mhurhangee/ep-ind-claims huggingface dataset:
A can production factory management and monitoring system for one or more can production factories (40A, 40B, 40C), wherein each can production factory comprises a can production line formed from multiple machines including a cupper, a necker and a bodymaker: characterised in that the can production factory management and monitoring system comprises: a processing unit structured to receive data from a plurality of sensors (44,45,46) structured to monitor one or more of said can production factories (40A,40B,40C) or said multiple machines (41,42,43) included in the factories, to analyze the received data, and to generate a user interface including the received data or information resulting from analysis of the received data; a display structured to display the user interface; and an input device structured to receive input from the user, and wherein the user interface is interactive responsive to inputs received via the input device, wherein the user interface includes a plurality of views, wherein the processing unit is structured to switch between the plurality of views based on input received via the input device, and wherein the plurality of views includes a first view including received data or information resulting from analysis of the received data associated with a cupper or a necker in a single one of said one or more can production factories and a second view including received data or information resulting from analysis of the received data associated with at least said cupper, said necker, and said bodymaker in said single one factory. a processing unit structured to receive data from a plurality of sensors (44,45,46) structured to monitor one or more of said can production factories (40A,40B,40C) or said multiple machines (41,42,43) included in the factories, to analyze the received data, and to generate a user interface including the received data or information resulting from analysis of the received data; a display structured to display the user interface; and an input device structured to receive input from the user, and wherein the user interface is interactive responsive to inputs received via the input device, wherein the user interface includes a plurality of views, wherein the processing unit is structured to switch between the plurality of views based on input received via the input device, and wherein the plurality of views includes a first view including received data or information resulting from analysis of the received data associated with a cupper or a necker in a single one of said one or more can production factories and a second view including received data or information resulting from analysis of the received data associated with at least said cupper, said necker, and said bodymaker in said single one factory.
A fiber plastics composite component having a plastics matrix and a fiber structure embedded therein and a joining opening for receiving a connecting member which passes through the fiber plastics composite component, wherein a compacted fiber structure is formed in an edge region surrounding the joining opening in the plastics matrix, a bead-like collar is formed around the edge region, wherein the heated plastics matrix is plastically deformed during production, so that matrix material is laterally pressed out of the edge region and forms the bead-like collar, a reduced mold wall thickness (f) is thereby produced in the edge region, which is less than the initial wall thickness (a) that is formed in the region of the FVK component surrounding the collar, and a volume pressed into the collar corresponds to a displaced matrix volume in the edge region, so that an increased load-bearing capacity is created in the edge region.
A light source apparatus, comprising: a light source element configured to emit light; a liquid crystal panel located in a progressive direction in a light path of light emitted from the light source element; a beam splitter located in the progressive direction of the liquid crystal panel and is inclined relative to a plane orthogonal to the progressive direction; and a light guiding member, wherein the liquid crystal panel has a first face where light from the light source element enters and a second face where image projection light resulting from polarization of light having entered the first face in a predetermined polarization direction exits, the beam splitter being arranged to allow the image projection light having exited the second face of the liquid crystal panel and traveling in the progressive direction to pass through, and being arranged to reflect external light traveling in a retrograde direction opposite to the progressive direction in a direction different from the progressive direction, and the light guiding member guides and allows external light reflected by the beam splitter to enter the first face of the liquid crystal panel. a light source element configured to emit light; a liquid crystal panel located in a progressive direction in a light path of light emitted from the light source element; a beam splitter located in the progressive direction of the liquid crystal panel and is inclined relative to a plane orthogonal to the progressive direction; and a light guiding member, wherein the liquid crystal panel has a first face where light from the light source element enters and a second face where image projection light resulting from polarization of light having entered the first face in a predetermined polarization direction exits, the beam splitter being arranged to allow the image projection light having exited the second face of the liquid crystal panel and traveling in the progressive direction to pass through, and being arranged to reflect external light traveling in a retrograde direction opposite to the progressive direction in a direction different from the progressive direction, and the light guiding member guides and allows external light reflected by the beam splitter to enter the first face of the liquid crystal panel.
