mhurhangee/ep-ind-claims huggingface dataset:
Interactive television system capable of delivering typical video program streams, interactive television applications, text and graphic images, web pages and other types of information to client devices, comprising a head end server, a service gateway, and at least one client device receiving a stream of broadcast content from the head end server, said service gateway being configured to: receive a request from the client device, said request being in a client device compatible protocol, said client device compatible protocol requiring light processor utilization of the client device, converting the request into a service provider protocol, sending the converted request to the service provider, receiving the response from the service provider in the service provider protocol, converting the response into a client device compatible protocol, sending the converted response to the client device, and the client device being configured to: generating interactive graphics or audio from the received converted response, combining the received broadcast content with the interactive graphics or audio prior to transmitting to a television. receive a request from the client device, said request being in a client device compatible protocol, said client device compatible protocol requiring light processor utilization of the client device, converting the request into a service provider protocol, sending the converted request to the service provider, receiving the response from the service provider in the service provider protocol, converting the response into a client device compatible protocol, sending the converted response to the client device, and the client device being configured to: generating interactive graphics or audio from the received converted response, combining the received broadcast content with the interactive graphics or audio prior to transmitting to a television. generating interactive graphics or audio from the received converted response, combining the received broadcast content with the interactive graphics or audio prior to transmitting to a television.
Fastening device for a furniture body, having a fastening bracket which can be fixed to a side wall of a furniture body, and a support profile which can be fixed to the fastening bracket, wherein the fastening bracket is displaceable along a linear guide on the support profile, wherein the support profile is provided with a groove for guiding the fastening bracket, wherein this groove has groove walls with inwardly projecting retaining webs, and the fastening bracket is fixable to the support profile via a displaceable clamping element and/or latching element, wherein the retaining webs of the groove walls are engaged behind by guide elements of the fastening bracket, characterized in that the fastening bracket is pressed away from the support profile via a wedge-shaped clamping surface, so that the wedge-shaped clamping surface is aligned at an angle inclined to a sliding direction of the clamping element, so that the fastening bracket is fixed to the support profile in a clamping manner via the guide elements.
Pilot control unit for at least one valve drive of a hydraulic valve with a valve slide, wherein the valve slide can be adjusted by the valve drive, in order to supply hydraulic lines with hydraulic fluid through the hydraulic valve, wherein the pilot control unit is set up to supply electronics and a power end stage for actuating an electrical actuator of the valve drive with electrical energy and operating commands, wherein for the supply of the electronics with operating commands the pilot control unit comprises a control, in which for this purpose a parametrization module is present, in which operating parameters for the operation of the at least one hydraulic valve by the valve drive thereof are stored, characterized in that the pilot control unit has an electrical energy store, wherein the electrical energy store is set up so that the valve slide is moved by the valve drive and energy stored in the electrical energy store from any possible valve slide position into a cutout position, wherein the respective setup of the electrical energy store is realized by the control set up for this purpose in the pilot control unit, wherein the control is configured as an emergency control and the electrical energy store as an emergency power supply and they are set up to supply electrical energy for at least one emergency cutout, when a fault is detected in an external power supply of the hydraulic valve, wherein the emergency cutout is set up to move the valve slide from each possible valve slide position into the cutout position.
LED light source, comprising - a series connection of at least two LED strings (2a, 2b), wherein each of the at least two LED strings (2a, 2b) corresponds to a single LED or comprises at least two LEDs, - at least one ohmic resistive element, and - at least one switching element, wherein - the at least one ohmic resistive element is connected in series with a first LED string of the at least two LED strings (2a, 2b), and - at least two capacitors (6a, 6b), wherein - the second capacitor of the at least two capacitors (6a, 6b) is connected in parallel to the second LED string of the at least two LED strings (2a, 2b), characterized in that - the at least one switching element is connected in parallel to the series connection of the at least one ohmic resistive element and the first LED string, - the at least one switching element is configured to bypass in its conductive state the series connection of the at least one ohmic resistive element and the first LED string, and - the first capacitor of the at least two capacitors (6a, 6b) is connected in parallel to the series connection of the at least one ohmic resistive element and the first LED string. - a series connection of at least two LED strings (2a, 2b), wherein each of the at least two LED strings (2a, 2b) corresponds to a single LED or comprises at least two LEDs, - at least one ohmic resistive element, and - at least one switching element, wherein - the at least one ohmic resistive element is connected in series with a first LED string of the at least two LED strings (2a, 2b), and - at least two capacitors (6a, 6b), wherein - the second capacitor of the at least two capacitors (6a, 6b) is connected in parallel to the second LED string of the at least two LED strings (2a, 2b), characterized in that - the at least one switching element is connected in parallel to the series connection of the at least one ohmic resistive element and the first LED string, - the at least one switching element is configured to bypass in its conductive state the series connection of the at least one ohmic resistive element and the first LED string, and - the first capacitor of the at least two capacitors (6a, 6b) is connected in parallel to the series connection of the at least one ohmic resistive element and the first LED string.
