mhurhangee/patent-ind-claim-en huggingface dataset:
A layer 2 measurement method in a heterogeneous network, performed by a Local Evolved Node B, eNB, whereby a UE in the heterogeneous network simultaneously aggregates resources of the Local eNB, and a Macro eNB, Radio Resource Control, RRC, connection of the UE is maintained under the Macro eNB, and the resources of the Local eNB are applied to data transmission, and the method comprises: performing , by the Local eNB, layer 2 measurement according to a measurement request of performing layer 2 measurement, after receiving the measurement request of performing layer 2 measurement; reporting , by the Local eNB, a measurement result of the layer 2 measurement to a processing entity which has sent the measurement request of performing layer 2 measurement. performing , by the Local eNB, layer 2 measurement according to a measurement request of performing layer 2 measurement, after receiving the measurement request of performing layer 2 measurement; reporting , by the Local eNB, a measurement result of the layer 2 measurement to a processing entity which has sent the measurement request of performing layer 2 measurement.
Method for determining the wood moisture in a wood structure , comprising the following steps: a) drilling a hole into the wood structure ; b) inserting a moisture sensor into the hole , wherein the moisture sensor has an enclosure body , which is at least partially provided with holes , and a cavity arranged therein; c) closing off the hole using a wooden peg , which preferably has a thickness of 10 to 25 mm; and d) measuring the air humidity in the cavity , which is largely in a thermodynamic equilibrium with the wood, surrounding the hole , of the wood structure ; e) wirelessly transferring the measured value for the air humidity to a data gateway ; and f) evaluating the measured value for the air humidity on an evaluation unit that is spatially offset from the moisture sensor. a) drilling a hole into the wood structure ; b) inserting a moisture sensor into the hole , wherein the moisture sensor has an enclosure body , which is at least partially provided with holes , and a cavity arranged therein; c) closing off the hole using a wooden peg , which preferably has a thickness of 10 to 25 mm; and d) measuring the air humidity in the cavity , which is largely in a thermodynamic equilibrium with the wood, surrounding the hole , of the wood structure ; e) wirelessly transferring the measured value for the air humidity to a data gateway ; and f) evaluating the measured value for the air humidity on an evaluation unit that is spatially offset from the moisture sensor.
A compound or a pharmaceutically acceptable salt thereof or a solvate thereof for use in a method for treatment of the human or animal body, wherein the compound comprises the structure of and is selected from the group of compounds:
Motor vehicle lighting system comprising: - a lighting device capable of emitting a light beam, - a projection device comprising at least one projection lens , - an array of micro-mirrors comprising micro-mirrors mounted in a pivoting manner about a pivot axis , said micro-mirrors being capable of receiving at least part of the light beam emitted by the lighting device and of reflecting at least part of the light beam along a projection axis (P-P) about a projection axis (P-P) in the direction of the projection device , each micro-mirror being capable of pivoting to the maximum by an angle, this being referred to as the maximum pivoting angle (2α), characterized in that the light beam emitted by the lighting device exhibits an angle at the upper vertex (Ψ), measured at the point of convergence, which is greater than the maximum pivoting angle (2α) and wherein the at least one projection lens viewed in a frontal section, that is in a plane perpendicular to the projection axis (P-P), has the form of a rectangle having a longitudinal side extending in a direction that is substantially parallel to the pivot axis of the micro-mirrors . - a lighting device capable of emitting a light beam, - a projection device comprising at least one projection lens , - an array of micro-mirrors comprising micro-mirrors mounted in a pivoting manner about a pivot axis , said micro-mirrors being capable of receiving at least part of the light beam emitted by the lighting device and of reflecting at least part of the light beam along a projection axis (P-P) about a projection axis (P-P) in the direction of the projection device , each micro-mirror being capable of pivoting to the maximum by an angle, this being referred to as the maximum pivoting angle (2α),
An article, comprising: a substrate; a sol-gel conversion coating on at least a portion of the substrate; a treatment layer on at least a portion of the sol-gel conversion coating, the treatment layer comprising an amino alcohol; and a coating layer on at least a portion of the treatment layer, wherein the amino alcohol reacts with a functional group of the sol-gel conversion coating and separately or concurrently reacts with a functional group of the coating layer to attach or adhere the coating layer to the substrate. a substrate; a sol-gel conversion coating on at least a portion of the substrate; a treatment layer on at least a portion of the sol-gel conversion coating, the treatment layer comprising an amino alcohol; and a coating layer on at least a portion of the treatment layer, wherein the amino alcohol reacts with a functional group of the sol-gel conversion coating and separately or concurrently reacts with a functional group of the coating layer to attach or adhere the coating layer to the substrate.
