mhurhangee/ep-ind-claims huggingface dataset:
Operating method for a pickling line in which a number of strips to be pickled that respectively have the initial material properties are to be pickled, the operating method having the following steps: a) a computer sets a number of sequences (Gi), which respectively contain the number of strips to be pickled, b) the computer determines for the set sequences (Gi) a respective optimized operating mode of the pickling line by means of a model of the pickling line based on mathematical-physical equations and by using their initial material properties and determines at least one respective measure on the basis of the operating mode, c) as long as a termination criterion is not satisfied, the computer varies the set sequences (Gi) according to an amendment specification and returns to step b), d) as soon as the termination criterion is satisfied, the computer either selects one of the last-set sequences (Gi) and initiates the control of the pickling line according to the selected sequence (Gi) or offers a number of the last-set sequences (Gi) together with their respective measure to an operator for selection, receives from the operator a selection command for selecting one of the sequences (Gi) offered and initiates the control of the pickling line according to the sequence (Gi) selected by the operator, it being possible for the following to be determined according to requirements as the termination criterion: • that no improvements or only marginal improvements of the best measure have occurred during a number of successive iterations, and/or • that a specified maximum number of iterations has been reached and/or • that a sequence of strips that is deemed to be sufficiently good is determined. a) a computer sets a number of sequences (Gi), which respectively contain the number of strips to be pickled, b) the computer determines for the set sequences (Gi) a respective optimized operating mode of the pickling line by means of a model of the pickling line based on mathematical-physical equations and by using their initial material properties and determines at least one respective measure on the basis of the operating mode, c) as long as a termination criterion is not satisfied, the computer varies the set sequences (Gi) according to an amendment specification and returns to step b), d) as soon as the termination criterion is satisfied, the computer either selects one of the last-set sequences (Gi) and initiates the control of the pickling line according to the selected sequence (Gi) or offers a number of the last-set sequences (Gi) together with their respective measure to an operator for selection, receives from the operator a selection command for selecting one of the sequences (Gi) offered and initiates the control of the pickling line according to the sequence (Gi) selected by the operator, • that no improvements or only marginal improvements of the best measure have occurred during a number of successive iterations, and/or • that a specified maximum number of iterations has been reached and/or • that a sequence of strips that is deemed to be sufficiently good is determined.
A melt-processable thermoplastic polyurethane comprising the reaction product of: an aromatic diisocyanate selected from the group consisting of 4,4'-diphenylmethane diisocyanate, 2,2'-dimethyl- 4,4'-biphenyldiisocyanate, 3,3'-dimethyl-4,4'-biphenyl diisocyanate, and combinations thereof; at least one polyglycol selected from the group consisting of polyethylene oxide glycol, polypropylene oxide glycol, polytetramethylene ether glycol (PTMEG), and combinations thereof; and at least one chain extender selected from the group consisting of 2,2-dimethyl-1,3-propanediol, 2-methyl-1,3-propanediol, and combinations thereof; and optionally, an amine-terminated polyether. an aromatic diisocyanate selected from the group consisting of 4,4'-diphenylmethane diisocyanate, 2,2'-dimethyl- 4,4'-biphenyldiisocyanate, 3,3'-dimethyl-4,4'-biphenyl diisocyanate, and combinations thereof; at least one polyglycol selected from the group consisting of polyethylene oxide glycol, polypropylene oxide glycol, polytetramethylene ether glycol (PTMEG), and combinations thereof; and at least one chain extender selected from the group consisting of 2,2-dimethyl-1,3-propanediol, 2-methyl-1,3-propanediol, and combinations thereof; and optionally, an amine-terminated polyether.
A segmentation selection system, comprising: a transducer configured to transmit and receive ultrasound imaging energy for generating imaging data for imaging a subject; at least one signal processor (26, 28, 29) configured to process the imaging data received to generate processed image data for imaging the subject; a segmentation module configured to generate a plurality of segmentations of the subject based on one or more combinations of input data and at least one segmentation metric, wherein the input data comprises the imaging data and/or the processed image data, wherein the segmentation metric is a calculated image quantity used to characterize tissue regions of the subject; and a selection mechanism configured to select, manually or automatically, at least one of the plurality of segmentations; characterized in that the input data that is used to generate the plurality of segmentations includes at least the imaging data, wherein the imaging data includes at least one of raw radiofrequency data and envelope detection data; and in that the selection mechanism is configured to select, manually or automatically, the at least one of the plurality of segmentations that best meets a criterion for performing an operative procedure or other clinical task. a transducer configured to transmit and receive ultrasound imaging energy for generating imaging data for imaging a subject; at least one signal processor (26, 28, 29) configured to process the imaging data received to generate processed image data for imaging the subject; a segmentation module configured to generate a plurality of segmentations of the subject based on one or more combinations of input data and at least one segmentation metric, wherein the input data comprises the imaging data and/or the processed image data, wherein the segmentation metric is a calculated image quantity used to characterize tissue regions of the subject; and a selection mechanism configured to select, manually or automatically, at least one of the plurality of segmentations; characterized in that the input data that is used to generate the plurality of segmentations includes at least the imaging data, wherein the imaging data includes at least one of raw radiofrequency data and envelope detection data; and in that the selection mechanism is configured to select, manually or automatically, the at least one of the plurality of segmentations that best meets a criterion for performing an operative procedure or other clinical task.
