mhurhangee/ep-ind-claims huggingface dataset:
A heat exchanger element comprising at least two honeycomb structures arranged serially and each including a cell structural portion having cells separated and formed by partition walls containing SiC and functioning as passages which extend from one end face to the other end face and which a first fluid passes through, and an outer peripheral wall disposed on the outer periphery of the cell structural portion; wherein the first fluid passes through the cells of the honeycomb structures without leaking out of the cells or mixing, the cell structural portions of at least a pair of the honeycomb structures adjacent to each other among the honeycomb structures arranged serially are disposed with a gap, and the first fluid passing through the cells mixes together between end faces forming the gap, and the first fluid and a second fluid exchange heat via the outer peripheral walls of the honeycomb structures in a state where the first fluid passing through the cells and the second fluid passing outside the outer peripheral walls of the honeycomb structures are not mixed with each other; characterized in that the gap between the cell structural portions of the adjacent honeycomb structures is 0.1 to 10 mm, and at least one of the honeycomb structures connected serially is rotated with a central axis of the honeycomb structure as the center so that the directions of the partition walls of the cells are out of alignment with respect to the other honeycomb structure(s) to allow the first fluid passing through the cells to be mixed together between the end faces forming the gap. wherein the first fluid passes through the cells of the honeycomb structures without leaking out of the cells or mixing, the cell structural portions of at least a pair of the honeycomb structures adjacent to each other among the honeycomb structures arranged serially are disposed with a gap, and the first fluid passing through the cells mixes together between end faces forming the gap, and the first fluid and a second fluid exchange heat via the outer peripheral walls of the honeycomb structures in a state where the first fluid passing through the cells and the second fluid passing outside the outer peripheral walls of the honeycomb structures are not mixed with each other; characterized in that the gap between the cell structural portions of the adjacent honeycomb structures is 0.1 to 10 mm, and at least one of the honeycomb structures connected serially is rotated with a central axis of the honeycomb structure as the center so that the directions of the partition walls of the cells are out of alignment with respect to the other honeycomb structure(s) to allow the first fluid passing through the cells to be mixed together between the end faces forming the gap.
A mineral wool element, comprising an insulating mineral wool layer with two opposite main surfaces, one of the two opposite main surfaces of the mineral wool layer is clad with a pliable sheet metal and the other made up by bare mineral wool, the sheet-metal clad mineral wool layer being pliable jointly with the sheet metal, characterized in that the mineral wool layer comprises a slab assembly consisting of lamellar sheets of mineral wool with fibers at an orientation of 90° relative to the mineral wool element's main surfaces, and that the mineral wool element has at least two of its opposite ends provided with tongues and grooves (3, 4).
Cage segment for a segment cage, in particular for large rolling bearings, wherein the cage segment forms a pocket which is suitable for receiving at least one rolling body, wherein the cage segment has at least one clearance in which an insert element is received, wherein the insert element is captively fastened in the clearance, characterized in that the cage segment is assembled from at least one sheet-metal component by way of at least one joint.
A power tool comprising: a power tool housing; a motor within the power tool housing; a power tool controller configured to control power provided to the motor; and a sensor attachment configured to be physically coupled to the power tool housing, the sensor attachment including an ultrasonic distance sensor housing having an emitter (265, 515) that sends ultrasonic pulses, a non-contact sensor (260, 510), a second non-contact sensor (260, 570), and a third non-contact sensor (260, 575) that receive reflections and are positioned in a triangular pattern around the emitter (265, 515), and a sensor controller, the sensor controller configured to receive a signal from the non-contact sensor (260, 510) related to a distance to a work surface, determine a depth of a fastener based on the signal received from the non-contact sensor (260, 510), and generate a control signal if the depth of the fastener is greater than or equal to a desired fastener depth, and wherein the control signal is operable to cause power to the motor to be turned off. a power tool housing; a motor within the power tool housing; a power tool controller configured to control power provided to the motor; and a sensor attachment configured to be physically coupled to the power tool housing, the sensor attachment including an ultrasonic distance sensor housing having an emitter (265, 515) that sends ultrasonic pulses, a non-contact sensor (260, 510), a second non-contact sensor (260, 570), and a third non-contact sensor (260, 575) that receive reflections and are positioned in a triangular pattern around the emitter (265, 515), and a sensor controller, the sensor controller configured to receive a signal from the non-contact sensor (260, 510) related to a distance to a work surface, determine a depth of a fastener based on the signal received from the non-contact sensor (260, 510), and generate a control signal if the depth of the fastener is greater than or equal to a desired fastener depth, and receive a signal from the non-contact sensor (260, 510) related to a distance to a work surface, determine a depth of a fastener based on the signal received from the non-contact sensor (260, 510), and generate a control signal if the depth of the fastener is greater than or equal to a desired fastener depth, and wherein the control signal is operable to cause power to the motor to be turned off.
