in that the wiper lip has in cross section a first incision at the level of the first support shoulder, said incision being intended to receive the first support shoulder during operation.