Apparatus for moving articles comprising a conveyor member , and a shelf provided with a guide cavity open toward a surface of said shelf in correspondence with an aperture , said guide cavity at least partly defining a movement path and wherein said apparatus comprises a drive unit associated with said conveyor member and configured to move said conveyor member along said movement path, wherein said conveyor member is provided with: - a support zone outside said guide cavity and suitable to support one or more of said articles ; - a drawing zone located inside said guide cavity and cooperating with said drive unit ; - an intermediate zone located inside said guide cavity , interposed between said support zone and said drawing zone , and cooperating with a plurality of sliding and support elements ; wherein said drawing zone is located, with respect to said aperture , in a more internal position of said guide cavity with respect to said intermediate zone and wherein the conveyor member is defined by at least one plate-shaped element and the support zone , intermediate zone and drawing zone are provided on the at least one plate-shaped element , the support zone , intermediate zone and drawing zone being located in continuation one with respect to the other along the width of the cross section of the plate-shaped element . - a support zone outside said guide cavity and suitable to support one or more of said articles ; - a drawing zone located inside said guide cavity and cooperating with said drive unit ; - an intermediate zone located inside said guide cavity , interposed between said support zone and said drawing zone , and cooperating with a plurality of sliding and support elements ;
Apparatus for supporting and movably guiding a chair , comprising a guide track (8, 8.1, 8.2) which is provided in a housing , is designed in the form of a slot guide and has a carriage , which can be displaced in the guide track (8, 8.1, 8.2) and supports a mount of the chair , characterized in that the guide track (8, 8.1, 8.2) has at least two guide-track sections , between which an adjustable track switch is provided in order to transfer the chair from the one guide-track section into the other guide-track section , and vice versa.
A composition comprising a suspension wherein the suspension comprises an admixture of a hydrophobic medium and a solid form wherein the solid form comprises a therapeutically effective amount of a therapeutic agent and at least one salt of a medium chain fatty acid, and wherein the medium chain fatty acid salt is present in the composition at an amount of 10% or more by weight, wherein the therapeutic agent is a polypeptide.
An assembly comprising: - a recording assembly for recording a time-based brain-related signal; - a stimulus generator for providing a stimulus, and - a computer assembly , functionally coupled to said recording assembly and to said stimulus generator , said computer assembly comprising: - a memory for storing at least a data segment of said time-based brain-related signal during recording of said time-based brain-related signal, and - a computer program which, when running on said computer assembly, functionally real-time performs: - retrieving a most-recent data segment of said stored data segment of said time-based brain-related signal; - fitting at least one curve to said retrieved most-recent data segment; - predicting a future continuation of said most-recent data segment using said at least one curve fitted to said most-recent data segment; - detecting a predefined pattern in said predicted future continuation for predicting occurrence of said predefined pattern, and defining a predicted event time of said predefined pattern, said predicted event time being in the future with respect to said most-recent data segment, and - actuating said stimulus generator for providing a stimulus within a predefined event time window of said predicted event time. - a recording assembly for recording a time-based brain-related signal; - a stimulus generator for providing a stimulus, and - a computer assembly , functionally coupled to said recording assembly and to said stimulus generator , said computer assembly comprising: - a memory for storing at least a data segment of said time-based brain-related signal during recording of said time-based brain-related signal, and - a computer program which, when running on said computer assembly, functionally real-time performs: - retrieving a most-recent data segment of said stored data segment of said time-based brain-related signal; - fitting at least one curve to said retrieved most-recent data segment; - predicting a future continuation of said most-recent data segment using said at least one curve fitted to said most-recent data segment; - detecting a predefined pattern in said predicted future continuation for predicting occurrence of said predefined pattern, and defining a predicted event time of said predefined pattern, said predicted event time being in the future with respect to said most-recent data segment, and - actuating said stimulus generator for providing a stimulus within a predefined event time window of said predicted event time.