An aerosol delivery device, comprising: an outer body extending between a first outer body end and a second outer body end, the outer body being at least partially hollow and defining an inner circumference; an illumination source configured to output an electromagnetic radiation, the illumination source being positioned proximate the first outer body end; a wave guide received within the outer body, the wave guide defining a longitudinal length extending between a first longitudinal end positioned proximate the illumination source and a second longitudinal end, and a width extending transversely to the longitudinal length between a first lateral end and a second lateral end, the wave guide extending around substantially an entirety of the inner circumference of the outer body such that the first lateral end abuts or overlaps the second lateral end along at least a portion of the longitudinal length of the wave guide, the wave guide being configured to receive the electromagnetic radiation from the illumination source and output light at one or more illumination sections. an outer body extending between a first outer body end and a second outer body end, the outer body being at least partially hollow and defining an inner circumference; an illumination source configured to output an electromagnetic radiation, the illumination source being positioned proximate the first outer body end; a wave guide received within the outer body, the wave guide defining a longitudinal length extending between a first longitudinal end positioned proximate the illumination source and a second longitudinal end, and a width extending transversely to the longitudinal length between a first lateral end and a second lateral end, the wave guide extending around substantially an entirety of the inner circumference of the outer body such that the first lateral end abuts or overlaps the second lateral end along at least a portion of the longitudinal length of the wave guide, the wave guide being configured to receive the electromagnetic radiation from the illumination source and output light at one or more illumination sections.
A vehicle body structure having an underframe formed by a floor of the vehicle body, side beams disposed at both width direction sides of the floor and extending in a longitudinal direction of the vehicle body, bolster beams extending in the width direction of the vehicle body, and center beams crossing the bolster beams and extending in the longitudinal direction of the vehicle body toward end sections of the vehicle body; characterised in that: each bolster beam is joined to a lower surface or a side surface of the side beams and the center beams which cross the bolster beam; each bolster beam has two air spring bearings and a center pin bearing disposed on a lower surface of the bolster beam for joining to respectively air springs and a center pin, the air spring bearings being located on opposite sides of the center pin bearing in the width direction of the vehicle body; and wires and pipes are passed through a space formed between the floor and the bolster beams. each bolster beam is joined to a lower surface or a side surface of the side beams and the center beams which cross the bolster beam; each bolster beam has two air spring bearings and a center pin bearing disposed on a lower surface of the bolster beam for joining to respectively air springs and a center pin, the air spring bearings being located on opposite sides of the center pin bearing in the width direction of the vehicle body; and wires and pipes are passed through a space formed between the floor and the bolster beams.
A linear actuator adapted to receive a removable tool, and including drive means for driving a movable component assembly for actuating the tool, controlled by an electronic module, characterised in that the electronic module comprises acquisition means (65, 67) for acquiring a variable that is representative of the instantaneous force supplied by the drive means and / or the time derivative of this variable, and in that the electronic module is capable of controlling interruption means for interrupting the operation of the drive means if the said variable does not exceed a first predetermined value during a first predetermined time period from the start of the driving of the movable component assembly, and / or if the said derivative does not exceed a second predetermined value during the first predetermined time period from the start of the driving of the movable component assembly.
