mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising: partially reacted organo-functional alkoxysilanes comprising the reaction products of reactants comprising: (i) an amino-functional alkoxysilane; (ii) an organo-functional alkoxysilane, wherein the organo group is reactive with a thiol group; and (iii) water; and an alcohol. (i) an amino-functional alkoxysilane; (ii) an organo-functional alkoxysilane, wherein the organo group is reactive with a thiol group; and (iii) water; and an alcohol.
Device for selection of a type of bearer channel (D1, D2; D1', D2') for broadcasting contents between a service platform, adapted to set up point-to-point and point-to-multipoint type bearer channels, and a communication terminal, each content being associated with at least one set of broadcast parameters defining at least the type of the bearer channel for broadcasting it and the frequency channel on which it is broadcast on a bearer channel of said type, characterized in that it comprises i) control means (MC1; MC2) adapted, in case of selection of a content by the user of a communication terminal, to determine data representing at least one set of broadcast parameters associated with said selected content, and ii) selection means (MS1; MS2) adapted, in the presence of a set that has been determined designating an accessible point-to-multipoint bearer channel, to communicate to said terminal the broadcast parameters of said set so that it can receive said selected content on said designated point-to-multipoint type bearer channel, and if not, to request the creation by said service platform of a point-to-point type bearer channel with said terminal so that it can receive said selected content on said point-to-point type bearer channel that has been created.
A radioactive nanoparticle comprising: a metal nanoparticle core; an outer metal shell disposed over the metal nanoparticle core; and a metallic radioisotope disposed within the outer metal shell, wherein the radioactive nanoparticle has a size of 30-500 nm in three dimensions, and wherein the metal nanoparticle core and the outer metal shell are formed from one or more of elemental Fe, Co, Rh, lr, Ni, Pd, Pt, Cu, Ag, Sm, or Au. a metal nanoparticle core; an outer metal shell disposed over the metal nanoparticle core; and a metallic radioisotope disposed within the outer metal shell, wherein the radioactive nanoparticle has a size of 30-500 nm in three dimensions, and wherein the metal nanoparticle core and the outer metal shell are formed from one or more of elemental Fe, Co, Rh, lr, Ni, Pd, Pt, Cu, Ag, Sm, or Au.
A method, in an encoding system, for reducing bandwidth needed by produced streams of image frames, comprising: segmenting image frames in a stream of image frames into one or more background areas and one or more objects; creating a background image frame that contains the one or more background areas; receiving a user selection from a list of object types, the user selection indicating which types of objects should be considered movable objects of interest and movable objects of non-interest; classifying at least some of the one or more objects into movable objects of interest and into movable objects of non-interest; updating, during a background update time period, the background image frame when a movable object of non-interest has moved to reveal a further background area, to include the further background area in the background image frame; creating a foreground image frame that contains the movable objects of interest, wherein the background image frame and the foreground image frame exclude the movable objects of non-interest; encoding blocks of pixels of the updated background image frame; encoding blocks of pixels of the foreground image frame; producing a stream of encoded foreground image frames having a first frame rate; and producing a stream of encoded updated background image frames having a second frame rate that is lower than the first frame rate. segmenting image frames in a stream of image frames into one or more background areas and one or more objects; creating a background image frame that contains the one or more background areas; receiving a user selection from a list of object types, the user selection indicating which types of objects should be considered movable objects of interest and movable objects of non-interest; classifying at least some of the one or more objects into movable objects of interest and into movable objects of non-interest; updating, during a background update time period, the background image frame when a movable object of non-interest has moved to reveal a further background area, to include the further background area in the background image frame; creating a foreground image frame that contains the movable objects of interest, wherein the background image frame and the foreground image frame exclude the movable objects of non-interest; encoding blocks of pixels of the updated background image frame; encoding blocks of pixels of the foreground image frame; producing a stream of encoded foreground image frames having a first frame rate; and producing a stream of encoded updated background image frames having a second frame rate that is lower than the first frame rate.
A random access response message (502, 603, 902) for transmission from a base station to a mobile station in a random access procedure, the random access response message (502, 603, 902) comprising: a resource grant field for granting resources to a mobile terminal for a scheduled uplink transmission, and a transmission mode indicator indicating whether or not a Transmission Time Interval, TTI, bundling mode is to be used by the mobile terminal for the scheduled uplink transmission, and, when the TTI bundling mode is to be used, a field indicating a TTI bundle size, wherein in the TTI bundling mode, the mobile terminal is sending redundancy versions of the same transport block within a number of consecutive transmission time intervals, indicated by the TTI bundle size, on the granted resources.