A surgical laser system comprising: a laser generator comprising a first laser source (140 A) configured to output a first laser pulse train comprising first laser pulses , and a second laser source configured to output a second laser pulse train comprising second laser pulses , each laser pulse train including laser pulses at a pulse repetition rate; a beam combiner configured to combine the at least two laser pulse trains into a combined laser pulse train including laser pulses at a resultant pulse repetition rate; a stone analyzer having an output relating to a natural or resonance frequency of a targeted stone ; and a controller comprising at least one processor configured to determine the natural or resonance frequency of the stone based on the output from the stone analyzer 170), and match the resultant pulse repetition rate with the natural or resonance frequency. a laser generator comprising a first laser source (140 A) configured to output a first laser pulse train comprising first laser pulses , and a second laser source configured to output a second laser pulse train comprising second laser pulses , each laser pulse train including laser pulses at a pulse repetition rate; a beam combiner configured to combine the at least two laser pulse trains into a combined laser pulse train including laser pulses at a resultant pulse repetition rate; a stone analyzer having an output relating to a natural or resonance frequency of a targeted stone ; and a controller comprising at least one processor configured to determine the natural or resonance frequency of the stone based on the output from the stone analyzer 170), and match the resultant pulse repetition rate with the natural or resonance frequency.
Rubber teat-cup liner with a head part and a shank part which is connected to the head part , wherein the head part has a lateral surface and an insertion opening for a teat of an animal, wherein the insertion opening is delimited by an inwardly pointing lip , wherein the lateral surface has an expansion region which is formed with an undulatory cross section, characterized in that the expansion region , when viewed in the longitudinal direction, proceeding from the shank part begins at a distance from the shank part and ends at a distance from the inwardly pointing lip , wherein the expansion region extends over at least part of a lateral surface circumference .
An ultrasound imaging system for providing an image of a tomographic plane or volume , comprising an ultrasound image acquisition station and a mobile display device , the ultrasound image acquisition station comprising: (i) a transducer array configured to provide an ultrasound receive signal, (ii) an image acquisition hardware assembly for controlling the transducer array , receiving the ultrasound receive signal and providing image data, (iii) a first memory unit having stored thereon a first operating system for operating the ultrasound imaging system , and (iv) an interface assembly for removable connecting the mobile display device with the ultrasound image acquisition station , wherein the mobile display device has a central processing unit and a second memory unit having stored thereon a second operating system for operating the mobile display device , and wherein the mobile display device is connectable to the interface assembly , characterized in that the ultrasound imaging system is configured such that, upon connection of the mobile display device to the interface assembly , the second operating system is bypassed and the mobile display device is operated by the first operating system, wherein the first operating system takes over control of the central processing unit of the mobile display device . (i) a transducer array configured to provide an ultrasound receive signal, (ii) an image acquisition hardware assembly for controlling the transducer array , receiving the ultrasound receive signal and providing image data, (iii) a first memory unit having stored thereon a first operating system for operating the ultrasound imaging system , and (iv) an interface assembly for removable connecting the mobile display device with the ultrasound image acquisition station ,
A color conversion panel suitable for a display device, the color conversion panel comprising: a substrate ; a first color filter and a second color filter adjacent to the first color filter disposed on the substrate; a first color conversion layer disposed on the first color filter; a second color conversion layer disposed on the second color filter; and a third color layer disposed on the substrate, wherein the third color layer comprises a transmission layer that does not include quantum dots but includes blue pigments ; wherein each of the first color conversion layer and the second color conversion layer includes at least two quantum dots representing different colors, and wherein the first color filter is a different color filter to the second color filter, and the third color layer is of a different color to the first color filter and the second color filter . a substrate ; a first color filter and a second color filter adjacent to the first color filter disposed on the substrate; a first color conversion layer disposed on the first color filter; a second color conversion layer disposed on the second color filter; and a third color layer disposed on the substrate, wherein the third color layer comprises a transmission layer that does not include quantum dots but includes blue pigments ; wherein each of the first color conversion layer and the second color conversion layer includes at least two quantum dots representing different colors, and wherein the first color filter is a different color filter to the second color filter, and the third color layer is of a different color to the first color filter and the second color filter .
A bicycle control system comprising: a hood base comprising an upper mounting surface , wherein the hood base houses a brake actuation system , and wherein the upper mounting surface is positioned above the brake actuation system ; a lever pivotally coupled to the hood base about an axis , wherein the lever is operably coupled to the brake actuation system ; and an electronic module comprising a module housing releasably coupled to the upper mounting surface , wherein the module housing sealingly encloses at least one electronic component comprising a printed circuit board and a power source comprising a battery, characterized in that the module housing comprises a cover moveable between a closed position and an open position, and wherein the battery is removable from the module housing when the cover is in the open position. a hood base comprising an upper mounting surface , wherein the hood base houses a brake actuation system , and wherein the upper mounting surface is positioned above the brake actuation system ; a lever pivotally coupled to the hood base about an axis , wherein the lever is operably coupled to the brake actuation system ; and an electronic module comprising a module housing releasably coupled to the upper mounting surface , wherein the module housing sealingly encloses at least one electronic component comprising a printed circuit board and a power source comprising a battery, characterized in that the module housing comprises a cover moveable between a closed position and an open position, and wherein the battery is removable from the module housing when the cover is in the open position.