A catalyst block for purification of exhaust gas comprising: a rectangular honeycomb core having a large number of exhaust gas passages for honeycomb core allowing exhaust gas to pass, first and second outer surfaces (11a,11b) that face to each other in an orthogonal direction that is orthogonal to the exhaust gas passages, and third and fourth outer surfaces(11c,11d) that face to each other in the orthogonal direction; a first plate fixed to the honeycomb core so as to cover the first outer surface of the honeycomb core; a second plate fixed to the honeycomb core so as to cover the second outer surface of the honeycomb core; and an outer frame that is disposed along an outer periphery of a rigid honeycomb core formed from the honeycomb core, the first plate, and the second plate, and includes a concave part capable of housing at least the first plate, the second plate, the third outer surface, and the fourth outer surface, wherein a catalyst is carried on the honeycomb core, the first plate, and the second plate, and the catalyst is not carried on the outer frame, and the first plate and the second plate are fixed to the honeycomb core with a brazing material. a rectangular honeycomb core having a large number of exhaust gas passages for honeycomb core allowing exhaust gas to pass, first and second outer surfaces (11a,11b) that face to each other in an orthogonal direction that is orthogonal to the exhaust gas passages, and third and fourth outer surfaces(11c,11d) that face to each other in the orthogonal direction; a first plate fixed to the honeycomb core so as to cover the first outer surface of the honeycomb core; a second plate fixed to the honeycomb core so as to cover the second outer surface of the honeycomb core; and an outer frame that is disposed along an outer periphery of a rigid honeycomb core formed from the honeycomb core, the first plate, and the second plate, and includes a concave part capable of housing at least the first plate, the second plate, the third outer surface, and the fourth outer surface, wherein a catalyst is carried on the honeycomb core, the first plate, and the second plate, and the catalyst is not carried on the outer frame, and the first plate and the second plate are fixed to the honeycomb core with a brazing material.
A pneumatic tire comprising a carcass reinforced by one or more carcass plies extending from a first bead to a second bead (20a, 20b) and a single reinforcement disposed radially outward of the one or more carcass plies in a crown portion of the pneumatic tire, the single reinforcement comprising woven strips reinforced with cords, the strips having a width in a range of from 3.0 mm to 30.0 mm.
A polymer composition comprising a polyolefin (a) and an inorganic filler (b) wherein the polyolefin (a) is obtainable by a high pressure process which process comprises the steps: (i) compressing ethylene under pressure in a compressor, using a compressor lubricant for lubrication, (ii) polymerising ethylene in a polymerisation zone, (iii) separating the obtained polyolefin (a) from the unreacted products and recovering the separated polyolefin (a) in a recovery zone, wherein in step (i) the compressor lubricant comprises a non-mineral oil, wherein the polyolefin (a) is an unsaturated LDPE homopolymer, and comprises C=C groups in total amount of at least 0.2/1000 carbon atoms; and wherein the polymer comprises 10 to 250 ppm of the non-mineral oil. a polyolefin (a) and an inorganic filler (b) wherein the polyolefin (a) is obtainable by a high pressure process which process comprises the steps: (i) compressing ethylene under pressure in a compressor, using a compressor lubricant for lubrication, (ii) polymerising ethylene in a polymerisation zone, (iii) separating the obtained polyolefin (a) from the unreacted products and recovering the separated polyolefin (a) in a recovery zone, (i) compressing ethylene under pressure in a compressor, using a compressor lubricant for lubrication, (ii) polymerising ethylene in a polymerisation zone, (iii) separating the obtained polyolefin (a) from the unreacted products and recovering the separated polyolefin (a) in a recovery zone, wherein in step (i) the compressor lubricant comprises a non-mineral oil, wherein the polyolefin (a) is an unsaturated LDPE homopolymer, and comprises C=C groups in total amount of at least 0.2/1000 carbon atoms; and wherein the polymer comprises 10 to 250 ppm of the non-mineral oil.
A modified microorganism producing acrylic acid, wherein the microorganism is a beta-alanine-producing strain, comprising a act gene derived from Clostridium propionicum encoding a beta-alanine coenzyme A transferase, a acl2 gene derived from Clostridium propionicum encoding a beta-alanyl-CoA:ammonia lyase gene and a pct gene derived from Ralstonia eutropha encoding a propionate coenzyme A transferase; and wherein an acuI gene derived from Escherichia coli encoding acrylyl-coA reductase is deleted in the microorganism; and wherein the microorganism is Escherichia sp.
