mhurhangee/ep-ind-claims huggingface dataset:
Device for the adjustment of the opening of a door of the type consisting of two opposite elements (1, 2) apt to be mounted on a door and on a post, respectively, and provided with housing holes for screws of engagement with a surface, one of said bodies consisting of a solid body, except for a cavity provided on one of the side walls, the other one of said bodies consisting of an outer shell internally provided with a housing cavity of a sliding body, characterised in that adjustment means of the movement of said sliding body are furthermore provided, arranged perpendicularly to said sliding body, said means being housed within a cavity provided on the top surface of said outer shell as well as dampening and thrust means of said sliding body, said sliding body consisting of a rectangular-base body, along a short side of which an engagement wedge departs, provided with a perimeter rib, which identifies a central supporting plane wherein an elliptical eyelet is obtained.
A downhole tool for use in a wellbore, the tool comprising: a body having a bore; a seal assembly, comprising: a wedge member disposed along the body; and a metallic packing element carrying an inner elastomeric seal engaged with the wedge member and an outer elastomeric seal for engagement with the wellbore and comprising anti-extrusion bands (460,465) embedded therein; a slip assembly disposed along the body, comprising slips and a gauge ring, the slips movable along an inclined surface of the gauge ring for engagement with the wellbore; a retention sleeve fastened to the packing element and coupled to the slips; and an actuation assembly disposed along the body for moving the slips along the gauge ring and for causing relative movement of the wedge member relative to a tapered inner surface of the metallic packing element. a body having a bore; a seal assembly, comprising: a wedge member disposed along the body; and a metallic packing element carrying an inner elastomeric seal engaged with the wedge member and an outer elastomeric seal for engagement with the wellbore and comprising anti-extrusion bands (460,465) embedded therein; a wedge member disposed along the body; and a metallic packing element carrying an inner elastomeric seal engaged with the wedge member and an outer elastomeric seal for engagement with the wellbore and comprising anti-extrusion bands (460,465) embedded therein; a slip assembly disposed along the body, comprising slips and a gauge ring, the slips movable along an inclined surface of the gauge ring for engagement with the wellbore; a retention sleeve fastened to the packing element and coupled to the slips; and an actuation assembly disposed along the body for moving the slips along the gauge ring and for causing relative movement of the wedge member relative to a tapered inner surface of the metallic packing element.
A method for routing a call, the method comprising: receiving, at a Continuity Control Function, CCF, executing on an application server, from a serving call session control function, S-CSCF, a first message identifying a user element and indicating that an incoming call intended for the user element has been routed to a first gateway node of a first domain; terminating the message on a first signaling leg in the first domain by the CCF functioning as a Back-to-Back User Agent, B2BUA, on the application server; sending, by the CCF to a HLR, a first message identifying the user element and indicating that an incoming call intended for the user element has been routed to the CCF in the first domain; and receiving by the CCF, an inter-domain routing number for the CCF to use to route the incoming call into a second domain, wherein the inter-domain routing number identifies a visited mobile switching center, VMSC, in the second domain wherein the second domain is a circuit-switched subsystem and the first domain is a multimedia subsystem, wherein the inter-domain routing number is associated with a second gateway node of the second domain, such that the incoming call is routed from the first gateway node of the first domain to the second gateway node of the second domain using the inter-domain routing number. receiving, at a Continuity Control Function, CCF, executing on an application server, from a serving call session control function, S-CSCF, a first message identifying a user element and indicating that an incoming call intended for the user element has been routed to a first gateway node of a first domain; terminating the message on a first signaling leg in the first domain by the CCF functioning as a Back-to-Back User Agent, B2BUA, on the application server; sending, by the CCF to a HLR, a first message identifying the user element and indicating that an incoming call intended for the user element has been routed to the CCF in the first domain; and receiving by the CCF, an inter-domain routing number for the CCF to use to route the incoming call into a second domain, wherein the inter-domain routing number identifies a visited mobile switching center, VMSC, in the second domain wherein the second domain is a circuit-switched subsystem and the first domain is a multimedia subsystem, wherein the inter-domain routing number is associated with a second gateway node of the second domain, such that the incoming call is routed from the first gateway node of the first domain to the second gateway node of the second domain using the inter-domain routing number.