A process comprising: determining a first location of a sighting system virtual trainer in three-dimensional space using a three-dimensional positional tracking system; upon placement of a virtual reality, VR, head mounted display, HMD, in proximity to the sighting system virtual trainer, determining a second location of the VR HMD in three-dimensional space using the three-dimensional positional tracking system; analyzing a relationship between the first location and second location; and upon a determination that the VR HMD is properly positioned in relation to the sighting system virtual trainer based on the analysis of the relationship between the first location and second location, locking a visual feed to the VR HMD; wherein the determination that the VR HMD is properly positioned comprises a determination that a user can look down an aiming sight line of the sighting system virtual trainer; and wherein the determination that the user can look down the aiming sight line of the sighting system virtual trainer comprises a determination that the VR HMD is positioned within a software-defined virtual collision zone of the sighting system virtual trainer. determining a first location of a sighting system virtual trainer in three-dimensional space using a three-dimensional positional tracking system; upon placement of a virtual reality, VR, head mounted display, HMD, in proximity to the sighting system virtual trainer, determining a second location of the VR HMD in three-dimensional space using the three-dimensional positional tracking system; analyzing a relationship between the first location and second location; and upon a determination that the VR HMD is properly positioned in relation to the sighting system virtual trainer based on the analysis of the relationship between the first location and second location, locking a visual feed to the VR HMD; wherein the determination that the VR HMD is properly positioned comprises a determination that a user can look down an aiming sight line of the sighting system virtual trainer; and wherein the determination that the user can look down the aiming sight line of the sighting system virtual trainer comprises a determination that the VR HMD is positioned within a software-defined virtual collision zone of the sighting system virtual trainer.
A method for preparing a polymer thin film with water repellency and oil repellency comprising the steps of: thermally decomposing a thermal initiator of a gas phase to form a radical; reacting the formed radical with a monomer mixture comprising (meth)acrylate-based monomers substituted with a fluorine-containing functional group and a reactive compound comprising at least two vinyl groups or (meth)acrylate-based functional groups to synthesize a polymer; and depositing the synthesized polymer on a substrate, wherein a ratio of deposition partial pressure of the following General Formula 1 of the reactive compound comprising at least two vinyl groups or (meth)acrylate-based functional groups to deposition partial pressure of the following General Formula 1 of the (meth)acrylate-based monomers substituted with a fluorine-containing functional group is 0.13 to 0.50: Deposition partial pressure = Pm / Psat wherein, in the General Formula 1, Psat denotes saturation vapor pressure of corresponding monomers or compounds at a surface temperature of a substrate on which the synthesized polymer is deposited, and Pm denotes partial pressure of corresponding monomers or compounds in a reactor in which the deposition is progressed. thermally decomposing a thermal initiator of a gas phase to form a radical; reacting the formed radical with a monomer mixture comprising (meth)acrylate-based monomers substituted with a fluorine-containing functional group and a reactive compound comprising at least two vinyl groups or (meth)acrylate-based functional groups to synthesize a polymer; and depositing the synthesized polymer on a substrate, wherein a ratio of deposition partial pressure of the following General Formula 1 of the reactive compound comprising at least two vinyl groups or (meth)acrylate-based functional groups to deposition partial pressure of the following General Formula 1 of the (meth)acrylate-based monomers substituted with a fluorine-containing functional group is 0.13 to 0.50: Deposition partial pressure = Pm / Psat wherein, in the General Formula 1, Psat denotes saturation vapor pressure of corresponding monomers or compounds at a surface temperature of a substrate on which the synthesized polymer is deposited, and Pm denotes partial pressure of corresponding monomers or compounds in a reactor in which the deposition is progressed. Psat denotes saturation vapor pressure of corresponding monomers or compounds at a surface temperature of a substrate on which the synthesized polymer is deposited, and Pm denotes partial pressure of corresponding monomers or compounds in a reactor in which the deposition is progressed.