mhurhangee/ep-ind-claims huggingface dataset:
Method for communicating between a first application on a vehicle and a second application remote from the vehicle, the method comprising: mounting a base station of a cellular mobile phone network and a core network of the mobile phone network onto the vehicle, mounting at least two mobile stations (8 i) of the mobile phone network stationarily on the ground, connecting the at least two mobile stations (8 i) via an intermediate network to the second application, communicating data between the first application and the base station via the core network on the vehicle, wirelessly communicating said data between the base station on the vehicle and at least one of the mobile stations (8 i) on the ground, and communicating said data between the at least one mobile station (8 i) on the ground and the second application via the intermediate network. mounting a base station of a cellular mobile phone network and a core network of the mobile phone network onto the vehicle, mounting at least two mobile stations (8 i) of the mobile phone network stationarily on the ground, connecting the at least two mobile stations (8 i) via an intermediate network to the second application, communicating data between the first application and the base station via the core network on the vehicle, wirelessly communicating said data between the base station on the vehicle and at least one of the mobile stations (8 i) on the ground, and communicating said data between the at least one mobile station (8 i) on the ground and the second application via the intermediate network.
A power management method comprising: a step A of transmitting a first message from a power management server to a local control apparatus according to a first protocol, the power management server managing a facility connected to a power grid, the local control apparatus provided in the facility; a step B of transmitting a second message from the local control apparatus to an equipment (310, 320, 350) according to a second protocol different from the first protocol; characterized by a step C of transmitting a third message from the local control apparatus to the power management server according to the first protocol, the third message including specification information including a list of local control elements which the equipment (310, 320, 350) is capable of dealing with according to the second protocol among the local control elements, the second message according to the second protocol requesting the setting of an operating state of the equipment (310, 320, 350), and wherein in the step A, the power management server transmits the first message to the local control apparatus based on the list of local control elements, and in the step B, the local control apparatus transmits to the equipment (310a, 320, 350) the second message based on the list of the local control elements. a step A of transmitting a first message from a power management server to a local control apparatus according to a first protocol, the power management server managing a facility connected to a power grid, the local control apparatus provided in the facility; a step B of transmitting a second message from the local control apparatus to an equipment (310, 320, 350) according to a second protocol different from the first protocol; characterized by a step C of transmitting a third message from the local control apparatus to the power management server according to the first protocol, the third message including specification information including a list of local control elements which the equipment (310, 320, 350) is capable of dealing with according to the second protocol among the local control elements, the second message according to the second protocol requesting the setting of an operating state of the equipment (310, 320, 350), and wherein in the step A, the power management server transmits the first message to the local control apparatus based on the list of local control elements, and in the step B, the local control apparatus transmits to the equipment (310a, 320, 350) the second message based on the list of the local control elements.
An optical fiber temperature distribution measuring device which measures a temperature distribution along an optical fiber using backward Raman scattering light generated in the optical fiber, the device comprising: a reference temperature thermometer disposed in the vicinity of the optical fiber and configured to measure a reference temperature (T 1) of the optical fiber; an arithmetic controller configured to calculate a temperature of the optical fiber based on the backward Raman scattering light; a temperature reference unit; and a temperature corrector configured to correct the calculated temperature based on a correction formula, characterized in that the correction formula contains the following parameters: the reference temperature (T 1) measured by the reference temperature thermometer, a Raman shift angular frequency (ω r) of the temperature reference unit, a Raman shift angular frequency (ω 1) of the optical fiber, and a temperature (T 1 ') calculated by the arithmetic controller before correction when the temperature of the optical fiber is the reference temperature (T 1). a reference temperature thermometer disposed in the vicinity of the optical fiber and configured to measure a reference temperature (T 1) of the optical fiber; an arithmetic controller configured to calculate a temperature of the optical fiber based on the backward Raman scattering light; a temperature reference unit; and a temperature corrector configured to correct the calculated temperature based on a correction formula, the correction formula contains the following parameters: the reference temperature (T 1) measured by the reference temperature thermometer, a Raman shift angular frequency (ω r) of the temperature reference unit, a Raman shift angular frequency (ω 1) of the optical fiber, and a temperature (T 1 ') calculated by the arithmetic controller before correction when the temperature of the optical fiber is the reference temperature (T 1).
