mhurhangee/ep-ind-claims huggingface dataset:
A method for performing a handover procedure in a wireless communication system, the method performed by a target eNodeB, eNB, and comprising: receiving, by the target eNB, a handover request message including a device context of a master User Equipment, UE, and a device context of a companion UE from a source eNB, wherein the device context of the master UE is related to a measurement report of the master UE and the device context of the companion UE is related to a measurement report of the companion UE, wherein the master UE is directly connected with the source eNB, wherein the companion UE, which is a wearable device, is indirectly connected with the source eNB via the master UE, wherein the master UE is not the wearable device, and wherein the companion UE is connected to any eNBs via the master UE by relay based connection; and determining, by the target eNB, a relationship between the master UE and the companion UE based on both the device context of the master UE and the device context of the companion UE, wherein the relationship between the master UE and the companion UE is determined to be a pair, and wherein based on that the relationship between the master UE and the companion UE is determined to be the pair, the master UE and the companion UE are handed over together to the target eNB. receiving, by the target eNB, a handover request message including a device context of a master User Equipment, UE, and a device context of a companion UE from a source eNB, wherein the device context of the master UE is related to a measurement report of the master UE and the device context of the companion UE is related to a measurement report of the companion UE, wherein the master UE is directly connected with the source eNB, wherein the companion UE, which is a wearable device, is indirectly connected with the source eNB via the master UE, wherein the master UE is not the wearable device, and wherein the companion UE is connected to any eNBs via the master UE by relay based connection; and determining, by the target eNB, a relationship between the master UE and the companion UE based on both the device context of the master UE and the device context of the companion UE, wherein the relationship between the master UE and the companion UE is determined to be a pair, and wherein based on that the relationship between the master UE and the companion UE is determined to be the pair, the master UE and the companion UE are handed over together to the target eNB.
A component assembly comprising: a first component that includes a surface to be joined and an end surface, and a bracket opening having a first shape defined in the surface to be joined, and at least one bracket that includes a main body portion having a first portion and a second portion that form a first angle therebetween, wherein the first portion includes opposing front and rear surfaces (14a, 14b) and the second portion includes opposing upper and lower surfaces (16a, 16b), wherein the first portion includes a fastener opening defined therethrough, wherein the second portion includes an insert feature extending from the lower surface, characterized in that the second portion includes at least a first adhesive opening defined therethrough, wherein the insert feature extends into the bracket opening and the lower surface of the second portion is in contact with the surface to be joined of the first component, wherein an adhesive secures the insert feature within the bracket opening and wherein the first adhesive opening is in communication with the bracket opening. a first component that includes a surface to be joined and an end surface, and a bracket opening having a first shape defined in the surface to be joined, and at least one bracket that includes a main body portion having a first portion and a second portion that form a first angle therebetween, wherein the first portion includes opposing front and rear surfaces (14a, 14b) and the second portion includes opposing upper and lower surfaces (16a, 16b), wherein the first portion includes a fastener opening defined therethrough, wherein the second portion includes an insert feature extending from the lower surface, characterized in that the second portion includes at least a first adhesive opening defined therethrough, wherein the insert feature extends into the bracket opening and the lower surface of the second portion is in contact with the surface to be joined of the first component, wherein an adhesive secures the insert feature within the bracket opening and wherein the first adhesive opening is in communication with the bracket opening.
An antenna for low-range application able to guide a wavelength λ, which comprises four elementary IFA antennae, each elementary IFA antenna comprising a ground plane, a roof defining a pattern, a short-circuit between the ground plane and the roof and an excitation means, the four elementary IFA antennae being distributed around an reference axis (z) in a first set of two IFA antennae having substantially equivalent far field elementary radiations and a second set of two IFA antennae having substantially equivalent fair field elementary radiations, the two excitation means of the two IFA antennae of the first set defining a first alignment axis perpendicular to said reference axis, the two excitation means of the two antennae of the second set defining a second alignment axis perpendicular to said reference axis, the first alignment axis and the second alignment axis crossing at a right angle at one point of the axis, the excitation means of the four elementary IFA antennae being fed by radiofrequency signals of same amplitude whereof the phases follow a law which is substantially progressive in quadrature by rotation around the axis (0°, 90°, 180°, 270°) the antenna being characterized in that roof of the first set and the second set each have a length inferior to λ/4 so that IFA antennae of the first set are coupled together, and the IFA antennae of the second set are also coupled together.