A device for additive manufacturing of a three-dimensional object from at least one starting material, comprising a) a control device which, on the basis of 3D data of the object, is set up to calculate print paths for layers of the starting material to be deposited; b) an actuator device movable in several degrees of freedom with an end effector; and c) an extruder or print head attached to the end effector, wherein the actuator device and the extruder and print head, respectively, are connected for communication with the control device in order to deposit the starting material layer by layer from the extruder and print head, respectively, as specified by the control device in dependence on the calculated print paths, wherein the actuator device is movable in at least four degrees of freedom, wherein the control device controls the print paths taking into account path distances (d), alignment and/or course of the layers to be deposited on the basis of a simulation model in order to specify component properties of the object, wherein the control device is arranged to deposit a continuous fiber of the starting material that passes through at least two layers of the object. a) a control device which, on the basis of 3D data of the object, is set up to calculate print paths for layers of the starting material to be deposited; b) an actuator device movable in several degrees of freedom with an end effector; and c) an extruder or print head attached to the end effector, wherein the actuator device and the extruder and print head, respectively, are connected for communication with the control device in order to deposit the starting material layer by layer from the extruder and print head, respectively, as specified by the control device in dependence on the calculated print paths, wherein the actuator device is movable in at least four degrees of freedom, wherein the control device controls the print paths taking into account path distances (d), alignment and/or course of the layers to be deposited on the basis of a simulation model in order to specify component properties of the object, wherein the control device is arranged to deposit a continuous fiber of the starting material that passes through at least two layers of the object.
An information transmission method, wherein the method comprises: sending, by a master base station, a request message to a secondary base station, wherein the request message is for requesting the secondary base station to allocate a resource used to transmit at least one flow, wherein the request message comprises identification information of the at least one flow and a data radio bearer, DRB, identifier list of DRBs available to the at least one flow for the secondary base station, and the identification information and the list are used for the secondary base station to determine a mapping relationship between one or more flows admitted by the secondary base station and an available DRB whose identifier is indicated by the DRB identifier list; and receiving, by the master base station from the secondary base station, a response message in response to the request message, wherein the response message indicates whether the secondary base station admits the at least one flow. sending, by a master base station, a request message to a secondary base station, wherein the request message is for requesting the secondary base station to allocate a resource used to transmit at least one flow, wherein the request message comprises identification information of the at least one flow and a data radio bearer, DRB, identifier list of DRBs available to the at least one flow for the secondary base station, and the identification information and the list are used for the secondary base station to determine a mapping relationship between one or more flows admitted by the secondary base station and an available DRB whose identifier is indicated by the DRB identifier list; and receiving, by the master base station from the secondary base station, a response message in response to the request message, wherein the response message indicates whether the secondary base station admits the at least one flow.
Method of ascertaining the state of aging of an NOx storage catalyst of a motor vehicle having an internal combustion engine, in which a proportion of the aging of the NOx storage catalyst caused by thermal aging and a proportion of the aging of the NOx storage catalyst caused by sulfur loading are ascertained and the two proportions are used to ascertain the state of aging of an NOx storage catalyst, wherein the proportions of the aging of the NOx storage catalyst are determined using at least two diagnosis methods, of which at least one is sensitive and at least one is insensitive to sulfur loading of the NOx storage catalyst, wherein the diagnosis method which is insensitive to sulfur loading of the NOx storage catalyst is a method which compares at least one air/fuel ratio signal upstream with at least one air/fuel ratio signal downstream of the NOx storage catalyst, characterized in that the diagnosis method which is insensitive to sulfur loading of the NOx storage catalyst is a method which compares at least one air/fuel ratio signal integrated over a period of time upstream with at least one air/fuel ratio signal integrated over the same period of time downstream of the NOx storage catalyst.