An apparatus configured to determine an adopted intra prediction mode on the basis of a most probable modes list, a selected modes list and a non-selected modes list, wherein the adopted intra prediction mode is one of a plurality of intra prediction modes comprising a plurality of angular intra prediction modes for predicting sample values of a current picture block, wherein the apparatus comprises: a processing unit configured to: generate at least a portion of the most probable modes list of intra prediction modes by including intra prediction modes adopted for neighboring picture blocks of the current picture block in the most probable modes list, generate at least a portion of the selected modes list of intra prediction modes by including intra prediction modes adopted for neighboring picture blocks of the neighboring picture blocks of the current picture block in the selected modes list, wherein the neighboring picture blocks of the neighboring picture blocks of the current picture block are not direct neighboring blocks of the current picture block. generate at least a portion of the most probable modes list of intra prediction modes by including intra prediction modes adopted for neighboring picture blocks of the current picture block in the most probable modes list, generate at least a portion of the selected modes list of intra prediction modes by including intra prediction modes adopted for neighboring picture blocks of the neighboring picture blocks of the current picture block in the selected modes list, wherein the neighboring picture blocks of the neighboring picture blocks of the current picture block are not direct neighboring blocks of the current picture block.
An injector control system for a coiled tubing unit, the injector control system comprising: a programmable logic controller arranged to receive a signal related to sensed parameters of a coiled tubing injection operation; a traction pressure control hydraulic circuit operable to adjust hydraulic pressure provided to at least one traction cylinder in a coiled tubing injection head; a motor pressure control hydraulic circuit operable to adjust hydraulic pressure provided to at least one motor of the coiled tubing injection head; and at least one of the traction pressure control hydraulic circuit and the motor pressure control hydraulic circuit including a proportional control valve (86, 88) in receipt of a variable electrical signal (80, 82) from the programmable logic controller, wherein the programmable logic controller adjusts the signal (80, 82) delivered to the proportional control valve (86, 88) throughout the coiled tubing injection operation as dictated by the sensed parameters, and wherein the traction pressure control hydraulic circuit includes a traction valve controllable by operator input and the proportional control valve in receipt of the signal from the programmable logic controller, and the signal from the programmable logic controller operates the proportional control valve to prevent the traction valve from providing hydraulic pressure to the at least one traction cylinder that is lower than a minimum value required by the coiled tubing injection operation. a programmable logic controller arranged to receive a signal related to sensed parameters of a coiled tubing injection operation; a traction pressure control hydraulic circuit operable to adjust hydraulic pressure provided to at least one traction cylinder in a coiled tubing injection head; a motor pressure control hydraulic circuit operable to adjust hydraulic pressure provided to at least one motor of the coiled tubing injection head; and at least one of the traction pressure control hydraulic circuit and the motor pressure control hydraulic circuit including a proportional control valve (86, 88) in receipt of a variable electrical signal (80, 82) from the programmable logic controller, wherein the programmable logic controller adjusts the signal (80, 82) delivered to the proportional control valve (86, 88) throughout the coiled tubing injection operation as dictated by the sensed parameters, and wherein the traction pressure control hydraulic circuit includes a traction valve controllable by operator input and the proportional control valve in receipt of the signal from the programmable logic controller, and the signal from the programmable logic controller operates the proportional control valve to prevent the traction valve from providing hydraulic pressure to the at least one traction cylinder that is lower than a minimum value required by the coiled tubing injection operation.
Cooking appliance with a housing, in which a drawer is guided in a longitudinally displaceable manner, in which a grill plate, or another cooking product support is attached, wherein, in the housing above the cooking product support, an upper hot plate is pivotably mounted on a first lever and on a second lever, the other ends of which are pivotably (17, 21) mounted on the housing, characterized in that the drawer comprises a lower hot plate, which includes the grill plate or the other cooking product support and a heat generator, wherein, between the grill plate or the other cooking product support, on the one side, and the heat generator on the other side, a cover is arranged.