A label processing method comprising: receiving, by a first edge device, a label notified by a second edge device for identifying routing information; when it is determined that the label notified by the second edge device is the same as a label allocated by the first edge device, comparing, by the first edge device, first identification information for identifying the first edge device and second identification information for identifying the second edge device; and reallocating, by the first edge device, based on a comparison result, the label allocated by the first edge device, wherein before receiving, by the first edge device, the label notified by the second edge device, the method further comprises: notifying, by the first edge device, other devices of capability information of the first edge device, wherein the capability information is used for identifying that the first edge device is capable of reallocating a label. receiving, by a first edge device, a label notified by a second edge device for identifying routing information; when it is determined that the label notified by the second edge device is the same as a label allocated by the first edge device, comparing, by the first edge device, first identification information for identifying the first edge device and second identification information for identifying the second edge device; and reallocating, by the first edge device, based on a comparison result, the label allocated by the first edge device, wherein before receiving, by the first edge device, the label notified by the second edge device, the method further comprises: notifying, by the first edge device, other devices of capability information of the first edge device, wherein the capability information is used for identifying that the first edge device is capable of reallocating a label.
Method for performing single sign-in user authentication, comprising: a number of relying parties that offer particular services, users being enabled to request access to a service offered by a relying party, and a number of authentication entities performing authentication of a user's identity towards a relying party, wherein said authentication entities provide the user, within the framework of an authentication process towards said relying party, with reputation information about said relying party, characterized in that said relying party keeps a list of potential recommenders that includes authentication entities said relying party had an interaction with in the past, wherein said relying party provides said list of potential recommenders to authentication entities. a number of relying parties that offer particular services, users being enabled to request access to a service offered by a relying party, and a number of authentication entities performing authentication of a user's identity towards a relying party, wherein said authentication entities provide the user, within the framework of an authentication process towards said relying party, with reputation information about said relying party,
A process of making a silicone-in-water emulsion comprising- i) contacting at least one silicone with at least one organic non-polar solvent to obtain a solution; ii) adding at least one anionic surfactant selected from the group consisting of metal salts of monoalkyl sulfosuccinates, metal salts of dialkyl sulfosuccinates, metal salts of alkyl sulfates, metal salts of alkyl ether sulfates, metal salts of olefin sulfonates, metal salts of linear alkyl benzene sulfonates, alkoxylated alkyl polyglycol ether phosphates, metal salts of alkoxylated alkyl polyglycol ether phosphates, metal salts of alkyl phosphate esters, metal salts of alkyl ether phosphates, and metal salts of alkyl-aryl ether phosphates to the solution obtained in step i) to obtain a mixture; iii) adding water under shear, applied to the mixture obtained in step ii), to obtain a silicone-in-water emulsion; and iv) removing the at least one organic non-polar solvent, wherein the silicone-in-water emulsion has a particle size distribution Dv50 in the range from ≥ 0.1 μm to ≤ 25 μm, determined according to dynamic light scattering technique with a fixed scattering angle of 90°. i) contacting at least one silicone with at least one organic non-polar solvent to obtain a solution; ii) adding at least one anionic surfactant selected from the group consisting of metal salts of monoalkyl sulfosuccinates, metal salts of dialkyl sulfosuccinates, metal salts of alkyl sulfates, metal salts of alkyl ether sulfates, metal salts of olefin sulfonates, metal salts of linear alkyl benzene sulfonates, alkoxylated alkyl polyglycol ether phosphates, metal salts of alkoxylated alkyl polyglycol ether phosphates, metal salts of alkyl phosphate esters, metal salts of alkyl ether phosphates, and metal salts of alkyl-aryl ether phosphates to the solution obtained in step i) to obtain a mixture; iii) adding water under shear, applied to the mixture obtained in step ii), to obtain a silicone-in-water emulsion; and iv) removing the at least one organic non-polar solvent,
Method for controlling an electrical device (10, 20) for driving an alternating-current motor, said device (10, 20) comprising: - a voltage inverter with three-phase bridge (5, 21) configured for controlling the alternating-current electric motor by pulse-width modulation, and powered by a direct-current source, said voltage inverter (5, 21) having a plurality of switches (7, 25) of which the various switching positions generate a set of space vectors corresponding to the various voltage states output by the inverter (5, 21); and - a DC-DC voltage converter connected between the DC voltage source and the voltage inverter with three-phase bridge (5, 21), the method comprising a step of controlling the switching of the switches (7, 25) according to a sequence generating a resulting voltage vector from a combination of non-zero space vectors, the phase of the resulting voltage vector varying continuously over time, the method further comprises a step of modulating the amplitude of said resulting voltage vector by modulating the amplitude of the voltage output by the DC-DC voltage converter, said amplitude modulation of the voltage output by the DC-DC voltage converter corresponding to the application of a predetermined voltage profile generating a resulting voltage vector having a constant amplitude over time. - a voltage inverter with three-phase bridge (5, 21) configured for controlling the alternating-current electric motor by pulse-width modulation, and powered by a direct-current source, said voltage inverter (5, 21) having a plurality of switches (7, 25) of which the various switching positions generate a set of space vectors corresponding to the various voltage states output by the inverter (5, 21); and - a DC-DC voltage converter connected between the DC voltage source and the voltage inverter with three-phase bridge (5, 21),