A vehicle, comprising: a display (109, 211) adapted to be mounted within and to a vehicle, wherein said display (109, 211) is adjustable within a range of display positions; a display positioning system coupled to said display; a vehicle seat adjustable within a range of seat positions; a vehicle seat position sensor, wherein said vehicle seat position sensor outputs seat position data corresponding to a current seat position, wherein said current seat position is within said range of seat positions; a control system coupled to said display positioning system and to said vehicle seat position sensor, wherein said control system monitors said seat position data and automatically adjusts said display (109, 211) with said display positioning system to a current display position within said range of display positions in response to said current seat position; a roof; and a roof headliner, characterized in that said display (109, 211) is linked to a guide track via a link (217, 1401), wherein said guide track is located between said roof headliner and a portion of said roof. a display (109, 211) adapted to be mounted within and to a vehicle, wherein said display (109, 211) is adjustable within a range of display positions; a display positioning system coupled to said display; a vehicle seat adjustable within a range of seat positions; a vehicle seat position sensor, wherein said vehicle seat position sensor outputs seat position data corresponding to a current seat position, wherein said current seat position is within said range of seat positions; a control system coupled to said display positioning system and to said vehicle seat position sensor, wherein said control system monitors said seat position data and automatically adjusts said display (109, 211) with said display positioning system to a current display position within said range of display positions in response to said current seat position; a roof; and a roof headliner,
A method for manufacturing a blade outer airseal comprising a body comprising: an inner diameter surface; an outer diameter surface; a leading end; a trailing end; a metallic substrate; and a coating system along the substrate along at least a portion of the inner diameter surface, wherein at least over a first area of the inner diameter surface, the coating system comprises an abradable layer, the method comprising thermal spray of a metallic matrix and a filler to produce the abradable layer, wherein the filler comprises oxide particles, and the filler is sprayed from a source having agglomerates or aggregates of said oxide particles, said particles having a D50 size of 10nm to 50nm, wherein a D50 size of the agglomerates or aggregates is 6 to 45 micrometers, and the metallic matrix is sprayed from a source having particles of the matrix with a D50 size of 22-90 micrometers, wherein the agglomerates or aggregates of said oxide particles form at least 20% by volume of the abradable layer. an inner diameter surface; an outer diameter surface; a leading end; a trailing end; a metallic substrate; and a coating system along the substrate along at least a portion of the inner diameter surface, wherein at least over a first area of the inner diameter surface, the coating system comprises an abradable layer, the method comprising thermal spray of a metallic matrix and a filler to produce the abradable layer, wherein the filler comprises oxide particles, and the filler is sprayed from a source having agglomerates or aggregates of said oxide particles, said particles having a D50 size of 10nm to 50nm, wherein a D50 size of the agglomerates or aggregates is 6 to 45 micrometers, and the metallic matrix is sprayed from a source having particles of the matrix with a D50 size of 22-90 micrometers, wherein the agglomerates or aggregates of said oxide particles form at least 20% by volume of the abradable layer.
A method of preparing a targeted temozolomide cationic liposome complex, comprising: (a) preparing a lipid solution comprising one or more cationic lipids in ethanol; (b) preparing a solution of temozolomide; (c) mixing the lipid solution with the solution of temozolomide; (d) injecting the mixture of lipid and temozolomide into an aqueous solution, thereby forming a temozolomide cationic liposome; (e) mixing the temozolomide cationic liposome with a targeting moiety to form the targeted temozolomide cationic liposome, wherein the targeting moiety is directly complexed with, but not chemically conjugated to, the cationic liposome. (a) preparing a lipid solution comprising one or more cationic lipids in ethanol; (b) preparing a solution of temozolomide; (c) mixing the lipid solution with the solution of temozolomide; (d) injecting the mixture of lipid and temozolomide into an aqueous solution, thereby forming a temozolomide cationic liposome; (e) mixing the temozolomide cationic liposome with a targeting moiety to form the targeted temozolomide cationic liposome, wherein the targeting moiety is directly complexed with, but not chemically conjugated to, the cationic liposome.
Water slide system having a, preferably circumferentially-closed, at least in sections translucent or transparent slide tube, in which a slide surface that can be wetted with water and extends in a slide direction is configured for a user, wherein lighting means visible from the inside of the slide tube are arranged on the outer surface of the slide tube for obtaining optical effects inside the slide tube, characterized in that the lighting means are formed of pixels arranged like a matrix, in particular LEDs, of at least one, preferably curved display module extending on the outer surface of the slide tube and over a circumferential section of the slide tube, which is actuatable and/or actuated for displaying two-dimensional and/or stereoscopic, preferably moving, images bent in the circumferential direction.