The use of an aqueous polymer dispersion comprising dispersed particles of at least one polymer A1 obtainable by free-radical emulsion polymerization in the presence of a polymer A2 synthesized from - from 50 to 99.5% by weight of at least one ethylenically unsaturated monocarboxylic and/or dicarboxylic acid, - from 0.5 to 50% by weight of at least one ethylenically unsaturated compound selected from the esters of ethylenically unsaturated monocarboxylic acids and the monoesters and diesters of ethylenically unsaturated dicarboxylic acids with an amine containing at least one hydroxyl group, - up to 20% by weight of at least one further monomer as a binder for producing filter materials. - from 50 to 99.5% by weight of at least one ethylenically unsaturated monocarboxylic and/or dicarboxylic acid, - from 0.5 to 50% by weight of at least one ethylenically unsaturated compound selected from the esters of ethylenically unsaturated monocarboxylic acids and the monoesters and diesters of ethylenically unsaturated dicarboxylic acids with an amine containing at least one hydroxyl group, - up to 20% by weight of at least one further monomer
A lead having a metal core, a dielectric layer at least partially surrounding the metal core, the dielectric layer in turn being at least partially surrounded by a ground connectable metal coating, characterized in that the lead further has at least one vapor barrier coating for protecting areas that are not covered by metal.
Electrically driven single-axle tractor for coupling with, and powering of, various pieces of equipment, comprising: - a frame; - a drive axle, connected to the tractor frame, provided with one pair of wheels; - a primary electric motor coupled to the drive axle; - an equipment drive shaft for releasable coupling with a piece of equipment; and, - at least one electrical energy source, as power supply of the primary electric 2. motor; wherein the tractor is further provided with at least one secondary electric motor, which secondary electric motor is coupled to the equipment drive shaft, wherein the at least one electrical energy source is also a power supply of the secondary electric motor, and wherein the primary electric motor is only connecting to the wheels on the drive axle and the secondary electric motor is only connecting to the equipment drive shaft, characterised in that the drive axle and the equipment drive shaft are mutually substantially perpendicular oriented. - a frame; - a drive axle, connected to the tractor frame, provided with one pair of wheels; - a primary electric motor coupled to the drive axle; - an equipment drive shaft for releasable coupling with a piece of equipment; and, - at least one electrical energy source, as power supply of the primary electric 2. motor;
An extensible optical signal transmission cable having an extensity of 10% or more and an optical transmission loss of 10 dB/m or less when the cable is loosened, wherein the cable comprises an elastic cylinder having the extensity of 10% or more, and at least one optical fiber (2, 3) wound around said elastic cylinder, wherein the bending diameter R of said optical fiber (2, 3) is not smaller than the limit bending diameter Re, the variation Rr, with Rr=Rmax-Rmin, of the bending diameter is 0≤Rr≤Rave, Rave being the average bending diameter which is determined by observing a winding state at arbitrary five or more places in a loosened state, and characterized in that the residual torque rate of said optical fiber (2, 3)is 30 % or less, wherein the residual torque rate represents a value determined by the following expression: Residual torque rate = 100 * 10 − N / 10 %, wherein N represents the number of turns determined by the following steps of: letting stand still the extensible optical signal transmission cable for at least 2 hours under a standard condition at a temperature of 20 °C and at a relative humidity of 65 %; cutting a 10-turned optical fiber, wherein 1 turn means 1 pitch, from the cable, unwinding the optical fiber from the cable without stretching the optical fiber; letting stand still the unwound optical fiber under the standard condition for 10 minutes; and measuring the number of turns of the optical fiber. letting stand still the extensible optical signal transmission cable for at least 2 hours under a standard condition at a temperature of 20 °C and at a relative humidity of 65 %; cutting a 10-turned optical fiber, wherein 1 turn means 1 pitch, from the cable, unwinding the optical fiber from the cable without stretching the optical fiber; letting stand still the unwound optical fiber under the standard condition for 10 minutes; and measuring the number of turns of the optical fiber.
