mhurhangee/patent-ind-claim-en huggingface dataset:
A method of allocating user equipment processing capability for a dual connectivity operation, comprising: determining, by a first access node , the user equipment processing capability; determining, by the first access node , a first allocation of the user equipment processing capability for the first access node when the user equipment is in communication with at least the first access node and a second access node , wherein determining the first allocation of the user equipment processing capability comprises determining that the user equipment is in communication with the first access node and the second access node ; communicating, by the first access node to the second access node , the first allocation of the user equipment processing capability for the first access node , wherein the first allocation by the first access node and a second allocation by the second access node is such that a total of the first allocation and the second allocation does not exceed the total user equipment processing capability. determining, by a first access node , the user equipment processing capability; determining, by the first access node , a first allocation of the user equipment processing capability for the first access node when the user equipment is in communication with at least the first access node and a second access node , wherein determining the first allocation of the user equipment processing capability comprises determining that the user equipment is in communication with the first access node and the second access node ; communicating, by the first access node to the second access node , the first allocation of the user equipment processing capability for the first access node , wherein the first allocation by the first access node and a second allocation by the second access node is such that a total of the first allocation and the second allocation does not exceed the total user equipment processing capability.
A composition for use in a method of treating a patient diagnosed with a malignancy of the central nervous system comprising introducing into an anatomical compartment containing the cerebrospinal fluid (CSF) of the patient the composition comprising an effective amount of T cells, wherein the T cells comprise CAR T cells expressing a chimeric antigen receptor.
1. A single phase aqueous low foaming antimicrobial concentrate composition for cleaning food surfaces, whereby the food surfaces do not need to be rinsed off from the composition prior to consuming the surface, the concentrate composition comprising: (a) at least about 25 wt% water; (b) an antimicrobial agent comprising an anionic surfactant; (c) a silicone defoaming agent; (d) an acidulant; (e) a stabilizing agent comprising a block copolymer of ethylene oxide and propylene oxide; and (f) a thickening agent, wherein the composition has a viscosity of between about 50 mPa*s (centipoise) and about 3,500 mPa*s (centipoise) when tested with a spindle 3 at 50 rpm on a Brookfield RVDVI+ viscometer, and the thickening agent is present in an amount effective such that the composition is phase stable under acidic conditions, and wherein the composition has a pH of less than 3.2. (a) at least about 25 wt% water; (b) an antimicrobial agent comprising an anionic surfactant; (c) a silicone defoaming agent; (d) an acidulant; (e) a stabilizing agent comprising a block copolymer of ethylene oxide and propylene oxide; and (f) a thickening agent,
A nozzle for a welding torch , comprising: - an internal passage that extends through the nozzle from a rear opening to a front opening; and - an internal surface surrounding the internal passage , wherein the internal surface comprises a narrowing neck portion between the rear opening and the front opening, and a spatter deflecting portion between the narrowing neck portion and the front opening, - wherein the spatter deflecting portion is configured to block or deflect weld spatter that enters the front opening from traveling past the narrowing neck portion to impede a flow of gas through one or more gas ports of a gas diffuser assembly , characterized in that the rear opening has a first diameter and the front opening has a second diameter that is less than the first diameter , that the internal passage narrows to a third diameter proximate the narrowing neck portion , wherein the internal passage expands to a fourth diameter at an approximate center of the spatter deflecting portion , and wherein the fourth diameter is greater than the second and third diameter s but less than the first diameter , wherein the spatter deflecting portion comprises a first sloped portion that expands the internal passage as it extends from the narrowing neck towards the front opening, and wherein the spatter deflecting portion further comprises a second sloped portion that contracts the internal passage as it extends from the first sloped portion towards the front opening. - an internal passage that extends through the nozzle from a rear opening to a front opening; and - an internal surface surrounding the internal passage , wherein the internal surface comprises a narrowing neck portion between the rear opening and the front opening, and a spatter deflecting portion between the narrowing neck portion and the front opening, - wherein the spatter deflecting portion is configured to block or deflect weld spatter that enters the front opening from traveling past the narrowing neck portion to impede a flow of gas through one or more gas ports of a gas diffuser assembly , characterized in that the rear opening has a first diameter and the front opening has a second diameter that is less than the first diameter , that the internal passage narrows to a third diameter proximate the narrowing neck portion , wherein the internal passage expands to a fourth diameter at an approximate center of the spatter deflecting portion , and wherein the fourth diameter is greater than the second and third diameter s but less than the first diameter , wherein the spatter deflecting portion comprises a first sloped portion that expands the internal passage as it extends from the narrowing neck towards the front opening, and wherein the spatter deflecting portion further comprises a second sloped portion that contracts the internal passage as it extends from the first sloped portion towards the front opening.