A method of providing scheduling information for delivery from a mobile radio communications device to a mobile radio communications network device within a mobile radio communications network and for use at the mobile radio communications network device for UL resource allocation at the mobile radio communications device and between a plurality of Radio Bearers, wherein each of that plurality of Radio Bearers has a Prioritized Bit Rate and comprises either a Guaranteed Bit Rate or Non-Guaranteed Bit Rate Radio Bearer; the method includes the steps of, at the mobile radio communications device, estimating the average bit rate transmitted for each of the plurality of Radio Bearers over a time period, and generating rate control data responsive to determination of one or more of: for each Guaranteed Bit Rate Radio Bearer whether a maximum Bit Rate has been reached; for each Guaranteed Bit Rate Radio Bearer whether the Prioritized Bit Rate has been reached; whether at least one of the Guaranteed Bit Rate Radio Bearers has been served during the said time period; whether a total estimated data rate for at least one Non-Guaranteed Bit Rate Radio Bearer does not exceed an Aggregate Maximum Bit Rate value; for each Non-Guaranteed Bit Rate Radio Bearer whether the Prioritized Bit Rate is achieved; and whether at least one Non-Guaranteed Bit Rate Radio Bearer is served during the said time period; and including the said rate control data within the said scheduling information. for each Guaranteed Bit Rate Radio Bearer whether a maximum Bit Rate has been reached; for each Guaranteed Bit Rate Radio Bearer whether the Prioritized Bit Rate has been reached; whether at least one of the Guaranteed Bit Rate Radio Bearers has been served during the said time period; whether a total estimated data rate for at least one Non-Guaranteed Bit Rate Radio Bearer does not exceed an Aggregate Maximum Bit Rate value; for each Non-Guaranteed Bit Rate Radio Bearer whether the Prioritized Bit Rate is achieved; and whether at least one Non-Guaranteed Bit Rate Radio Bearer is served during the said time period; and including the said rate control data within the said scheduling information.
A data management system comprising: a data acquisition unit configured to acquire measurement data obtained by measuring a measurement target from one or more sensors; a data recording unit configured to record the acquired measurement data; a data size reduction unit configured to generate reduced data obtained by reducing an amount of data of the recorded measurement data; a differential generating unit configured to generate differential data indicating a difference between the recorded measurement data and the reduced data for each sensor in time series; a differential recording unit configured to record the differential data for each sensor in time series; and a data transmission unit configured to transmit the reduced data to another data utilization apparatus utilizing data, wherein the data size reduction unit has a low-pass filter for processing the recorded measurement data, and is configured to low-pass filter the recorded measurement data and sample the filtered data with a wide interval to generate the reduced data. a data acquisition unit configured to acquire measurement data obtained by measuring a measurement target from one or more sensors; a data recording unit configured to record the acquired measurement data; a data size reduction unit configured to generate reduced data obtained by reducing an amount of data of the recorded measurement data; a differential generating unit configured to generate differential data indicating a difference between the recorded measurement data and the reduced data for each sensor in time series; a differential recording unit configured to record the differential data for each sensor in time series; and a data transmission unit configured to transmit the reduced data to another data utilization apparatus utilizing data, wherein the data size reduction unit has a low-pass filter for processing the recorded measurement data, and is configured to low-pass filter the recorded measurement data and sample the filtered data with a wide interval to generate the reduced data.
A filling method of an inhaler composition, characterized in that a composition - having a bulk density ranging from 0.48 to 0.56 g/mL, a compressed density ranging from 0.78 to 0.92 g/mL, and a d particle size ranging from 30 to 50 μm, and - comprising 0.2 to 1.7% by weight of salmeterol with a d particle size distribution ranging from 1 to 3 μm and 0.2 to 17.0% by weight of fluticasone with a particle size distribution ranging from 1 to 3 μm, - 1 to 20% by weight of fine particle lactose with a d particle size ranging from 2 to 10 μm, and 80 to 99% by weight of coarse particle lactose with a d particle size ranging from 50 to 120 μm, is taken into a reservoir by applying a vacuum of 50000 Pa (500 mBar) to 8000 Pa (80 mBar) and then stopping the applied vacuum and transferring the composition into the blister cavity, wherein the particle size measurement is conducted by laser diffraction and the particle size is measured by volume. - having a bulk density ranging from 0.48 to 0.56 g/mL, a compressed density ranging from 0.78 to 0.92 g/mL, and a d particle size ranging from 30 to 50 μm, and - comprising 0.2 to 1.7% by weight of salmeterol with a d particle size distribution ranging from 1 to 3 μm and 0.2 to 17.0% by weight of fluticasone with a particle size distribution ranging from 1 to 3 μm, - 1 to 20% by weight of fine particle lactose with a d particle size ranging from 2 to 10 μm, and 80 to 99% by weight of coarse particle lactose with a d particle size ranging from 50 to 120 μm, is taken into a reservoir by applying a vacuum of 50000 Pa (500 mBar) to 8000 Pa (80 mBar) and then stopping the applied vacuum and transferring the composition into the blister cavity,