mhurhangee/ep-ind-claims huggingface dataset:
A spark plug, comprising: an insulator having an axial hole formed therein in an axial direction; a center electrode extending in the axial direction and having a rear end located within the axial hole; a metal terminal extending in the axial direction and having a front end located rearward of the rear end of the center electrode within the axial hole; a resistor arranged between the center electrode and the metal terminal within the axial hole; and a conductive seal layer (60; 60b; 80) that fills a space between the resistor and the center electrode in the axial hole and keeps the center electrode and the resistor apart from each other, characterized in that the conductive seal layer (60; 60b; 80) has a first layer portion located adjacent to the center electrode and a second layer portion located between the first layer portion and the resistor, wherein a thermal expansion coefficient of the resistor, a thermal expansion coefficient of the first layer portion and a thermal expansion coefficient of the second layer portion are different from one another, and wherein the thermal expansion coefficient of the second layer portion has a value between the thermal expansion coefficient of the first layer portion and the thermal expansion coefficient of the resistor. an insulator having an axial hole formed therein in an axial direction; a center electrode extending in the axial direction and having a rear end located within the axial hole; a metal terminal extending in the axial direction and having a front end located rearward of the rear end of the center electrode within the axial hole; a resistor arranged between the center electrode and the metal terminal within the axial hole; and a conductive seal layer (60; 60b; 80) that fills a space between the resistor and the center electrode in the axial hole and keeps the center electrode and the resistor apart from each other, characterized in that the conductive seal layer (60; 60b; 80) has a first layer portion located adjacent to the center electrode and a second layer portion located between the first layer portion and the resistor, wherein a thermal expansion coefficient of the resistor, a thermal expansion coefficient of the first layer portion and a thermal expansion coefficient of the second layer portion are different from one another, and wherein the thermal expansion coefficient of the second layer portion has a value between the thermal expansion coefficient of the first layer portion and the thermal expansion coefficient of the resistor.
STRO-1 + cells and/or progeny thereof for use in treating or preventing a respiratory condition that reduces lung function and/or for treating an IgE-mediated allergy and/or for reducing an allergic response to an allergen and/or for inducing anergy to an allergen in a subject and/or improving lung function in a subject suffering from an allergy, wherein the STRO-1 + cells and/or progeny thereof express tissue non-specific alkaline phosphatase (TNAP).
A calculating unit (10, 10', 10") for calculating a recording trajectory of a CT system, comprising: a receive interface for receiving measurement and/or simulation data relative to the object to be recorded; an optimizer (20, 20') configured to determine the recording trajectory based on known degrees of freedom of the CT system, based on the measurement and/or simulation data and based on a test task from a group comprising a plurality of test tasks; and a control unit configured to output data in correspondence with the calculated recording trajectory for controlling a manipulation unit of the CT system and thereby control the CT system in correspondence with the calculated recording trajectory; wherein the group comprising a plurality of test tasks comprises the test task of establishing a geometrical structure and/or geometrical surface structure; wherein the group of test tasks comprises detecting characteristics of the materials using the volume of the object to be recorded; wherein the group of test tasks comprises establishing deviations in the volume of the object to be recorded; wherein the optimizer (20, 20') is configured to predetermine the recording parameters per position on the recording trajectory. a receive interface for receiving measurement and/or simulation data relative to the object to be recorded; an optimizer (20, 20') configured to determine the recording trajectory based on known degrees of freedom of the CT system, based on the measurement and/or simulation data and based on a test task from a group comprising a plurality of test tasks; and a control unit configured to output data in correspondence with the calculated recording trajectory for controlling a manipulation unit of the CT system and thereby control the CT system in correspondence with the calculated recording trajectory; wherein the group comprising a plurality of test tasks comprises the test task of establishing a geometrical structure and/or geometrical surface structure; wherein the group of test tasks comprises detecting characteristics of the materials using the volume of the object to be recorded; wherein the group of test tasks comprises establishing deviations in the volume of the object to be recorded; wherein the optimizer (20, 20') is configured to predetermine the recording parameters per position on the recording trajectory.
A gap sub assembly (20-1, 30-1, 30-2, 30-3), comprising: an electrically conductive uphole portion and an electrically conductive downhole portion separated by an electrically-insulating gap, wherein the gap provides a high electrical impedance in a low frequency band and a lower electrical impedance in a higher frequency band; an electromagnetic, EM, telemetry signal generator connected to apply an EM telemetry signal between the uphole portion and the downhole portion, wherein the EM telemetry signal generator is configured to apply an EM telemetry signal in the lower frequency band; and a data signal generator connected to drive a data signal across the gap, the data signal having frequencies higher than the EM telemetry signal at which the gap presents a reduced electrical impedance. an electrically conductive uphole portion and an electrically conductive downhole portion separated by an electrically-insulating gap, wherein the gap provides a high electrical impedance in a low frequency band and a lower electrical impedance in a higher frequency band; an electromagnetic, EM, telemetry signal generator connected to apply an EM telemetry signal between the uphole portion and the downhole portion, wherein the EM telemetry signal generator is configured to apply an EM telemetry signal in the lower frequency band; and a data signal generator connected to drive a data signal across the gap, the data signal having frequencies higher than the EM telemetry signal at which the gap presents a reduced electrical impedance.
