mhurhangee/ep-ind-claims huggingface dataset:
A method of handling a communication session in a communications network, the method comprising, at an Application Function node: receiving from a user terminal a request to register the user terminal in the communication network; sending to a Policy and Charging Register Function a request message, the request message including an Access Point Name identifying an Access Point used by the user terminal; receiving a response message from the Policy and Charging Register Function, the response message including an indicator indicating whether the Access Point is an Emergency-Access Point; receiving from the user terminal a message to establish a communication session with a terminating node, the message identifying a non-emergency terminating node; in the event that the indicator indicates that the Access Point is not an Emergency-Access Point, allowing the establishment of the communication session and, in the event that the indicator indicates that the Access Point is an Emergency-Access Point, rejecting the establishment of the communication session. receiving from a user terminal a request to register the user terminal in the communication network; sending to a Policy and Charging Register Function a request message, the request message including an Access Point Name identifying an Access Point used by the user terminal; receiving a response message from the Policy and Charging Register Function, the response message including an indicator indicating whether the Access Point is an Emergency-Access Point; receiving from the user terminal a message to establish a communication session with a terminating node, the message identifying a non-emergency terminating node; in the event that the indicator indicates that the Access Point is not an Emergency-Access Point, allowing the establishment of the communication session and, in the event that the indicator indicates that the Access Point is an Emergency-Access Point, rejecting the establishment of the communication session.
Interference suppression circuit for providing a reduced-interference signal, having: a plurality of redundant functional blocks (110A, 110B, 110n) which are each designed to provide an output signal (113A, 113B, 113n); an extreme value determination unit which is designed to determine at least one extreme value from the output signals from the functional blocks, wherein the extreme value is a maximum value of the output signals or a minimum value of the output signals; a processing unit which is in the form of a summation unit; wherein the summation unit is designed to determine a signal as the sum of all output signals, to subtract the at least one extreme value therefrom and to output the reduced-interference signal as the result of this subtraction. a plurality of redundant functional blocks (110A, 110B, 110n) which are each designed to provide an output signal (113A, 113B, 113n); an extreme value determination unit which is designed to determine at least one extreme value from the output signals from the functional blocks, wherein the extreme value is a maximum value of the output signals or a minimum value of the output signals; a processing unit which is in the form of a summation unit; wherein the summation unit is designed to determine a signal as the sum of all output signals, to subtract the at least one extreme value therefrom and to output the reduced-interference signal as the result of this subtraction.
A computer-implemented method for generating a single Cartesian grid for use in reservoir modelling with progressive refinement in one or more spatial dimensions to account for heterogeneity at multiple locations in the one or more spatial dimension, the method comprising: a. using, as an input for a computer processor, the total number of grid cells in the one or more spatial dimensions to be gridded; b. calculating cell divisions via equations derived from logarithmic series that provide refinement at the multiple locations, wherein the equations include: the total number of cells is 2 ∑ i = 1 k log a d i r 0, wherein i is 1 to k, and where a is a progression factor given by a = ∏ i = 1 k d i r 0 k 2 n wherein n is a total number of cells, k is a number of multiple locations to be refined, d 1...k are coordinates of the refinement locations, and ro is a dimension of the heterogeneity; c. progressively adjusting the cell divisions by an iterative process to obey the total number of grid cells used as input in step a); and d. generating, based on the cell divisions in step c), a single Cartesian grid for use in reservoir modelling with progressive refinement in one or more spatial dimensions at multiple locations. a. using, as an input for a computer processor, the total number of grid cells in the one or more spatial dimensions to be gridded; b. calculating cell divisions via equations derived from logarithmic series that provide refinement at the multiple locations, wherein the equations include: the total number of cells is 2 ∑ i = 1 k log a d i r 0, wherein i is 1 to k, and where a is a progression factor given by a = ∏ i = 1 k d i r 0 k 2 n wherein n is a total number of cells, k is a number of multiple locations to be refined, d 1...k are coordinates of the refinement locations, and ro is a dimension of the heterogeneity; the total number of cells is 2 ∑ i = 1 k log a d i r 0, wherein i is 1 to k, and where a is a progression factor given by a = ∏ i = 1 k d i r 0 k 2 n wherein n is a total number of cells, k is a number of multiple locations to be refined, d 1...k are coordinates of the refinement locations, and ro is a dimension of the heterogeneity; c. progressively adjusting the cell divisions by an iterative process to obey the total number of grid cells used as input in step a); and d. generating, based on the cell divisions in step c), a single Cartesian grid for use in reservoir modelling with progressive refinement in one or more spatial dimensions at multiple locations.