A medical imaging device, comprising: a rigid elongated member; a distal member provided in a width of approximately 5.0 to 15 millimeters said distal member comprises a front camera located on a front planar surface of the distal member, a first side camera located on a first lateral surface of the distal member and a second side camera located on a second lateral surface of the distal member (115, 265) and wherein the distal member (115, 265) is directly connected to the rigid elongated member in a rigid manner; characterised in that the first side camera is located at a position closer to the front planar surface than the second side camera is. a rigid elongated member; a distal member provided in a width of approximately 5.0 to 15 millimeters said distal member comprises a front camera located on a front planar surface of the distal member, a first side camera located on a first lateral surface of the distal member and a second side camera located on a second lateral surface of the distal member (115, 265) and wherein the distal member (115, 265) is directly connected to the rigid elongated member in a rigid manner; characterised in that the first side camera is located at a position closer to the front planar surface than the second side camera is.
A method for quantifying isotropic diffusion and/or anisotropic diffusion in a sample, the method comprising: performing diffusion weighted magnetic resonance measurements on the sample using diffusion encoding magnetic gradient pulse sequences G i=1...m, wherein each magnetic gradient pulse sequence G i is generated such that a diffusion encoding tensor b i for the magnetic gradient pulse sequence G i has one to three non-zero eigenvalues, where b i = ∫ 0 i q i t q i T t dt, q i ( t) is a dephasing vector proportional to ∫ 0 i G i t ′ dt ′ and τ is an echo time, collecting data representing magnetic resonance echo signals resulting from said measurements on the sample, at least a subset of said data representing echo signals being acquired with a set of magnetic gradient pulse sequences causing anisotropic diffusion weighting, wherein the diffusion encoding tensor for each gradient pulse sequence of said set of magnetic gradient pulse sequences has three non-zero eigenvalues, at least one of the three eigenvalues being different from the other eigenvalues, and calculating a degree of isotropic diffusion and/or a degree of anisotropic diffusion using said data. performing diffusion weighted magnetic resonance measurements on the sample using diffusion encoding magnetic gradient pulse sequences G i=1...m, wherein each magnetic gradient pulse sequence G i is generated such that a diffusion encoding tensor b i for the magnetic gradient pulse sequence G i has one to three non-zero eigenvalues, where b i = ∫ 0 i q i t q i T t dt, q i ( t) is a dephasing vector proportional to ∫ 0 i G i t ′ dt ′ and τ is an echo time, collecting data representing magnetic resonance echo signals resulting from said measurements on the sample, at least a subset of said data representing echo signals being acquired with a set of magnetic gradient pulse sequences causing anisotropic diffusion weighting, wherein the diffusion encoding tensor for each gradient pulse sequence of said set of magnetic gradient pulse sequences has three non-zero eigenvalues, at least one of the three eigenvalues being different from the other eigenvalues, and calculating a degree of isotropic diffusion and/or a degree of anisotropic diffusion using said data.
A hard surface cleaning composition comprising: • 5 to 60 wt% of detergent surfactant, • 0.5 to 4 wt% of a polymer comprising acrylic acid, the polymer comprising a homopolymer of acrylic acid; and • water; wherein the composition comprises not more than 1.5 wt% of silicone and comprises not more than 0.05 wt% of metal bleach catalyst; wherein the composition has pH of 5.5 or lower; and wherein at least 50% of the total amount of detergent surfactant is a combination of alkyl ether sulfate and alkylbenzene sulfonate wherein the ratio of alkyl ether sulfate:alkylbenzene sulfonate is at least 1:1. • 5 to 60 wt% of detergent surfactant, • 0.5 to 4 wt% of a polymer comprising acrylic acid, the polymer comprising a homopolymer of acrylic acid; and • water;
An apparatus, comprising: means for generating a first channel estimate using a first channel estimation filter having a first filter response; means for recovering a first signal using the first channel estimate; means for regenerating (1216, 1218) the first signal after recovering the first signal; means for generating a second channel estimate based on the regenerated first signal and using a second channel estimation filter having a second filter response that is different from the first filter response; and means for combining the first channel estimate and the second channel estimate to obtain a third channel estimate in response to detecting a traffic to pilot ratio within a particular range; and means for estimating interference due to the first signal; and means for removing the estimated interference due to the first signal, wherein the means for estimating the interference due to the first signal estimates the interference due to the first signal based on the third channel estimate; and further comprising: means for generating a fourth channel estimate using a third channel estimation filter having a third filter response that is different from the first filter response; means for recovering a second signal using the fourth channel estimate; means for estimating interference due to the second signal; and means for removing the estimated interference due to the second signal. means for generating a first channel estimate using a first channel estimation filter having a first filter response; means for recovering a first signal using the first channel estimate; means for regenerating (1216, 1218) the first signal after recovering the first signal; means for generating a second channel estimate based on the regenerated first signal and using a second channel estimation filter having a second filter response that is different from the first filter response; and means for combining the first channel estimate and the second channel estimate to obtain a third channel estimate in response to detecting a traffic to pilot ratio within a particular range; and means for estimating interference due to the first signal; and means for removing the estimated interference due to the first signal, wherein the means for estimating the interference due to the first signal estimates the interference due to the first signal based on the third channel estimate; and further comprising: means for generating a fourth channel estimate using a third channel estimation filter having a third filter response that is different from the first filter response; means for recovering a second signal using the fourth channel estimate; means for estimating interference due to the second signal; and means for removing the estimated interference due to the second signal. means for generating a fourth channel estimate using a third channel estimation filter having a third filter response that is different from the first filter response; means for recovering a second signal using the fourth channel estimate; means for estimating interference due to the second signal; and means for removing the estimated interference due to the second signal.