A method for negotiating communication parameters between communication devices, comprising: (a) maintaining, by a first communication device (102, 302, 402, 602), an unmodulated carrier wave at a first power for a first duration in accordance with a first communication parameter; (b) modulating, by the first communication device, a first data communication onto the carrier wave to provide a first modulated data communication to a second communication device (104, 304, 404, 604), the first data communication including the first communication parameter, a third communication parameter, and information that is to be transferred to the second communication device, the third communication parameter being a communication duration parameter that affects a duration of the first modulated data communication from the first communication device; (c) receiving, by the first communication device, a request communication from the second communication device indicating that the first communication parameter and the third communication parameter are insufficient; (d) adjusting, by the first communication device, the first communication parameter to provide a second communication parameter, and the third communication parameter, in accordance with the request; (e) providing, by the first communication device, a second unmodulated carrier wave at a second power for the first duration in accordance with the second communication parameter, the second power being different from the first power, and a second modulated data communication having a duration in accordance with the adjusted third communication parameter. (a) maintaining, by a first communication device (102, 302, 402, 602), an unmodulated carrier wave at a first power for a first duration in accordance with a first communication parameter; (b) modulating, by the first communication device, a first data communication onto the carrier wave to provide a first modulated data communication to a second communication device (104, 304, 404, 604), the first data communication including the first communication parameter, a third communication parameter, and information that is to be transferred to the second communication device, the third communication parameter being a communication duration parameter that affects a duration of the first modulated data communication from the first communication device; (c) receiving, by the first communication device, a request communication from the second communication device indicating that the first communication parameter and the third communication parameter are insufficient; (d) adjusting, by the first communication device, the first communication parameter to provide a second communication parameter, and the third communication parameter, in accordance with the request; (e) providing, by the first communication device, a second unmodulated carrier wave at a second power for the first duration in accordance with the second communication parameter, the second power being different from the first power, and a second modulated data communication having a duration in accordance with the adjusted third communication parameter.
A method for analyzing a microstructure of a porous body using porous-body data in which positional information providing a position of a voxel of a porous body obtained by three-dimensional CT scanning is associated with voxel type information including information that allows determination as to whether the voxel is a spatial voxel representing a space or an object voxel representing an object, wherein the porous body is a porous partition of a honeycomb filter having a porosity in the range 30-70% and an average pore size of 10-60 μm, and wherein the porous partition of the honeycomb filter has a thickness in the range 100-600 μm, the method comprising: (a) a step of defining an imaginary surface that is in contact with at least one object voxel present on a surface of the porous body, and identifying, as opening-related voxels, a spatial voxel that is in contact with the imaginary surface and a predetermined number or more of spatial voxels that continuously lie in a predetermined linear direction from the imaginary surface toward an inside of the porous body or identifying, as opening-related voxels, a predetermined number or more of spatial voxels that continuously lie in a predetermined linear direction from the imaginary surface toward an inside of the porous body; and (b) a step of analyzing a microstructure of the porous body on a basis of the opening-related voxels. (a) a step of defining an imaginary surface that is in contact with at least one object voxel present on a surface of the porous body, and identifying, as opening-related voxels, a spatial voxel that is in contact with the imaginary surface and a predetermined number or more of spatial voxels that continuously lie in a predetermined linear direction from the imaginary surface toward an inside of the porous body or identifying, as opening-related voxels, a predetermined number or more of spatial voxels that continuously lie in a predetermined linear direction from the imaginary surface toward an inside of the porous body; and (b) a step of analyzing a microstructure of the porous body on a basis of the opening-related voxels.
A process for producing a pharmaceutical, dental and/or cosmetic formulation comprising enamel matrix proteins and/or enamel matrix derivative proteins and a suitable pharmaceutical carrier, comprising the following steps: a. isolating enamel matrix proteins and/or enamel matrix derivative proteins from a developing mammals teeth, b. solving said isolate in a suitable pharmaceutical carrier, c. lowering the pH of said formulation initially to below pH 4, and d. heating said formulation to between 40-100°C for at least 10 minutes. a. isolating enamel matrix proteins and/or enamel matrix derivative proteins from a developing mammals teeth, b. solving said isolate in a suitable pharmaceutical carrier, c. lowering the pH of said formulation initially to below pH 4, and d. heating said formulation to between 40-100°C for at least 10 minutes.