An electron microscope comprising: an illumination system for illuminating a sample with an electron beam; an imaging system for focusing electrons transmitted through the sample; an electron deflector for deflecting the electrons transmitted through the sample; an imager which has a photosensitive surface for detecting the electrons transmitted through the sample and which records focused images formed by the electrons transmitted through the sample; a controller for controlling the electron deflector such that an active electron incident region of the photosensitive surface currently hit by the beam is varied in response to variations in illumination conditions of the illumination system; and characterized in that the microscope further comprises an active incident region defining portion for defining the shape and size of said active electron incident region, wherein said active incident region defining portion is a mask having at least one opening corresponding in shape and size to said active electron incident region, and wherein said electron deflector deflects electrons passed through the opening. an illumination system for illuminating a sample with an electron beam; an imaging system for focusing electrons transmitted through the sample; an electron deflector for deflecting the electrons transmitted through the sample; an imager which has a photosensitive surface for detecting the electrons transmitted through the sample and which records focused images formed by the electrons transmitted through the sample; a controller for controlling the electron deflector such that an active electron incident region of the photosensitive surface currently hit by the beam is varied in response to variations in illumination conditions of the illumination system; and characterized in that the microscope further comprises an active incident region defining portion for defining the shape and size of said active electron incident region, wherein said active incident region defining portion is a mask having at least one opening corresponding in shape and size to said active electron incident region, and wherein said electron deflector deflects electrons passed through the opening.
An apparatus comprising: a cryogenic chamber; a device (10, 30) for storing electric charge located within the chamber, the device being connected to an interface on the exterior of the chamber and to a load within the chamber, wherein the device operates according topredetermined charge and discharge cycles such that energy is stored and subsequently transferred to the load in a successive manner in use; characterized by a controller configured to monitor the charge and/or discharge cycle of the device (10, 30) in order to determine the onset of an adverse operating condition within the chamber. a cryogenic chamber; a device (10, 30) for storing electric charge located within the chamber, the device being connected to an interface on the exterior of the chamber and to a load within the chamber, wherein the device operates according topredetermined charge and discharge cycles such that energy is stored and subsequently transferred to the load in a successive manner in use; characterized by a controller configured to monitor the charge and/or discharge cycle of the device (10, 30) in order to determine the onset of an adverse operating condition within the chamber.
Retrieval system with a retrieval head placeable on an opening of a bottle, wherein the retrieval head comprises closure means for closing the opening of the bottle, wherein a hose is so mounted in the retrieval head that when the retrieval head is placed on the opening the hose protrudes into the bottle and liquid is removable from the bottle by way of the hose, characterised in that an actuating mechanism by means of which the mounting of the hose in the retrieval head is releasable is provided.
Food preparation apparatus comprising a food preparation vessel, a rotatable too! and a sensor (3a, 3b, 3c, 13), in particular for determining the weight of a food in the food preparation vessel, characterized in in that the tool is a mixing knife and a control unit is provided and configured such that, when a food is chopped in the food preparation vessel by the mixing knife, the control unit determines, on the basis of a sensor signal of the sensor, whether a predetermined chopping state of the food has been reached.
Apparatus for continuous casting comprising a support frame and a plurality of plates (28a, 28b, 29a, 29b) coupled to each other to define a tubular element provided with a casting cavity, positioning members being provided to position said plates (28a, 28b, 29a, 29b) with respect to said support frame, said positioning members comprising each time attachment devices or thrust devices, characterized in that only one first plate of said plates is attached to a wall of said support frame, by means of corresponding attachment devices, and in that thrust devices are associated to the other plates (28b, 29a, 29b) to thrust them toward the inside of said support frame and to compress them with respect to each other, in correspondence with respective connection edges and against said first plate.
A packaging element for a glazed element, comprising a blank made of pliable material, characterized in that the blank comprises a discontinuous main cutting line, in which two successive segments (2 1, 2 2,..., 2 n) of the main cutting line are each separated from the next by a strip of material, and each strip is delimited by two transverse cutting lines (4, 4'), these being transverse with respect to the main cutting line, which intersect the main cutting line, and by two fold lines (6, 6') situated one on each side of the main cutting line, which extend between the transverse cutting lines (4, 4').