A method for milling an obstruction disposed within a wellbore, comprising: providing a milling assembly for use in the wellbore, the milling assembly including a milling module having a motor rotating a milling bit, an electronics cartridge ( 26, 28) for controlling the motor and calculating a torque value based on data received from the motor, at least one push module ( 16, 18) for engaging with the wellbore and providing a push force against the wellbore to urge the milling assembly in a direction of the milling bit, the electronics cartridge further configured for controlling the at least one push module and calculating a push force value for the at least one push module; setting a target torque value for the milling module and setting a push force limit value for the at least one push module; disposing the milling assembly into the wellbore; disposing the milling bit adjacent the obstruction in the wellbore; operating the milling assembly by rotating the milling bit and engaging the at least one push module with the wellbore; and adjusting, iteratively, operation ( 56, 58) of the milling module and the at least one push module based on the calculated torque value and the calculated push force value to maintain the calculated values at about the target torque value and at or below the push force limit value ( 66, 70), wherein the push force is controlled using proportional-derivative control to regulate the push force in response to changing torque values. providing a milling assembly for use in the wellbore, the milling assembly including a milling module having a motor rotating a milling bit, an electronics cartridge ( 26, 28) for controlling the motor and calculating a torque value based on data received from the motor, at least one push module ( 16, 18) for engaging with the wellbore and providing a push force against the wellbore to urge the milling assembly in a direction of the milling bit, the electronics cartridge further configured for controlling the at least one push module and calculating a push force value for the at least one push module; setting a target torque value for the milling module and setting a push force limit value for the at least one push module; disposing the milling assembly into the wellbore; disposing the milling bit adjacent the obstruction in the wellbore; operating the milling assembly by rotating the milling bit and engaging the at least one push module with the wellbore; and adjusting, iteratively, operation ( 56, 58) of the milling module and the at least one push module based on the calculated torque value and the calculated push force value to maintain the calculated values at about the target torque value and at or below the push force limit value ( 66, 70), wherein the push force is controlled using proportional-derivative control to regulate the push force in response to changing torque values.
A forming apparatus for determining the mutual spatial orientation of a group of two layers of rod-like articles of the tobacco industry, comprising a transport carriage, and a transport tray provided with a number of transport grooves adapted to hold rod-like articles, whereas the tray is fastened to the transport carriage characterised in that the transport tray is divided into two transport sections (13, 13'), whereas the transport sections (13, 13') are adapted to shift between an open configuration in which the transport grooves are situated in substantially one plane (k, k') and a closed configuration in which the transport grooves are situated in two planes (k, k') which are substantially parallel to each other. articles of the tobacco industry, comprising a transport carriage, and a transport tray provided with a number of transport grooves adapted to hold rod-like articles, whereas the tray is fastened to the transport carriage a transport carriage, and a transport tray provided with a number of transport grooves adapted to hold rod-like articles, whereas the tray is fastened to the transport carriage characterised in that the transport tray is divided into two transport sections (13, 13'), whereas the transport sections (13, 13') are adapted to shift between an open configuration in which the transport grooves are situated in substantially one plane (k, k') and a closed configuration in which the transport grooves are situated in two planes (k, k') which are substantially parallel to each other.
A method of lubricating a system comprising a fluoropolymer seal with a lubricant composition, which comprises a base oil and a cyclic amine compound, said method comprising: contacting the fluoropolymer seal with the cyclic amine compound of the lubricant composition, where the cyclic amine compound has a formula: wherein R 1, R 2 and R 3 are independently selected from the group consisting of methyl, ethyl, n-propyl, n-butyl, sec-butyl, tert-butyl, n-hexyl, n-octyl, 2-ethylhexyl, n-nonyl, n-decyl, n-undecyl, n-dodecyl, n-tridecyl, n-tetradecyl, n-hexadecyl, and n-octadecyl, wherein the cyclic amine compound is present in the lubricant composition in an amount ranging from 0.1 to 10 wt.%, based on a total weight of the lubricant composition. contacting the fluoropolymer seal with the cyclic amine compound of the lubricant composition, where the cyclic amine compound has a formula: wherein R 1, R 2 and R 3 are independently selected from the group consisting of methyl, ethyl, n-propyl, n-butyl, sec-butyl, tert-butyl, n-hexyl, n-octyl, 2-ethylhexyl, n-nonyl, n-decyl, n-undecyl, n-dodecyl, n-tridecyl, n-tetradecyl, n-hexadecyl, and n-octadecyl, wherein the cyclic amine compound is present in the lubricant composition in an amount ranging from 0.1 to 10 wt.%, based on a total weight of the lubricant composition.