An electronic display apparatus comprising: a support frame , the support frame providing a protective frame around each of the following discrete electrical assembly components: an electronic display configured to display content based on image data; a display driver circuit to receive the image data and to supply an image signal to the electronic display to cause the electronic display to display the content, the image signal based on the image data; and a connector cable connecting the display driver circuit and the electronic display for transmission of the image signal from the display driver circuit to the electronic display ; wherein the support frame is mountable to one or more surfaces so as to mount the electronic display to a first portion of the one or more surfaces and mount the display driver circuit to a second portion of the one or more surfaces that is away from the first portion, and the support frame maintains the electronic display in a spaced relationship from the display driver circuit . a support frame , the support frame providing a protective frame around each of the following discrete electrical assembly components: an electronic display configured to display content based on image data; a display driver circuit to receive the image data and to supply an image signal to the electronic display to cause the electronic display to display the content, the image signal based on the image data; and a connector cable connecting the display driver circuit and the electronic display for transmission of the image signal from the display driver circuit to the electronic display ; an electronic display configured to display content based on image data; a display driver circuit to receive the image data and to supply an image signal to the electronic display to cause the electronic display to display the content, the image signal based on the image data; and a connector cable connecting the display driver circuit and the electronic display for transmission of the image signal from the display driver circuit to the electronic display ; wherein the support frame is mountable to one or more surfaces so as to mount the electronic display to a first portion of the one or more surfaces and mount the display driver circuit to a second portion of the one or more surfaces that is away from the first portion, and the support frame maintains the electronic display in a spaced relationship from the display driver circuit .
A method of detecting, during an automated driving phase of a vehicle (V), its presence in an insertion lane to a divided road, the method comprising the following steps: - checking, ahead of said vehicle and over a predetermined anticipation distance (DA), for a next convergence at a convergence distance (DC) of the boundary lines (L1, L2) defining the traffic lane (VC) of said vehicle (V) ; - checking, when a next convergence is detected and from the position of the vehicle (V) and the mapping data, the existence of a divided road ahead of the vehicle (V) and at a distance less than or equal to a predetermined control distance ; - validating, when the existence of a said divided road is identified, the presence of said vehicle (V) on a said insertion lane ; and - when the existence of a said divided road is not identified from the position of the vehicle (V) and the mapping data, the presence of said vehicle (V) on a said insertion lane is validated only if one of said boundary lines (L1, L2) is of discontinuous type and has a width greater than or equal to a predetermined minimum width . - checking, ahead of said vehicle and over a predetermined anticipation distance (DA), for a next convergence at a convergence distance (DC) of the boundary lines (L1, L2) defining the traffic lane (VC) of said vehicle (V) ; - checking, when a next convergence is detected and from the position of the vehicle (V) and the mapping data, the existence of a divided road ahead of the vehicle (V) and at a distance less than or equal to a predetermined control distance ; - validating, when the existence of a said divided road is identified, the presence of said vehicle (V) on a said insertion lane ; and - when the existence of a said divided road is not identified from the position of the vehicle (V) and the mapping data, the presence of said vehicle (V) on a said insertion lane is validated only if one of said boundary lines (L1, L2) is of discontinuous type and has a width greater than or equal to a predetermined minimum width .