Method for detecting moving elements in a place, comprising the steps of: - carrying out a plurality of scan sequences during each of which laser pulses are transmitted into the place, - during each scan sequence and for each pulse hitting an element which constitutes an obstacle, detecting a signal reflected by the element and deducing therefrom a position of the obstacle in relation to the transceiver, - during each scan sequence, putting the coordinates of a point corresponding to a position of the detected element into a common frame of reference, - distinguishing the points corresponding to the fixed elements from the points corresponding to the moving elements over a predetermined number of scan sequences, said method being characterized in that the step of carrying out a plurality of scan sequences during each of which laser pulses are transmitted into the place is carried out from a plurality of transceivers of known positions which are in a high location and offset laterally with respect to part of the place, so as to scan a plurality of azimuth and elevation planes of said part of the place from each of the transceivers, the planes being arranged in such a way that at least some of the pulses reach said part of the place at a height of between approximately 1 meter and 1.50 meters. - carrying out a plurality of scan sequences during each of which laser pulses are transmitted into the place, - during each scan sequence and for each pulse hitting an element which constitutes an obstacle, detecting a signal reflected by the element and deducing therefrom a position of the obstacle in relation to the transceiver, - during each scan sequence, putting the coordinates of a point corresponding to a position of the detected element into a common frame of reference, - distinguishing the points corresponding to the fixed elements from the points corresponding to the moving elements over a predetermined number of scan sequences, said method being characterized in that the step of carrying out a plurality of scan sequences during each of which laser pulses are transmitted into the place is carried out from a plurality of transceivers of known positions which are in a high location and offset laterally with respect to part of the place, so as to scan a plurality of azimuth and elevation planes of said part of the place from each of the transceivers, the planes being arranged in such a way that at least some of the pulses reach said part of the place at a height of between approximately 1 meter and 1.50 meters.
Piece-holder support for a machine tool of large dimensions suitable for supporting a piece for mechanical processing, or bench of a machine tool of large dimensions suitable for supporting a base bearing an upright, comprising at least one block comprising an upper wall suitable for resting the piece to be processed on or for supporting the base (2:) and a reinforcement structure comprising a plurality of cells alongside:each other, peripherally delimited by septums which delimit empty compartments, wherein said septums project downwards from the upper wall, said septums and upper wall being made together in one piece by casting, and the block comprises an annular side wall, projecting from the upper wall, and at least one end wall, which closes the support or the bench on the bottom, connecting it to the side wall and the reinforcement structure connects the upper wall to the end wall, and wherein the upper wall has a flat upper surface, on which channels are made, parallel to each other and to a direction of support.
Safety system (1, 101) for a vehicle seat (40, 140) having a four-bar linkage mechanism (2, 102), comprising - four mechanism members (7, 8, 9, 10, 107, 108, 109, 110) which, for height adjustment of the vehicle seat (40, 140), are rotatably connected with each other in pairs at - a front upper hinge point (3, 103), - a rear upper hinge point (4, 104), - a rear lower hinge point (5, 105) and - a front lower hinge point (6, 106) and also - at least one drive (13, 113), the distance between at least two adjacent hinge points (4, 5, 105, 106) being variable by the at least one drive (13, 113), in order to tilt the vehicle seat (40, 140) forwards, characterised in that at least one drive (13, 113) is pyrotechnically operable. - four mechanism members (7, 8, 9, 10, 107, 108, 109, 110) which, for height adjustment of the vehicle seat (40, 140), are rotatably connected with each other in pairs at - a front upper hinge point (3, 103), - a rear upper hinge point (4, 104), - a rear lower hinge point (5, 105) and - a front lower hinge point (6, 106) and also - at least one drive (13, 113),
An arrangement for a gas turbine engine, comprising an electromechanical component and a firewall, a mechanical component of the electromechanical component being disposed at a first side of the firewall; wherein: an electronic module of the electromechanical component is connected to the mechanical component by a module cable, the electronic module being inserted through a module opening in the firewall from the first side to a second side, the second side in operation having a lower operating temperature than the first side; and a cover plate installed over the module opening after the electronic module is inserted therethrough. an electronic module of the electromechanical component is connected to the mechanical component by a module cable, the electronic module being inserted through a module opening in the firewall from the first side to a second side, the second side in operation having a lower operating temperature than the first side; and a cover plate installed over the module opening after the electronic module is inserted therethrough.