An array with magnetoresistive memory cells arranged in logically organized rows and columns, each memory cell including a magnetoresistive element (32, 32A, 32B), the array comprising a set of column lines, a column line being a continuous conductive strip which is magnetically couplable to the magnetoresistive element (32, 32A, 32B) of each of the memory cells of a column (35A, 35B), each column line being shared by two adjacent columns (35A, 35B) of magnetoresistive memory cells to allow a wider pitch of the set of column lines in the array, the array furthermore comprising at least one supplementary column line (36A, 36B) per column of magnetoresistive memory cells for generating a localized magnetic field in the magnetoresistive elements (32A, 32B) of one of the adjacent columns (35A, 35B) sharing the column line, wherein the shared column line has an area which extends over at least the magnetoresistive elements (32, 32A, 32B) of both adjacent columns (35A, 35B) sharing that column line.
Method for continuous production of partially crystalline polycondensate granules, comprising the steps: a) moulding a polycondensate melt into granules with addition of a liquid cooling medium which has a temperature below the glass transition point (Tg) of the polycondensate, and cooling to an average granule temperature within the crystallisation temperature range of the polycondensate, wherein the cooling takes place before or during or after the moulding into granules, b) separating the liquid cooling medium from the granules in a first treatment space, wherein the granules after emergence from the first treatment space have a temperature T GR, and c) crystallising the granules in a second treatment space, characterized in that in the second treatment space conditions of a fluidized bed are present and the granules in the second treatment space are heated by energy input from outside by means of a process gas, wherein the process gas has a temperature T Gas which is greater than the sum of the granule temperature T GR and the temperature increase T KR arising due to heat of crystallization released in the second treatment space, i.e. T Gas > (T GR + T KR), and wherein the granules at the exit from the second treatment space have an average temperature T PH which is greater by 5 to 70°C than the sum of the granule temperature T GR and the temperature increase T KR arising due to heat of crystallization released in the second treatment space, i.e. (T GR + T KR + 70°C) ≥ T PH ≥ (T GR + T KR + 5°C). a) moulding a polycondensate melt into granules with addition of a liquid cooling medium which has a temperature below the glass transition point (Tg) of the polycondensate, and cooling to an average granule temperature within the crystallisation temperature range of the polycondensate, wherein the cooling takes place before or during or after the moulding into granules, b) separating the liquid cooling medium from the granules in a first treatment space, wherein the granules after emergence from the first treatment space have a temperature T GR, and c) crystallising the granules in a second treatment space,
A batch fermentation process for fermenting a starch hydrolysate containing 80-98 weight percent of glucose based on total carbohydrate and 0.3-5% weight percent of isomaltose based on total carbohydrate to a fermentation product, comprising: a) forming a fermentation broth containing a first portion of a total amount of the starch hydrolysate so that the fermentation broth has an initial glucose concentration of at least 50 g/L; b) fermenting the starch hydrolysate in the fermentation broth in an initial fermentation step to produce a fermentation product until the fermentation broth contains 30 g/L or less of glucose; c) adding to the fermentation broth an effective amount of at least one active enzyme that converts isomaltose into glucose; d) feeding the remaining portion of the total amount of starch hydrolysate containing 80-98 weight percent of glucose based on total carbohydrate and 0.3-5% weight percent of isomaltose based on total carbohydrate into the fermentation broth to maintain a glucose concentration of from 5 to 15 g/L in the fermentation broth throughout the feeding step; and e) producing a final fermentation broth containing the fermentation product; wherein the fermentation product comprises an organic acid selected from the group consisting of hydroxyl carboxylic acids, dicarboxylic acids, and tricarboxylic acids; or wherein the fermentation product is selected from the group consisting of lactic acid, citric acid, malonic acid, hydroxy butyric acid, adipic acid, lysine, keto-glutaric acid, glutaric acid, 3-hydroxy-proprionic acid, succinic acid, malic acid, fumaric acid, itaconic acid, muconic acid, methacrylic acid, and acetic acid. a) forming a fermentation broth containing a first portion of a total amount of the starch hydrolysate so that the fermentation broth has an initial glucose concentration of at least 50 g/L; b) fermenting the starch hydrolysate in the fermentation broth in an initial fermentation step to produce a fermentation product until the fermentation broth contains 30 g/L or less of glucose; c) adding to the fermentation broth an effective amount of at least one active enzyme that converts isomaltose into glucose; d) feeding the remaining portion of the total amount of starch hydrolysate containing 80-98 weight percent of glucose based on total carbohydrate and 0.3-5% weight percent of isomaltose based on total carbohydrate into the fermentation broth to maintain a glucose concentration of from 5 to 15 g/L in the fermentation broth throughout the feeding step; and e) producing a final fermentation broth containing the fermentation product;
System comprising a plurality of medical devices, which are connected to a common supply system, wherein the system has an evaluation unit which is connected to all devices of the system and which is configured such that measured values determined in the different devices by means of a sensor, which relate to corresponding parameters are compared with an expected value for recognizing errors of the supply system and/or of an individual medical device, characterized in that the evaluation unit is configured such that an error of the supply system is identified if values of a plurality of multiple devices or of all the devices of the system belonging to corresponding parameters deviate from the expected value, and the evaluation unit is furthermore configured such, that an error of an individual device is identified, if only one value belonging to a corresponding parameter of a device of the system deviates from the expected value.