A method of interaction between a user and an electronic device having a touch-sensitive surface that is capable of detecting proximity before actual contact, touch sensor circuitry and vibro-acoustic sensor circuitry , where the method comprises: receiving a touch event trigger produced by the touch sensor circuitry , which touch event trigger indicates an occurrence of a physical touch event on the touch-sensitive surface ; accessing touch data produced in the touch sensor circuitry by the physical touch event; accessing vibro-acoustic data for a vibro-acoustic signal produced in the vibro-acoustic sensor circuitry by the physical touch event, for a time window that begins at a time that is prior to receipt of the touch event trigger ; and determining a touch type for the physical touch event based on the touch data and vibro-acoustic data, characterized in that the step of accessing vibro-acoustic data for a time window comprises: predicting a possible physical touch prior to occurrence of the physical touch, based on data from touch sensor circuitry associated with the touch-sensitive surface , wherein said touch data is indicative of a finger or instrument approaching the touch-sensitive surface ; and using such a prediction to begin capture of vibro-acoustic data associated with the touch-sensitive surface , where the vibro-acoustic data is buffered by a buffer . receiving a touch event trigger produced by the touch sensor circuitry , which touch event trigger indicates an occurrence of a physical touch event on the touch-sensitive surface ; accessing touch data produced in the touch sensor circuitry by the physical touch event; accessing vibro-acoustic data for a vibro-acoustic signal produced in the vibro-acoustic sensor circuitry by the physical touch event, for a time window that begins at a time that is prior to receipt of the touch event trigger ; and determining a touch type for the physical touch event based on the touch data and vibro-acoustic data, characterized in that the step of accessing vibro-acoustic data for a time window comprises: predicting a possible physical touch prior to occurrence of the physical touch, based on data from touch sensor circuitry associated with the touch-sensitive surface , wherein said touch data is indicative of a finger or instrument approaching the touch-sensitive surface ; and using such a prediction to begin capture of vibro-acoustic data associated with the touch-sensitive surface , where the vibro-acoustic data is buffered by a buffer . predicting a possible physical touch prior to occurrence of the physical touch, based on data from touch sensor circuitry associated with the touch-sensitive surface , wherein said touch data is indicative of a finger or instrument approaching the touch-sensitive surface ; and using such a prediction to begin capture of vibro-acoustic data associated with the touch-sensitive surface , where the vibro-acoustic data is buffered by a buffer .
A transmit and/or receive magnetic resonance imaging multi-element radio frequency coil comprising: multiple coil elements (1, 2, 3, 4, 5, 6, 7, 8; 17, 18, 19; 27, 28, 29) for parallel operation arranged about a cylindrical imaging space ; each coil element (1, 2, 3, 4, 5, 6, 7, 8; 17, 18, 19; 27, 28, 29) comprising at least one sub-element (1, 2, 3, 4, 5, 6, 7, 8; 17, 18, 19; 270, 280, 290) forming a loop of oblong shape, characterized in that each sub-element (1, 2, 3, 4, 5, 6, 7, 8; 17, 18, 19; 270, 280, 290) comprises at least two mutually opposing long side flat conductor pieces , each arranged in parallel with the cylinder axis of the cylindrical image space, the surfaces of said flat conductor pieces being tilted with respect to one another and being arranged such that the surface of one of the conductor pieces is aligned at a non-zero angle α relative to a local tangent (t) to the imaging space and the surface of another one of the conductor pieces is aligned at a non-zero angle being equal to -α relative to the local tangent (t) to the imaging space , that the multiple coil elements (1, 2, 3, 4, 5, 6, 7, 8; 17, 18, 19; 27, 28, 29) are spaced equi-angularly around the cylindrical imaging space with the angle between nearest neighbouring coil elements (1, 2, 3, 4, 5, 6, 7, 8; 17, 18, 19; 27, 28, 29) being 360°/N, where N is the number of coil elements (1, 2, 3, 4, 5, 6, 7, 8; 17, 18, 19; 27, 28, 29), and that the coil elements (1, 2, 3, 4, 5, 6, 7, 8; 17, 18, 19; 27, 28, 29) are mutually decoupled. multiple coil elements (1, 2, 3, 4, 5, 6, 7, 8; 17, 18, 19; 27, 28, 29) for parallel operation arranged about a cylindrical imaging space ; each coil element (1, 2, 3, 4, 5, 6, 7, 8; 17, 18, 