A method of collecting contextual attributes for processing service rules for a first machine, such as a virtual machine or container, executing on a host computer with a plurality of other machines, the method comprising: on the host computer and outside of the first machine: identifying a first process of a first application that is executing on the first machine and transmitting data messages as part of a particular data message flow; directing a deep packet inspection module executing on the host computer to examine a set of the transmitted data messages to generate a first identifier that specifies a type of traffic contained in the data messages; receiving, from a guest introspection 'GI' agent executing on the first machine, a set of contextual attributes that identify the first process; using the received set of contextual attributes to identify a second identifier that identifies the first application; and storing, in a storage of the host computer, the first identifier and the second identifier as contextual attributes of the particular data message flow, wherein said contextual attributes are used to process context-based service rules, by a service engine executing on the host computer separately from the first machine, to perform a context-based service on the particular data message flow transmitted by the first machine. identifying a first process of a first application that is executing on the first machine and transmitting data messages as part of a particular data message flow; directing a deep packet inspection module executing on the host computer to examine a set of the transmitted data messages to generate a first identifier that specifies a type of traffic contained in the data messages; receiving, from a guest introspection 'GI' agent executing on the first machine, a set of contextual attributes that identify the first process; using the received set of contextual attributes to identify a second identifier that identifies the first application; and storing, in a storage of the host computer, the first identifier and the second identifier as contextual attributes of the particular data message flow, wherein said contextual attributes are used to process context-based service rules, by a service engine executing on the host computer separately from the first machine, to perform a context-based service on the particular data message flow transmitted by the first machine.
An external composition for skin for improving elasticity and alleviating wrinkles comprising one or more selected from acrylate/ceteth-20 methacrylate copolymer, acrylate/steareth-50 methacrylate copolymer, acrylate/steareth-20 methacrylate copolymer, and acrylate/beheneth-25 methacrylate copolymer and, one or more selected from cross-linked poly-gamma-glutamic acid, cross-linked poly-aspartic acid and their salts. one or more selected from acrylate/ceteth-20 methacrylate copolymer, acrylate/steareth-50 methacrylate copolymer, acrylate/steareth-20 methacrylate copolymer, and acrylate/beheneth-25 methacrylate copolymer and, one or more selected from cross-linked poly-gamma-glutamic acid, cross-linked poly-aspartic acid and their salts.
Method for Manufacturing of High Strength and Heat Resistant Aluminium Alloys Strengthened by Dual Precipitates, in which the alloys having the following chemical composition: Mn: 2.0-5.0 mass.%; Cr: 0.001-2.0 mass.%; Cr + Mn: 2.0-5.0 mass.%; V: 0.001-0.5 mass.%; Cu: 2.0-4.5 mass.%; Be: 0.001-0.9 mass.%; Sc: 0.05-0.5 mass.%; and comprising of at least one element out of Zr: 0.001-0.4 mass.%; Y: 0.001-0.4 mass.%; Ti: 0.001-0.4 mass.%; Hf: 0.001-0.4 mass.% and Nb: 0.001-0.4 mass.%; the balance being Al and inevitable impurities up to 0.5 mass.%. the alloys are manufactured by solidification of the melt by casting methods, in which a cooling rate in the liquid before the beginning of solidification is higher than 100 K s -1, the alloys are optionally deformed by plastic deformation and mandatory heat treated according to a two-step-ageing treatment wherein the first ageing at the first ageing temperature takes place between 260 °C and 340 °C, and the first ageing time is between 2 hours and 90 hours, where the microstructure after the first ageing treatment consists of quasicrystalline and L 12 precipitates in the Al-rich solid solution; wherein the second ageing temperature is between 350 °C and 490 °C, and the second ageing time is between 15 minutes and 10 hours; and the microstructure after the second ageing consists of stabilised, coarser icosahedral precipitates, and core-shell L 12 precipitates. Mn: 2.0-5.0 mass.%; Cr: 0.001-2.0 mass.%; Cr + Mn: 2.0-5.0 mass.%; V: 0.001-0.5 mass.%; Cu: 2.0-4.5 mass.%; Be: 0.001-0.9 mass.%; Sc: 0.05-0.5 mass.%; and comprising of at least one element out of Zr: 0.001-0.4 mass.%; Y: 0.001-0.4 mass.%; Ti: 0.001-0.4 mass.%; Hf: 0.001-0.4 mass.% and Nb: 0.001-0.4 mass.%; the balance being Al and inevitable impurities up to 0.5 mass.%. the alloys are manufactured by solidification of the melt by casting methods, in which a cooling rate in the liquid before the beginning of solidification is higher than 100 K s -1, the alloys are optionally deformed by plastic deformation and mandatory heat treated according to a two-step-ageing treatment wherein the first ageing at the first ageing temperature takes place between 260 °C and 340 °C, and the first ageing time is between 2 hours and 90 hours, where the microstructure after the first ageing treatment consists of quasicrystalline and L 12 precipitates in the Al-rich solid solution; wherein the second ageing temperature is between 350 °C and 490 °C, and the second ageing time is between 15 minutes and 10 hours; and the microstructure after the second ageing consists of stabilised, coarser icosahedral precipitates, and core-shell L 12 precipitates.