A winding method of a stator for a rotation detector, the stator including a stator core (3, 13, 23, 34, 103) that is ring shaped and has a plurality of magnetic poles, the magnetic poles being arranged at regular intervals in a circumferential direction and projecting either to an inner diameter side or an outer diameter side of the stator core (3, 13, 23, 34, 103), the stator core (3, 13, 23, 34, 103) having a first output winding (1, 11, 21, 101) and a second output winding (2, 12, 22, 102), which are different in phase by 90 degrees from each other and are wound around slots defined by the adjacent magnetic poles, wherein the first output winding (1, 11, 21, 101) has N1(s) turns, and the second output winding (2, 12, 22, 102) has N2(s) turns, each of the N1(s) turns and the N2(s) turns being varied sinusoidally through the slots; the N1(s) turns of the first output winding (1, 11, 21, 101) is divided by a split ratio α into N1a(s) turns and N1b(s) turns; a lower-layer first output winding (1a, 11a, 21a) having the N1a(s) turns is continuously wound, as an undermost layer, around all slots; the second output winding (2, 12, 22, 102) is continuously wound around all slots over the lower-layer first output winding (1a, 11a, 21a); an upper-layer first output winding (1b. 11b, 21b) having the N1b(s) turns is continuously wound around all slots over the second output winding (2, 12, 22, 102); and the split ratio α is adjusted only in one or more given slots, characterized in that the split ratio α is varied sinusoidally through all slots.
Fork-lift truck, comprising: - a housing, - a mast, - an actuating device, - a framework extension assembly, - a control unit, - a pair of support legs, wherein the mast is movable horizontally in the direction of the support legs by means of the actuating device and the framework extension assembly, wherein the framework extension assembly comprises at least two elongated elements (8, 9) that movably joins the mast with the housing of the fork-lift truck, are joined together at a first rotary axis, wherein the first elongated element is attached to the housing at a second rotary axis, and that the second elongated element is attached to the mast with a third rotary axis, characterized in that the fork-lift truck is provided with a sensor device that is arranged to detect a predetermined rotary position of at least one of the rotary axles (10a, 10b, 10c) of the framework extension assembly, wherein said detection is arranged to be made in a continuous manner, wherein the control unit is arranged to determine and set a maximal speed and/or a maximal acceleration, and/or a maximal deceleration, and/or a maximal lift height, and/or a maximal load weight, of the fork-lift truck based on the detected predetermined rotary position of the said at least one rotary axis (10a, 10b, 10c). - a housing, - a mast, - an actuating device, - a framework extension assembly, - a control unit, - a pair of support legs,
A method for recovering antifreeze from a dust prevention system of a mineral material processing plant, characterized in that the method comprises sucking water into the dust prevention system using a pump from a water inlet via a first valve displacing the antifreeze via a nozzle manifold into an antifreeze tank until the water reaches a second valve; and connecting the second valve to a third valve to allow circulation of water in the dust prevention system. sucking water into the dust prevention system using a pump from a water inlet via a first valve displacing the antifreeze via a nozzle manifold into an antifreeze tank until the water reaches a second valve; and connecting the second valve to a third valve to allow circulation of water in the dust prevention system.
A profile assembly for eliminating undesirable water spray of at least one vehicle wheel of a car, lorry, bus, trailer and the like, which is arranged parallel to the visible surface of the vehicle wheel, at a distance therefrom, parallel to the direction of travel, consisting of at least one polymeric material, comprising at least one base, with at least one profile element projecting away therefrom at an acute angle, at least one conduit element, and at least one damping element (4, 5), which face towards the visible surface of the vehicle wheel, wherein the profile element has at least one damping element (4, 5) arranged at an acute and/or obtuse angle to the base, wherein the damping element (4, 5) is integrally connected to the profile element, characterised in that the damping element (4, 5) is produced at least partially from a flexible, polymeric material having a Shore A hardness according to DIN EN ISO 868 of about 50 to 95, preferably 60 to 90, and in that the damping element (4, 5) is arranged at a distance from the free end of the profile element arranged opposite the base, and in that the damping element (4, 5) is arranged movably on the profile element.