An imaging device comprising: a semiconductor substrate including a first surface that receives light from outside, and a second surface opposite to the first surface; a first transistor located on the second surface; and a photoelectric converter that faces the second surface and that receives light transmitted through the semiconductor substrate, wherein the semiconductor substrate is a silicon substrate or a silicon compound substrate, the photoelectric converter includes a first electrode electrically connected to the first transistor, a second electrode, and a photoelectric conversion layer that is located between the first electrode and the second electrode and that contains a material which absorbs light having a first wavelength longer than or equal to 1.1 μm, the first electrode is located between the second surface and the photoelectric conversion layer, and a spectral sensitivity of the material in a wavelength region of longer than or equal to 1.0 μm and shorter than 1.1 μm is within a range of more than or equal to 0% and less than or equal to 5% of a maximum value of a spectral sensitivity of the material in a wavelength region of longer than or equal to 1.1 μm. a semiconductor substrate including a first surface that receives light from outside, and a second surface opposite to the first surface; a first transistor located on the second surface; and a photoelectric converter that faces the second surface and that receives light transmitted through the semiconductor substrate, wherein the semiconductor substrate is a silicon substrate or a silicon compound substrate, the photoelectric converter includes a first electrode electrically connected to the first transistor, a second electrode, and a photoelectric conversion layer that is located between the first electrode and the second electrode and that contains a material which absorbs light having a first wavelength longer than or equal to 1.1 μm, a first electrode electrically connected to the first transistor, a second electrode, and a photoelectric conversion layer that is located between the first electrode and the second electrode and that contains a material which absorbs light having a first wavelength longer than or equal to 1.1 μm, the first electrode is located between the second surface and the photoelectric conversion layer, and a spectral sensitivity of the material in a wavelength region of longer than or equal to 1.0 μm and shorter than 1.1 μm is within a range of more than or equal to 0% and less than or equal to 5% of a maximum value of a spectral sensitivity of the material in a wavelength region of longer than or equal to 1.1 μm.
A leadless pacing direct activation electrode assembly (220, 220A, 1120A, 1120B, 1120C, 1120E, 1120L, 1120P, 1120R, 1120Q, 1120S, 1120T, 1120U, 1120V, 1800) comprising: a passive wireless receiver and two or more electrodes (430, 435) attached to the passive wireless receiver and configured to generate an excitation pulse to an interior heart wall using energy provided by a magnetic field received by the passive wireless receiver without storing the received energy in a battery or capacitor within the leadless direct activation electrode assembly (220, 220A, 1120A, 1120B, 1120C, 1120E, 1120L, 1120P, 1120R, 1120Q, 1120S, 1120T, 1120U, 1120V, 1800); characterized in that the passive wireless receiver comprises a ferrite core and ferrite caps located at each end of the ferrite core. a passive wireless receiver and two or more electrodes (430, 435) attached to the passive wireless receiver and configured to generate an excitation pulse to an interior heart wall using energy provided by a magnetic field received by the passive wireless receiver without storing the received energy in a battery or capacitor within the leadless direct activation electrode assembly (220, 220A, 1120A, 1120B, 1120C, 1120E, 1120L, 1120P, 1120R, 1120Q, 1120S, 1120T, 1120U, 1120V, 1800); characterized in that the passive wireless receiver comprises a ferrite core and ferrite caps located at each end of the ferrite core.
A bubble generator for generating micro bubbles in a liquid by vibration, the bubble generator comprising: a liquid tank; a diaphragm through which multiple cavities are formed and that has one surface positioned to be in contact with the liquid in the liquid tank and the other surface positioned to be in contact with a gas; a tubular member that has a first end portion and a second end portion positioned opposite to the first end portion and that is connected to the diaphragm at the first end portion so as to support the diaphragm; and a piezoelectric device that is fixed to a ring-shaped collar extending radially outward from the tubular member at a position at the second end portion of the tubular member and that is adapted to vibrate the tubular member, wherein the first end portion of the tubular member is joined to the liquid tank. a liquid tank; a diaphragm through which multiple cavities are formed and that has one surface positioned to be in contact with the liquid in the liquid tank and the other surface positioned to be in contact with a gas; a tubular member that has a first end portion and a second end portion positioned opposite to the first end portion and that is connected to the diaphragm at the first end portion so as to support the diaphragm; and a piezoelectric device that is fixed to a ring-shaped collar extending radially outward from the tubular member at a position at the second end portion of the tubular member and that is adapted to vibrate the tubular member, wherein the first end portion of the tubular member is joined to the liquid tank.