Method of trajectory planning for yielding manoeuvres for an ego vehicle comprising the steps of: determining a longitudinal safety corridor for the ego vehicle that allow the ego vehicle to longitudinally position itself in-between two or more surrounding objects (S 1,..., S n), determining a longitudinal trajectory for the ego vehicle respecting the bounds given by the longitudinal safety corridor; determining a lateral safety corridor for the ego vehicle using the longitudinal trajectory to determine upper and lower bounds on the ego vehicle's lateral position; determining a lateral trajectory for the ego vehicle respecting the bounds given by the lateral safety corridor. determining a longitudinal safety corridor for the ego vehicle that allow the ego vehicle to longitudinally position itself in-between two or more surrounding objects (S 1,..., S n), determining a longitudinal trajectory for the ego vehicle respecting the bounds given by the longitudinal safety corridor; determining a lateral safety corridor for the ego vehicle using the longitudinal trajectory to determine upper and lower bounds on the ego vehicle's lateral position; determining a lateral trajectory for the ego vehicle respecting the bounds given by the lateral safety corridor.
An in vitro method for measuring an activity of a coagulation factor of the intrinsic or extrinsic pathway, wherein said coagulation factor comprises any one of Factor II, Factor V, Factor VII, Factor VIII, Factor IX, Factor X, Factor XI, and Factor XII, said method comprising: (a) contacting a capillary blood sample from a test subject comprising whole blood with plasma depleted of said coagulation factor, an ionic citrate source, an ionic calcium source, phospholipids, and one or more of a coagulation contact phase activator and tissue factor; (b) determining a time required for blood coagulation of said capillary blood sample; and (c) correlating said time with said activity of said coagulation factor. (a) contacting a capillary blood sample from a test subject comprising whole blood with plasma depleted of said coagulation factor, an ionic citrate source, an ionic calcium source, phospholipids, and one or more of a coagulation contact phase activator and tissue factor; (b) determining a time required for blood coagulation of said capillary blood sample; and (c) correlating said time with said activity of said coagulation factor.
A system comprising a patch panel and a plurality of communication connector assemblies (12; 36) mounted on the patch panel, whereby the patch panel comprises a mounting wall with at least one mounting opening for receiving a plurality of communication connector assemblies (12; 36), whereby the mounting wall of the patch panel comprises insertion recesses assigned to the or each mounting opening and extending from the respective mounting opening, whereby each communication connector assembly (12; 36) to be mounted is insertable into the respective mounting opening through the insertion recesses along a first direction, and whereby the or each communication connector assembly (12; 36) being inserted into the respective mounting opening can be moved inside the mounting opening along a second direction; whereby each communication connector assembly (12; 36) comprises a housing (21; 37) for receiving at least one connection module (22a, 22b; 38a, 38b), namely a first connection module (22a; 36a) and a second connection module (22b; 36b) stacked in a third direction, whereby opposite walls (24, 25) of the housing comprise protrusions to be inserted into the insertion recesses when inserting the respective communication connector assembly into the respective mounting opening through the insertion recesses along the first direction, whereby the housing (21; 37) of the respective communication connector assembly (12; 36) comprises mounting means assigned to walls of the housing (21; 37) acting together with mounting means assigned to the respective mounting opening of the patch panel in which the respective communication connector assembly (21; 37) is mounted; characterised in that the mounting wall of the patch panel comprises a plurality of mounting openings each for receiving a plurality of communication connector assemblies (12; 36); the protrusions assigned to the opposite walls (24, 25) of the housing comprise cut-outs acting together with a rim or an edge of the respective mounting opening thereby allowing a movement of the respective communication connector assembly inside the respective mounting opening along the second direction and holding the same inside the respective mounting opening when the same is moved inside the respective mounting opening relative to the insertion recesses, whereby the insertion recesses are recesses with the rim or edge of the respective mounting opening; at least one locking bracket blocks insertion recesses of two adjacent the mounting openings, whereby the respective locking bracket prevents a movement of the communication connector assemblies (12; 36) along the second direction when the respective mounting opening is fully equipped with communication connector assemblies (12; 36) and wherein the respective locking bracket prevents that the communication connector assembly (12; 36) can be removed from the respective mounting opening in the first direction through the blocked insertion recesses.