19; 27, 28, 29) comprising at least one sub-element (1, 2, 3, 4, 5, 6, 7, 8; 17, 18, 19; 270, 280, 290) forming a loop of oblong shape, characterized in that each sub-element (1, 2, 3, 4, 5, 6, 7, 8; 17, 18, 19; 270, 280, 290) comprises at least two mutually opposing long side flat conductor pieces , each arranged in parallel with the cylinder axis of the cylindrical image space, the surfaces of said flat conductor pieces being tilted with respect to one another and being arranged such that the surface of one of the conductor pieces is aligned at a non-zero angle α relative to a local tangent (t) to the imaging space and the surface of another one of the conductor pieces is aligned at a non-zero angle being equal to -α relative to the local tangent (t) to the imaging space , that the multiple coil elements (1, 2, 3, 4, 5, 6, 7, 8; 17, 18, 19; 27, 28, 29) are spaced equi-angularly around the cylindrical imaging space with the angle between nearest neighbouring coil elements (1, 2, 3, 4, 5, 6, 7, 8; 17, 18, 19; 27, 28, 29) being 360°/N, where N is the number of coil elements (1, 2, 3, 4, 5, 6, 7, 8; 17, 18, 19; 27, 28, 29), and that the coil elements (1, 2, 3, 4, 5, 6, 7, 8; 17, 18, 19; 27, 28, 29) are mutually decoupled.
An air conditioning device, comprising a top cover assembly and a body , the top cover assembly of the air conditioning device provided at a top opening in an upper end of the air conditioning device body , an air delivery passage is provided between the top cover assembly and an upper end of the body , wherein a cavity is provided in a position of an upper end of the top cover assembly , and an air outlet is provided between the upper end of the body and a radial outer edge of the top cover assembly , characterized in that a heating device is provided at a radial edge position of the top cover assembly .
A computer-implemented method for prioritizing mitigation in enterprise networks , the method being executed by one or more processors and comprising: receiving graph data representative of a process-aware analytical attack graph, AAG, (410; 500; 550) that is representative of potential lateral movement of adversaries within a computer network, wherein nodes of the process-aware AAG are associated with process attributes, a process attribute maps a node to at least a portion of a process that is at least partially executed within the computer network, and wherein the nodes indicate facts of the process-aware AAG; receiving risk profile data representative of a risk profile of an enterprise with respect to two or more risk aspects, wherein the risk profile comprises a user-assigned acceptance score to each risk aspect, an acceptance score representing the enterprise's minimal acceptance rate of a risk aspect; generating, by a process-aware risk assessment module , a risk assessment based on the process-aware AAG and the risk profile; generating, by a mitigation simulator module , a mitigation list based on the process-aware AAG, the risk profile, and the risk assessment, the mitigation list comprising a prioritized list of two or more of the facts of the process-aware AAG; providing a set of remediation actions based on the mitigation list; and executing at least one remediation action in the set of remediation actions to mitigate cyber security risk to the computer network. receiving graph data representative of a process-aware analytical attack graph, AAG, (410; 500; 550) that is representative of potential lateral movement of adversaries within a computer network, wherein nodes of the process-aware AAG are associated with process attributes, a process attribute maps a node to at least a portion of a process that is at least partially executed within the computer network, and wherein the nodes indicate facts of the process-aware AAG; receiving risk profile data representative of a risk profile of an enterprise with respect to two or more risk aspects, wherein the risk profile comprises a user-assigned acceptance score to each risk aspect, an acceptance score representing the enterprise's minimal acceptance rate of a risk aspect; generating, by a process-aware risk assessment module , a risk assessment based on the process-aware AAG and the risk profile; generating, by a mitigation simulator module , a mitigation list based on the process-aware AAG, the risk profile, and the risk assessment, the mitigation list comprising a prioritized list of two or more of the facts of the process-aware AAG; providing a set of remediation actions based on the mitigation list; and executing at least one remediation action in the set of remediation actions to mitigate cyber security risk to the computer network.