High pressure fuel pump of a fuel injection equipment the pump having a pump head wherein a piston is axially slidably guided in a bore therein defining a compression chamber, the piston extending outside the pump head toward an end provided with a spring seat cooperating with a cam follower that is biased by a pump spring compressed between the pump head and the cam follower so that it is adapted to maintain permanent contact with a revolving cam imparting reciprocate movement to the piston for varying the volume of the compression chamber, characterized in that the pump is further provided with a flexible tubular sealing sleeve (50, 62) engaged around the piston and extending between the pump head and the cam follower so that the internal space of the sleeve (50, 62) is sealingly isolated from the outer space; and wherein the flexible sealing sleeve (50, 62) extends from a first annular sealing face maintained in sealing contact against a face of the pump head and, a second annular sealing face maintained in sealing contact against a face of the spring seat; wherein the flexible sleeve (50, 62) is axially resilient, the sleeve being axially compressed between said face of the pump head and, said face of the spring seat; wherein the sleeve (50, 62) has a resilient tubular body (44, 66) axially extending between said first annular sealing face and said second annular sealing face; wherein the sleeve comprises a sleeve spring embedded in the tubular body, said sleeve spring being distinct from the pump spring, and wherein said sleeve spring is embedded in the tubular body and is a coil spring.
A bonding device for bonding semiconductor devices to a substrate, the bonding device comprising: - a temperature probe comprising a first surface, wherein - the first surface is configured to contact a surface of the substrate to measure a temperature of the surface of the substrate, and - the first surface comprises a pattern configured to change its shape according to the temperature of the surface of the substrate, wherein dimensions of the first surface are larger than dimensions of a predefined part of the surface of the substrate, wherein the first surface is configured to directly contact the predefined part of the surface of the substrate to measure a temperature of the predefined part of the surface of the substrate, wherein the predefined part is a part of the surface of the substrate, which is heated by a heating source, wherein the pattern comprised by the first surface is a regular geometrical pattern. - a temperature probe comprising a first surface, wherein - the first surface is configured to contact a surface of the substrate to measure a temperature of the surface of the substrate, and - the first surface comprises a pattern configured to change its shape according to the temperature of the surface of the substrate,
A method for identifying a problem source in an information technology infrastructure, comprising, by a computing system: receiving, from one or more agents of the IT infrastructure, performance metrics for applications running on the IT infrastructure, the one or more agents executing outside of the applications, the performance metrics excluding transaction information specifying calls between the applications; detecting anomalies using the performance metrics for the applications running on the IT infrastructure; characterized by: determining correlated anomalies based on communication path data indicating the correlated anomalies belong to a group of applications of the IT infrastructure that communicate with each other via a communication path; generating a ranking of the correlated anomalies, a first correlated anomaly of a first application further in the communication path being ranked lower than a second correlated anomaly of a second application earlier in the communication path; and identifying an application of the group of applications as the problem source from a lowest ranked anomaly of the ranking of the correlated anomalies. receiving, from one or more agents of the IT infrastructure, performance metrics for applications running on the IT infrastructure, the one or more agents executing outside of the applications, the performance metrics excluding transaction information specifying calls between the applications; detecting anomalies using the performance metrics for the applications running on the IT infrastructure; characterized by: determining correlated anomalies based on communication path data indicating the correlated anomalies belong to a group of applications of the IT infrastructure that communicate with each other via a communication path; generating a ranking of the correlated anomalies, a first correlated anomaly of a first application further in the communication path being ranked lower than a second correlated anomaly of a second application earlier in the communication path; and identifying an application of the group of applications as the problem source from a lowest ranked anomaly of the ranking of the correlated anomalies. determining correlated anomalies based on communication path data indicating the correlated anomalies belong to a group of applications of the IT infrastructure that communicate with each other via a communication path; generating a ranking of the correlated anomalies, a first correlated anomaly of a first application further in the communication path being ranked lower than a second correlated anomaly of a second application earlier in the communication path; and identifying an application of the group of applications as the problem source from a lowest ranked anomaly of the ranking of the correlated anomalies.