An immunogenic composition comprising an antigen and a dendritic cell targeting component, wherein the antigen comprises a positively charged region and wherein the dendritic cell targeting component comprises a negatively charged group comprising a branched or linear peptide comprising at least four aspartic acid and/or four glutamic acid residues covalently attached to a TLR ligand which comprises a palmitoyl, myristoyl, stearoyl, lauroyl, octanoyl, or decanoyl lipid and wherein the positively charged region of antigen is electrostatically associated with the dendritic cell targeting component and wherein the antigen is not a nucleic acid.
An acoustic signaling device of a vehicle, comprising a protective means mounted on the outlet orifice of the acoustic signaling device and which comprises a 5 first mesh and a second mesh, the first mesh and the second mesh are arranged such that one of them covers the other, and such that each covers completely the outlet orifice of the acoustic signalling device.
A microcracked ceramic body, comprising: a predominant phase of zirconium tin titanate a microcrack density Nb 3, wherein Nb 3 ≥ k 1 [0.102 + ×6.00x10 4 (CTE m in) + 1.23×10 10 (CTE min) 2 + 8.38×10 14 (CTE min) 3] and wherein k 1 is at least 1, wherein CTE min is a minimum lattice axial coefficient of thermal expansion from 25 to 1000°C of the zirconium tin titanate phase, and CTE min is in units of °C -1; and a dilatometric coefficient of thermal expansion from 25 to 1000°C of not more than 4×10 -7 °C -1 as measured by dilatometry, wherein the microcrack density Nb 3 is at least one of (Nb 3)lA and (Nb 3)EM, and wherein (Nb 3)lA is the microcrack density Nb 3 determined by image analysis and (Nb 3)EM is the microcrack density Nb 3 determined by Young's modulus. a predominant phase of zirconium tin titanate a microcrack density Nb 3, wherein Nb 3 ≥ k 1 [0.102 + ×6.00x10 4 (CTE m in) + 1.23×10 10 (CTE min) 2 + 8.38×10 14 (CTE min) 3] and wherein k 1 is at least 1, wherein CTE min is a minimum lattice axial coefficient of thermal expansion from 25 to 1000°C of the zirconium tin titanate phase, and CTE min is in units of °C -1; and a dilatometric coefficient of thermal expansion from 25 to 1000°C of not more than 4×10 -7 °C -1 as measured by dilatometry, wherein the microcrack density Nb 3 is at least one of (Nb 3)lA and (Nb 3)EM, and wherein (Nb 3)lA is the microcrack density Nb 3 determined by image analysis and (Nb 3)EM is the microcrack density Nb 3 determined by Young's modulus.
A mobile robot comprising: a main body; a driving portion configured to move the main body; a communication device configured to receive information about a moving space from an external server or at least from one external robot; and a controller configured to create traveling information about the moving space based on the information about the moving space received from the communication device, and to control the driving portion according to the traveling information, characterized in that the traveling information is created based on the information about the moving space received by the server from the one external robot or based on the information about the moving space received from the one external robot, wherein the information about the moving space includes simulation traveling information acquired when the one external robot performs virtual simulation for traveling on the moving space. a main body; a driving portion configured to move the main body; a communication device configured to receive information about a moving space from an external server or at least from one external robot; and a controller configured to create traveling information about the moving space based on the information about the moving space received from the communication device, and to control the driving portion according to the traveling information, characterized in that the traveling information is created based on the information about the moving space received by the server from the one external robot or based on the information about the moving space received from the one external robot, wherein the information about the moving space includes simulation traveling information acquired when the one external robot performs virtual simulation for traveling on the moving space.