Medical fluid control device for a medical fluid line system, comprising a fluid flow housing which is provided with at least one connection port (3, 3b, 3c; 4, 4b, 4c) for connecting to a further functional component of the fluid line system and which has an injection port which is provided with an openable closure element , and also comprising an adjustment member which is mounted movably in the fluid flow housing and which has flow channel sections (9, 9', 10; 9a, 9'a, 10a; 10b; 10c) which, in dependence on an adjustment position of the adjustment member , can be moved toward the at least one connection port (3, 3b, 3c; 4, 4b, 4c) and/or the injection port for a fluid throughflow, wherein assigned to at least one flow channel section of the adjustment member and/or to the injection port is at least one mechanical flow acceleration means (11, 11a, 11b, 11c; 13) which assists with inside flushing of the injection port during a fluid throughflow, characterized in that the mechanical flow acceleration means is formed by a tube section (11, 11a, 11b, 11c; 13) which is integrated into the flow channel section and/or into the injection port and whose flow cross section is smaller than a flow cross section of a flow channel section , adjacent upstream, of the adjustment member or of the injection port or of the connection port (3, 4; 3b, 4b; 3c, 4c), and in that an annular gap allowing a fluid throughflow is provided between an outer wall of the tube section (11, 11a, 11b, 11c; 13) and a wall of the surrounding flow channel section (10, 10a, 10b, 10c; 15) or an inner wall of the injection port .
A formulation for transdermal delivery of diosgenin to a patient to treat type II diabetes mellitus in the patient, the formulation comprising diosgenin encapsulated in a nanoemulsion matrix, wherein the nanoemulsion matrix is an oil-in-water nanoemulsion comprising diosgenin dissolved in an oil phase of the nanoemulsion matrix; the oil phase comprises a 1:1 combination of sesame oil and bottle gourd seed oil; and the ratio of oil to water is 4:1. the nanoemulsion matrix is an oil-in-water nanoemulsion comprising diosgenin dissolved in an oil phase of the nanoemulsion matrix; the oil phase comprises a 1:1 combination of sesame oil and bottle gourd seed oil; and the ratio of oil to water is 4:1.
Air-cooled electric machine , with a rotor , connected in a torsionally resistant manner to a rotor shaft , with axially arranged rotor cooling channels , a stator with axially arranged stator cooling channels , a housing tube , bearing shields arranged on both sides and containing the bearings , for the rotatable accommodation of the rotor shaft , with air inlets and air outlets , and in each case, on both sides, with fans connected to the rotor shaft for the conveying of the cooling air (L) from the air inlets , through the axial rotor cooling channels and the axial stator cooling channels , to the air outlets , wherein each fan is formed by a combined radial/axial fan, and is arranged beneath winding heads at the stator , wherein the stator cooling channels are interrupted by a barrier , and the ends of the stator cooling channels on both sides of the barrier are connected to air outlets arranged at the casing of the housing tube , such that the cooling air (L) can be conveyed from the air inlets of one side, in an axial direction through the axial rotor cooling channels , to the other side, and, separated from this, from the air inlets on both sides, in a radial direction over the winding heads at the stator , and in the opposite direction through the axial stator cooling channels as far as the barrier and to the air outlets arranged at the casing of the housing tube .