A heat treatment facility performing a heat treatment on a workpiece, the heat treatment facility comprising: a treatment container in which the workpiece is housed; a heater which is provided in the treatment container and heats the workpiece by radiation heat at least from below the workpiece; a plurality of support posts which are provided in the treatment container and support the workpiece; and two round bars provided at the upper end of each of the support posts; wherein a long side direction of the round bars is directed in a furnace width direction, wherein a pillar part of the support post has a narrow part at a portion facing a heating element of the heater. a treatment container in which the workpiece is housed; a heater which is provided in the treatment container and heats the workpiece by radiation heat at least from below the workpiece; a plurality of support posts which are provided in the treatment container and support the workpiece; and two round bars provided at the upper end of each of the support posts; wherein a long side direction of the round bars is directed in a furnace width direction, wherein a pillar part of the support post has a narrow part at a portion facing a heating element of the heater.
A loudspeaker comprising: an electromagnetic transducer including a diaphragm configured to generate acoustic vibrations; and an aperture positioned in front of the diaphragm in a direction of propagation of the acoustic vibrations, the aperture including an opening having one or more protrusions (331, 332) forming an opening shape having non-uniform edges, characterized in that the opening is symmetric about at least one of a first axis and a second axis perpendicular to the first axis. an electromagnetic transducer including a diaphragm configured to generate acoustic vibrations; and an aperture positioned in front of the diaphragm in a direction of propagation of the acoustic vibrations, the aperture including an opening having one or more protrusions (331, 332) forming an opening shape having non-uniform edges, characterized in that the opening is symmetric about at least one of a first axis and a second axis perpendicular to the first axis.
Method of Computed Tomography imaging comprising: a. Performing (4-a) a single acquisition of image data from at least two contrast agents into a blood vessel network, a first contrast agent among said at least two contrast agents having been in said blood vessel network for a longer time than a second contrast agent among said at least two contrast agents, b. Processing (4-b) said image data using K-Edge detection and/or iodine delineation to separate data associated with each contrast agents in order to obtain a concentration map of each contrast agent, c. Determining (4-c) from said image data a first part of the blood vessel network comprising both the first contrast agent and the second contrast agent, and a second part of the blood vessel network comprising only the first contrast agent, d. Calculating (4-d) a partial blood volume map of the first part of the blood vessel network based on the total amount of second contrast agent and on the concentration map of the second contrast agent, e. Calculating (4-e) a partial blood volume map of the second part of the blood vessel network based on the total amount of first contrast agent, on the concentration map of the first contrast agent and on the partial blood volume map of the first part of the blood vessel network. a. Performing (4-a) a single acquisition of image data from at least two contrast agents into a blood vessel network, a first contrast agent among said at least two contrast agents having been in said blood vessel network for a longer time than a second contrast agent among said at least two contrast agents, b. Processing (4-b) said image data using K-Edge detection and/or iodine delineation to separate data associated with each contrast agents in order to obtain a concentration map of each contrast agent, c. Determining (4-c) from said image data a first part of the blood vessel network comprising both the first contrast agent and the second contrast agent, and a second part of the blood vessel network comprising only the first contrast agent, d. Calculating (4-d) a partial blood volume map of the first part of the blood vessel network based on the total amount of second contrast agent and on the concentration map of the second contrast agent, e. Calculating (4-e) a partial blood volume map of the second part of the blood vessel network based on the total amount of first contrast agent, on the concentration map of the first contrast agent and on the partial blood volume map of the first part of the blood vessel network.
An immunogenic composition comprising: (a) an isolated peptide consisting of an amino acid sequence which is at least 90% identical to SEQ ID No: 6, or an isolated polynucleotide comprising a nucleic acid sequence encoding said peptide, placed under the control of the elements necessary for its expression in a mammalian cell; and (b) a Th1 adjuvant. (a) an isolated peptide consisting of an amino acid sequence which is at least 90% identical to SEQ ID No: 6, or an isolated polynucleotide comprising a nucleic acid sequence encoding said peptide, placed under the control of the elements necessary for its expression in a mammalian cell; and (b) a Th1 adjuvant.