Battery (1a...1l), comprising: - a plurality of voltage-generating cells with a housing, - a plurality of fastening/bearing points which are spaced apart from one another and at which the battery (1a...1l) is fastened or bears, wherein at least a first portion of said cells having a first mass and also optional further components (4-10, 12-24, 26-27) of the battery (1a...1l) having a further mass come to lie between the fastening/bearing points, and wherein the first portion of the cells absorbs the entire bending/shear stress occurring between the fastening/bearing points in the battery (1a...1l), and an I-shaped or H-shaped intermediate element is arranged at least between two voltage-generating cells for electrically connecting the cells and for transmitting force from one cell to the next cell and thus the cells remain in position relative to one another. - a plurality of voltage-generating cells with a housing, - a plurality of fastening/bearing points which are spaced apart from one another and at which the battery (1a...1l) is fastened or bears, wherein
A power generating apparatus of renewable energy type which generates power using renewable energy, comprising: a tower; at least one blade; a hub to which the at least one blade is attached; a rotation shaft connected to the hub; a nacelle including a nacelle base plate attached to the tower and a common base plate formed separately from the nacelle base plate and supported by the nacelle base plate; a main bearing (32,34) supporting the rotation shaft rotatably to the nacelle base plate; a hydraulic pump attached to the rotation shaft and configured to produce pressurized oil by rotation of the rotation shaft; a hydraulic motor configured to be driven by the pressurized oil from the hydraulic pump; and a generator configured to be driven by the hydraulic motor, wherein the hydraulic motor and the generator are installed on the common base plate. a tower; at least one blade; a hub to which the at least one blade is attached; a rotation shaft connected to the hub; a nacelle including a nacelle base plate attached to the tower and a common base plate formed separately from the nacelle base plate and supported by the nacelle base plate; a main bearing (32,34) supporting the rotation shaft rotatably to the nacelle base plate; a hydraulic pump attached to the rotation shaft and configured to produce pressurized oil by rotation of the rotation shaft; a hydraulic motor configured to be driven by the pressurized oil from the hydraulic pump; and a generator configured to be driven by the hydraulic motor, wherein the hydraulic motor and the generator are installed on the common base plate.
An arm support comprising a frame structure, wherein the arm support comprises: a top plate; a bottom plate, wherein the bottom plate and the top plate are oppositely disposed at an interval; a first side plate; a second side plate, wherein the second side plate and the first side plate are oppositely disposed at an interval, wherein a first side of the first side plate is provided with a first bending portion, at least a portion of the first bending portion and the top plate are attached and spliced to each other, a second side of the first side plate opposite to the first bending portion is provided with a second bending portion, at least a portion of the second bending portion and the bottom plate are attached and spliced to each other; and a first side of the second side plate is provided with a third bending portion,at least a portion of the third bending portion and the top plate are attached and spliced to each other, a second side of the second side plate opposite to the third bending portion is provided with a fourth bending portion, at least a portion of the fourth bending portion and the bottom plate are attached and spliced to each other, and define the frame structure; characterized in that the top plate and the bottom plate are respectively carbon fiber plates, and the first side plate and the second side plate are respectively aluminum alloy plates. a top plate; a bottom plate, wherein the bottom plate and the top plate are oppositely disposed at an interval; a first side plate; a second side plate, wherein the second side plate and the first side plate are oppositely disposed at an interval, wherein a first side of the first side plate is provided with a first bending portion, at least a portion of the first bending portion and the top plate are attached and spliced to each other, a second side of the first side plate opposite to the first bending portion is provided with a second bending portion, at least a portion of the second bending portion and the bottom plate are attached and spliced to each other; and a first side of the second side plate is provided with a third bending portion,at least a portion of the third bending portion and the top plate are attached and spliced to each other, a second side of the second side plate opposite to the third bending portion is provided with a fourth bending portion, at least a portion of the fourth bending portion and the bottom plate are attached and spliced to each other, and define the frame structure; characterized in that the top plate and the bottom plate are respectively carbon fiber plates, and the first side plate and the second side plate are respectively aluminum alloy plates.