An ordered mesoporous carbon, OMC, composite catalyst, comprising: an OMC; and metal particles and at least one component selected from a group consisting of nitrogen and sulfur included in the OMC; characterised in that the component includes both nitrogen and sulfur, and a mixed atomic ratio of nitrogen to sulfur is from 1:3 to 9:1. an OMC; and metal particles and at least one component selected from a group consisting of nitrogen and sulfur included in the OMC; characterised in that the component includes both nitrogen and sulfur, and a mixed atomic ratio of nitrogen to sulfur is from 1:3 to 9:1.
A cable installed state analyzing method of analyzing an installed state of a cable routed between a plurality of installation tools and provided with a plurality of position marks at predetermined intervals, the position marks each indicating a distance from a reference point, the cable installed state analyzing method characterized by comprising the steps of: acquiring the positions of the position marks and the installation tools; classifying the plurality of installation tools into a plurality of groups on the basis of the acquired positions of the position marks and the installation tools, and determining a basic model matched to each of the groups by comparing an arranged state of the installation tools and an installed state of the cable between the installation tools with a plurality of preset basic models; and analyzing an installed route of the cable by using the basic models and the position marks. acquiring the positions of the position marks and the installation tools; classifying the plurality of installation tools into a plurality of groups on the basis of the acquired positions of the position marks and the installation tools, and determining a basic model matched to each of the groups by comparing an arranged state of the installation tools and an installed state of the cable between the installation tools with a plurality of preset basic models; and analyzing an installed route of the cable by using the basic models and the position marks.
Wiring arrangement for wiring Litz wires (211, 221) of a coaxial drive unit comprising: - two coaxially arranged drivers (210, 220), wherein the outer driver has a voice coil formed on a tubular voice coil former, - at least one connector for feeding the drive unit, - at least one Litz wire connected to the voice coil outside the voice coil former and to the at least one connector, characterized in that the voice coil former comprises at least one aperture, through which the at least one Litz wire is arranged to run from outside to inside the voice coil former and to the connector, and in comprising a Litz wire of the inner driver, whereby the Litz wires (211, 221) of both drivers (210, 220) are arranged to run within the voice coil former of said outer driver and terminate to the same connector. - two coaxially arranged drivers (210, 220), wherein the outer driver has a voice coil formed on a tubular voice coil former, - at least one connector for feeding the drive unit, - at least one Litz wire connected to the voice coil outside the voice coil former and to the at least one connector,
Drainage fitting for a cistern, including a valve body with a sealing element, which cooperates with a valve seat, and a float, wherein the valve body is movable with the sealing element from the valve seat along a movement axis from a rest position into a flushing position and from the flushing position into the rest position, a full volume control unit for controlling a full volume flush, wherein the full volume control unit, when achieving a water level provided for the full volume, provides a closing force on the valve body, a part volume control unit for controlling a part volume flush, wherein the part volume control unit, when achieving a water level provided for the part volume, provides a closing force on the valve body, a partition wall with a float chamber which is located below said partition wall, wherein the valve body extends through an opening through the partition wall, wherein the float is movable along the movement axis inside the float chamber and cooperates with said float chamber in a hydraulic manner, wherein the partition wall comprises a part volume control opening, through which air and/or water is able to pass from the top side of the partition wall below said partition wall in such a manner that the pressure conditions between the float chamber and the regions outside the float chamber can be equalized, wherein the float is movable from the flushing position into the rest position when the pressure conditions are equalized, and wherein the state of the part volume control opening is controllable by the part volume control unit, characterized in that the partition wall comprises a full volume control opening, through which air and/or water is able to pass from the top side of the partition wall below said partition wall in such a manner that the pressure conditions between the float chamber and the regions outside the float chamber can be equalized, wherein the float is movable from the flushing position into the rest position when the pressure conditions are equalized, and that the state of the full volume control opening is controllable by the full volume control unit.