Reusable formwork for the in situ production of concrete slabs for the trafficability of an in particular single-track railway tunnel with a vehicle having tires, in particular an emergency vehicle, comprising - a formwork frame (24, 26) with a first frame element and with two second frame elements that extend parallel to each other and at right angles to the first frame element, - wherein at least the first frame element comprises at least two frame element parts (34, 36), - wherein adjacent frame element parts (34, 36) of the first frame element are interconnected, - one clamping/releasing unit (42, 60) per pair of interconnected frame element parts, - each clamping/releasing unit (42, 60) comprises a clamping lever (44, 46, 70) that can be moved between a clamping position in which the two frame element parts are braced against one another, and a releasing position in which the two frame element parts are spaced from one another while their mechanical connection is maintained, and - at least one spacer element arranged on one of the frame element parts of the first frame element for abutment on a rail (14, 16) of a track running through the tunnel, - wherein the spacer element is arranged to be foldable on or removable from the respective frame element part. - a formwork frame (24, 26) with a first frame element and with two second frame elements that extend parallel to each other and at right angles to the first frame element, - wherein at least the first frame element comprises at least two frame element parts (34, 36), - wherein adjacent frame element parts (34, 36) of the first frame element are interconnected, - one clamping/releasing unit (42, 60) per pair of interconnected frame element parts, - each clamping/releasing unit (42, 60) comprises a clamping lever (44, 46, 70) that can be moved between a clamping position in which the two frame element parts are braced against one another, and a releasing position in which the two frame element parts are spaced from one another while their mechanical connection is maintained, and - at least one spacer element arranged on one of the frame element parts of the first frame element for abutment on a rail (14, 16) of a track running through the tunnel, - wherein the spacer element is arranged to be foldable on or removable from the respective frame element part.
A method for facilitating wireless communication, comprising: receiving, by a base station distributed unit, DU, a User Equipment, UE context modification request from a base station centralized unit, CU, via an F1 interface, characterized by the UE context modification request comprising CU to DU Radio Resource Control, RRC, information that includes information about a user equipment, UE, the information related to the UE comprising UE assistance information, or sidelink information that includes at least one of a destination identity, a frequency of interest, service Quality of Service, QoS information, or a communication type; transmitting, from the base station DU to the base station CU, a UE context modification response via the F1 interface, wherein the UE context modification response includes DU to CU RRC information indicating sidelink resource configuration for the UE; and wherein prior to receiving the UE context modification request: receiving, by the base station DU from the base station CU a UE context setup request that includes PC5 Quality of Service, QoS, information and CU part sidelink bearer configuration; and transmitting, from the base station DU to the base station CU, a UE context setup response indicating DU part sidelink bearer configuration. receiving, by a base station distributed unit, DU, a User Equipment, UE context modification request from a base station centralized unit, CU, via an F1 interface, characterized by the UE context modification request comprising CU to DU Radio Resource Control, RRC, information that includes information about a user equipment, UE, the information related to the UE comprising UE assistance information, or sidelink information that includes at least one of a destination identity, a frequency of interest, service Quality of Service, QoS information, or a communication type; transmitting, from the base station DU to the base station CU, a UE context modification response via the F1 interface, wherein the UE context modification response includes DU to CU RRC information indicating sidelink resource configuration for the UE; and wherein prior to receiving the UE context modification request: receiving, by the base station DU from the base station CU a UE context setup request that includes PC5 Quality of Service, QoS, information and CU part sidelink bearer configuration; and transmitting, from the base station DU to the base station CU, a UE context setup response indicating DU part sidelink bearer configuration. receiving, by the base station DU from the base station CU a UE context setup request that includes PC5 Quality of Service, QoS, information and CU part sidelink bearer configuration; and transmitting, from the base station DU to the base station CU, a UE context setup response indicating DU part sidelink bearer configuration.
Process for exfoliating organically modified sheet silicates, wherein: a resin component and the sheet silicate are mixed without the use of solvents to give a flowable mixture; the mixture is subjected to high-pressure dispersion at a pressure of more than 50 bar and a temperature of more than 0°C and then depressurized to atmospheric pressure, with the operation of high-pressure dispersion of the mixture being carried out over a period of up to 90 minutes. a resin component and the sheet silicate are mixed without the use of solvents to give a flowable mixture; the mixture is subjected to high-pressure dispersion at a pressure of more than 50 bar and a temperature of more than 0°C and then depressurized to atmospheric pressure, with the operation of high-pressure dispersion of the mixture being carried out over a period of up to 90 minutes.