A mono- or multilayer film comprising a multimodal high density polyethylene polymer which comprises a lower molecular weight polyethylene component and a higher molecular weight polyethylene component and wherein said HDPE polymer has a Mw/Mn of at least 10 and a WVTR of less than 5.0 g/m 2 /24 hours according to ASTM F 1249 at 38°C and 90% humidity (measured on a blown film consisting of said HDPE having a thickness of 30 μm).
A distributed antenna system comprising: a plurality of remote antenna units spatially separated from one another, wherein each remote antenna unit is associated with a respective coverage area; a first group of remote antenna units selected from the plurality of remote antenna units, the first group adapted to simulcast downlink transmissions with a sector identity, ID on a first carrier; and a second group of remote antenna units selected from the plurality of remote antenna units, the second group adapted to simulcast downlink transmission with the sector ID on a second carrier different from the first carrier; wherein at least one remote antenna unit of the second group is associated with a respective coverage area that differs from respective coverage areas associated with the remote antenna units of the first group, and wherein at least one remote antenna unit of the second group is associated with a respective coverage that is the same as a respective coverage area associated with at least one remote antenna unit of the first group. a plurality of remote antenna units spatially separated from one another, wherein each remote antenna unit is associated with a respective coverage area; a first group of remote antenna units selected from the plurality of remote antenna units, the first group adapted to simulcast downlink transmissions with a sector identity, ID on a first carrier; and a second group of remote antenna units selected from the plurality of remote antenna units, the second group adapted to simulcast downlink transmission with the sector ID on a second carrier different from the first carrier; wherein at least one remote antenna unit of the second group is associated with a respective coverage area that differs from respective coverage areas associated with the remote antenna units of the first group, and wherein at least one remote antenna unit of the second group is associated with a respective coverage that is the same as a respective coverage area associated with at least one remote antenna unit of the first group.
A method for handover to a serving network, comprising: Receiving, by a mobile switching center, MSC, a first Handover Request sent by a base station controller, BSC/radio network controller, RNC; and Sending, by the MSC, a second Handover Request according to the first Handover Request, wherein the second Handover Request comprises an international mobile subscriber identity, IMSI, and first information for determining a source serving packet switched network support node, SGSN, to a target mobility management entity, MME for sending a Context Request message comprising the IMSI to the source SGSN and receiving context information of a user equipment corresponding to the IMSI sent by the source SGSN. Receiving, by a mobile switching center, MSC, a first Handover Request sent by a base station controller, BSC/radio network controller, RNC; and Sending, by the MSC, a second Handover Request according to the first Handover Request, wherein the second Handover Request comprises an international mobile subscriber identity, IMSI, and first information for determining a source serving packet switched network support node, SGSN, to a target mobility management entity, MME for sending a Context Request message comprising the IMSI to the source SGSN and receiving context information of a user equipment corresponding to the IMSI sent by the source SGSN.
A backlash-compensating gear train for a horological mechanism, comprising at least two partner wheels, at least one of the wheels being an antibacklash wheel in which at least some of the teeth are uniformly distributed and have elastic flexible parts (D R) in the direction of the respective thicknesses of the teeth and in which some of said teeth having flexible elastic parts are capable of temporarily transmitting a torque considerably greater than the normal drive torque, in which two adjacent teeth (D 1, D 2) capable of transmitting a torque considerably greater than the normal drive torque each comprise one rigid flank (D 1a, D 2a) integral with a reinforcing part (D 12), and one elastic flank (D 1b, D 2b) integral with a more flexible part (D 1R, D 2R), the two rigid parts (D 1a, D 2a) of the two teeth (D 1, D 2) being adjacent, the elastic flanks (D 1b, D 2b) of the two adjacent teeth (D 1, D 2) being each formed on a leaf spring.
An optical system comprising a first optical-coupling region (SCR 204 SCR 304 SCR 404 SCR 504) that couples light, via evanescent field coupling, between physically separated first and second waveguiding structures, wherein the first waveguiding structure (202, 302, 402, 502) comprises a closed loop and is optically resonant for at least one wavelength and the second waveguiding structure (204, 304, 404, 504) comprises a first bus waveguide, and further wherein the first optical-coupling region comprises a first segment (S R 204, S R 304, S R 404, S R 504) from the first waveguiding structure and a second segment (S 204, S 304, S 404, S 504) from the second waveguiding structure, wherein the second segment includes at least a portion of the first bus waveguide; characterized in that: the first segment and the second segment exhibit mirror symmetry with respect to each other across or about at least one of a plane and an axis; and the first segment and the second segment each include a portion that is not straight.