A method performed by a wireless device relating to registering with an Internet Protocol Multimedia Subsystem, IMS, network slice or initiating a session using a IMS network slice, the method comprising: sending (500, 700) a message to an IMS node via a radio access network, the message comprising an identifier of a desired IMS network slice, wherein the message is a first registration message for registration of the wireless device with the desired IMS network slice, wherein the message comprises an Internet Protocol Multimedia Private Identity, IMPI, and an Internet Protocol Multimedia Public Identity, IMPU, of the wireless device, wherein each IMS network slice has a separate Serving Call Session Control Function, S-CSCF, wherein sending the message comprises sending the message to a selected Proxy Call Session Control Function, P-CSCF, and the method further comprises selecting the P-CSCF from two or more P-CSCFs based on the identifier of the desired IMS network slice, wherein the IMS node is the appropriate P-CSCF selected, and wherein the P-CSCF may be associated with one or more IMS slices. sending (500, 700) a message to an IMS node via a radio access network, the message comprising an identifier of a desired IMS network slice, wherein the message is a first registration message for registration of the wireless device with the desired IMS network slice, wherein the message comprises an Internet Protocol Multimedia Private Identity, IMPI, and an Internet Protocol Multimedia Public Identity, IMPU, of the wireless device, wherein each IMS network slice has a separate Serving Call Session Control Function, S-CSCF, wherein sending the message comprises sending the message to a selected Proxy Call Session Control Function, P-CSCF, and the method further comprises selecting the P-CSCF from two or more P-CSCFs based on the identifier of the desired IMS network slice, wherein the IMS node is the appropriate P-CSCF selected, and wherein the P-CSCF may be associated with one or more IMS slices.
A method for manufacturing a heat exchanger with die-cast elements, the method comprising: - a die-casting step for die-casting at least one element of a heat exchanger by means of at least one die provided by two die parts (2,3) defining a form in which die-casting occurs, and - a positioning step for positioning at least one contoured duct completely inside said form of said die, performed prior to said die-casting step wherein said at least one contoured duct is provided by a metallic tube, characterized by the step of cooling said metallic tube by means of an internal circulation of a liquid. - a die-casting step for die-casting at least one element of a heat exchanger by means of at least one die provided by two die parts (2,3) defining a form in which die-casting occurs, and - a positioning step for positioning at least one contoured duct completely inside said form of said die, performed prior to said die-casting step wherein said at least one contoured duct is provided by a metallic tube, characterized by the step of cooling said metallic tube by means of an internal circulation of a liquid.
A method performed by a user device to implement a user device-initiated request for resource configuration, the method comprising: determining, by the user device, conditions related to communicating with a base station over a wireless connection; selecting, by the user device and based on the determined conditions, a schedule for uplink and downlink orthogonal frequency-division multiplexing (OFDM) symbols within a resource of the wireless connection; and transmitting, to the base station, a request to communicate with the base station, the request identifying the selected schedule for uplink and downlink OFDM symbols within the resource of the wireless connection. determining, by the user device, conditions related to communicating with a base station over a wireless connection; selecting, by the user device and based on the determined conditions, a schedule for uplink and downlink orthogonal frequency-division multiplexing (OFDM) symbols within a resource of the wireless connection; and transmitting, to the base station, a request to communicate with the base station, the request identifying the selected schedule for uplink and downlink OFDM symbols within the resource of the wireless connection.