A method for producing contents filled in a container comprising steps of: introducing a polyester container with a non-crystallized neck portion into a sterilized closed space having sterility and closed state on a commercial basis and comprising at least space in which a bottle sterilizing process is performed, space in which a filling process is performed and space in which a sealing process is performed, entire inner surface of said sterilized closed space and surface of an apparatus disposed in said sterilized closed space being sterilized by wet heating of the space using heated water and/or steam, at feast the space in which the filling process is performed and the space in which the sealing process is performed being kept under a positive pressure by sterilized air; heating and sterilizing the container at least in its inner surface by wet heating using hot water and/or steam; and filling the contents in the sterilized container at a filling temperature within a temperature range from 40 °C to a temperature less than glass transition temperature which is determined by moisture content of the container and then sealing the container. introducing a polyester container with a non-crystallized neck portion into a sterilized closed space having sterility and closed state on a commercial basis and comprising at least space in which a bottle sterilizing process is performed, space in which a filling process is performed and space in which a sealing process is performed, entire inner surface of said sterilized closed space and surface of an apparatus disposed in said sterilized closed space being sterilized by wet heating of the space using heated water and/or steam, at feast the space in which the filling process is performed and the space in which the sealing process is performed being kept under a positive pressure by sterilized air; heating and sterilizing the container at least in its inner surface by wet heating using hot water and/or steam; and filling the contents in the sterilized container at a filling temperature within a temperature range from 40 °C to a temperature less than glass transition temperature which is determined by moisture content of the container and then sealing the container.
A semiconductor device comprising: a p-type first diamond semiconductor layer; a p-type second diamond semiconductor layer disposed on the first diamond semiconductor layer, the p-type second diamond semiconductor layer having a p-type impurity concentration lower than a p-type impurity concentration of the first diamond semiconductor layer and having oxygen-terminated surfaces; a plurality of n-type third diamond semiconductor layers disposed on the second diamond semiconductor layer, each having an oxygen-terminated surface; and a first electrode disposed on the second diamond semiconductor and the third diamond semiconductor layers, the first electrode forming first junctions between the first electrode and the second diamond semiconductor, the first electrode forming second junctions between the first electrode and the third diamond semiconductor layers, the first junctions and the second junctions being Schottky junctions. a p-type first diamond semiconductor layer; a p-type second diamond semiconductor layer disposed on the first diamond semiconductor layer, the p-type second diamond semiconductor layer having a p-type impurity concentration lower than a p-type impurity concentration of the first diamond semiconductor layer and having oxygen-terminated surfaces; a plurality of n-type third diamond semiconductor layers disposed on the second diamond semiconductor layer, each having an oxygen-terminated surface; and a first electrode disposed on the second diamond semiconductor and the third diamond semiconductor layers, the first electrode forming first junctions between the first electrode and the second diamond semiconductor, the first electrode forming second junctions between the first electrode and the third diamond semiconductor layers, the first junctions and the second junctions being Schottky junctions.
Facade reinforcement installation, including an interim element and a brace with an initial brace section to fasten the brace onto a structure wall and a second brace section for at least indirect connection to a facade element, whereby the first brace section exhibits an initial opening to arrange the interim element, whereby the interim element exhibits a second opening for accessing a reinforcement element to fasten the first brace section onto the structure wall, whereby the interim element is adjustable relative to the first brace section before the final assembly of the reinforcement element, and primarily rotatable, whereby the interim element extends from a front side to a back side and exhibits material sections (74, 76) between two parallel levels (70, 72), whereby an initial material section is bordered by the front side and protrudes outward via a second material section around a ring-shaped contact surface that forms a backward edge to the first material section, whereby the second material section exhibits a guiding surface that can only be inserted into the first opening of the first brace section for assembly of the installation, whereby the contact surface serves to make contact with a front side of the first brace section of the brace, so that the insertion path of the guiding surface of the second material section of the interim element is limited bordered in the first opening of the first brace section, whereby a central axis of the second opening is positioned toward a central axis of the first opening when the guiding surface of the interim element passes into the first opening, distinguished by the fact that the interim element is designed as a stamping/imprinting piece, whereby the second material section is shaped from the first material section.