A medical image viewing device for navigation in X-ray imaging, comprising: an image data providing unit, a processing unit, and a display unit, wherein the image data providing unit is configured to provide fluoroscopy images of a region of interest of an object; wherein the processing unit is configured to perform a 3D-2D elastic registration or multiple rigid registrations of a preoperative three-dimensional volume based on geometry parameters of the image data providing unit, the three-dimensional volume comprising an identified plurality of undesired structures to be removed, wherein the structures conduct independent movements, wherein the processing unit is further configured to create a digitally reconstructed radiograph image of these structures for each fluoroscopy image and to use the digitally reconstructed radiograph image to generate structure-suppressed fluoroscopy images, and to generate an angiographic image sequence based on a subtraction of the structure suppressed fluoroscopy images from a reference frame, the sequence being free from the undesired motion of the suppressed structures wherein the display unit is configured to display the angiographic image sequence. an image data providing unit, a processing unit, and a display unit, wherein the image data providing unit is configured to provide fluoroscopy images of a region of interest of an object; wherein the processing unit is configured to perform a 3D-2D elastic registration or multiple rigid registrations of a preoperative three-dimensional volume based on geometry parameters of the image data providing unit, the three-dimensional volume comprising an identified plurality of undesired structures to be removed, wherein the structures conduct independent movements, wherein the processing unit is further configured to create a digitally reconstructed radiograph image of these structures for each fluoroscopy image and to use the digitally reconstructed radiograph image to generate structure-suppressed fluoroscopy images, and to generate an angiographic image sequence based on a subtraction of the structure suppressed fluoroscopy images from a reference frame, the sequence being free from the undesired motion of the suppressed structures wherein the display unit is configured to display the angiographic image sequence.
A miniature microphone assembly, comprising: a capacitive microphone transducer comprising a microphone electrical contact or terminal; a microphone carrier comprising a carrier electrical terminal formed on a first surface thereof; and an integrated circuit die having a first surface comprising a die electrical terminal operatively coupled to signal amplification or signal conditioning circuitry of the integrated circuit die, and wherein a first electrically conductive path is disposed on the first surface of the integrated circuit die, said first electrically conductive path forming a substantially closed loop surrounding the die electrical terminal, and wherein a second electrically conductive path is disposed on the first surface of the microphone carrier, said second electrically conductive path forming a substantially closed loop surrounding the carrier electrical terminal, and wherein a number of through-going openings are provided in the substantially closed loops formed by the first and second electrically conductive paths, each through-going opening having a width between 50-300 μm in a circumferential direction of the closed loop. a capacitive microphone transducer comprising a microphone electrical contact or terminal; a microphone carrier comprising a carrier electrical terminal formed on a first surface thereof; and an integrated circuit die having a first surface comprising a die electrical terminal operatively coupled to signal amplification or signal conditioning circuitry of the integrated circuit die, and wherein a first electrically conductive path is disposed on the first surface of the integrated circuit die, said first electrically conductive path forming a substantially closed loop surrounding the die electrical terminal, and wherein a second electrically conductive path is disposed on the first surface of the microphone carrier, said second electrically conductive path forming a substantially closed loop surrounding the carrier electrical terminal, and wherein a number of through-going openings are provided in the substantially closed loops formed by the first and second electrically conductive paths, each through-going opening having a width between 50-300 μm in a circumferential direction of the closed loop.
Lactobacillus buchneri for use in increasing the fertility of a female mammal by means of intrauterine application of Lactobacillus buchneri independently of a previous cytological examination of the mammal, wherein the mammal has a subclinical endometritis which is characterized by the missing of clinical signs of an endometritis and a fraction of polymorphonuclear neutrophil granulocytes of more than 5% in the total cell count in a smear of endometrium cells of the mammal, wherein the application is effected in a period of 20 days to 100 days postpartum.