A smart material for providing haptic feedback to a user, comprising: a. a structural material; b. an electroactive polymer in a filament form integrated into the structural material, the filament including an electrode associated with an outer surface of the filament; c. a conductor associated with the structural material and an insulator associated with the conductor; and d. a power source connected to the electrode and to the conductor, wherein, in response to an activating signal transmitted to the power source, the haptic feedback includes both movement of the filament resulting in actuation of the structural material and an electrostatic interaction. a. a structural material; b. an electroactive polymer in a filament form integrated into the structural material, the filament including an electrode associated with an outer surface of the filament; c. a conductor associated with the structural material and an insulator associated with the conductor; and d. a power source connected to the electrode and to the conductor, wherein, in response to an activating signal transmitted to the power source, the haptic feedback includes both movement of the filament resulting in actuation of the structural material and an electrostatic interaction.
At least one non-transitory computer-readable storage medium including instructions that, when executed by a computing node, cause the computing node to: deploy a first service domain to a first computing platform having a first architecture and a second service domain to a second computing platform having a second architecture that is different than the first architecture, the first service domain including platform-specific software configured to operate on the first architecture, and the second service domain including platform-specific software configured to operate on the second architecture; receive request to deploy an application to the first service domain and the second service domain, wherein the application utilizes a service that may be provided by the first and second service domains; deploy the service on the first and second service domains; and deploy the application on the first and second service domains, wherein the first service domain hosts a first platform-as-a-service, PaaS, software stack and the second service domain hosts a second platform-as-a-service, PaaS, software stack, each configured to provide a platform to host the service and the application utilizing said service in which platform specific details are abstracted. deploy a first service domain to a first computing platform having a first architecture and a second service domain to a second computing platform having a second architecture that is different than the first architecture, the first service domain including platform-specific software configured to operate on the first architecture, and the second service domain including platform-specific software configured to operate on the second architecture; receive request to deploy an application to the first service domain and the second service domain, wherein the application utilizes a service that may be provided by the first and second service domains; deploy the service on the first and second service domains; and deploy the application on the first and second service domains, wherein the first service domain hosts a first platform-as-a-service, PaaS, software stack and the second service domain hosts a second platform-as-a-service, PaaS, software stack, each configured to provide a platform to host the service and the application utilizing said service in which platform specific details are abstracted.
A retrofit intelligent shelving system configured to be placed on a shelf of an existing shelving system, the shelf having a supporting surface having a length and a depth, characterised in that the retrofit intelligent shelving system comprises: one or more dividing elements arranged to communicate with a controller, each of the one or more dividing elements including: an antenna having a detection plane and; a base for placement on the supporting surface of the shelf to extend along its depth and divide the shelf along the length of its supporting surface, the detection plane of the antenna being substantially parallel to the base, wherein each of the one or more dividing elements is arranged to identify electronically tagged items falling within the detection plane of its respective antenna and communicate data on said identified items to the controller, the retrofit intelligent shelving system further comprising a communications link connecting each of the one or more dividing elements to the controller, the communications link comprising a track arranged to run along the surface of the shelf. one or more dividing elements arranged to communicate with a controller, each of the one or more dividing elements including: an antenna having a detection plane and; a base for placement on the supporting surface of the shelf to extend along its depth and divide the shelf along the length of its supporting surface, the detection plane of the antenna being substantially parallel to the base, an antenna having a detection plane and; a base for placement on the supporting surface of the shelf to extend along its depth and divide the shelf along the length of its supporting surface, the detection plane of the antenna being substantially parallel to the base, wherein each of the one or more dividing elements is arranged to identify electronically tagged items falling within the detection plane of its respective antenna and communicate data on said identified items to the controller, the retrofit intelligent shelving system further comprising a communications link connecting each of the one or more dividing elements to the controller, the communications link comprising a track arranged to run along the surface of the shelf.
A shovel, in particular a snow shovel with a shovel blade or pushing blade and a stick which is attachable to it, being ergonomically configured of a metallic material, in particular a light metal, or plastic, having an offset stick section opposite to the front stick section which can be attached to the pushing blade, the offset stick section particularly being provided with a generally Z or S shaped bent, characterized in that the front stick section is formed as an adaptor in form of a wooden or plastic stub, the adaptor can be connected with the offset stick section via a plug connection and detachably connected at the pushing blade, namely fixed with a plug/clamping seat at the rear side of the pushing blade by means of two spaced clamping yokes which are detachably arragend at the pushing blade in the kind of basket arches, which form plug terminals together with the pushing blade for receiving the adapter and which, after pressing together its two flanks, can be threaded into opposite openings of the pushing blade with their laterally protruding ends siting there with a clamping effect.
A process for the hydrotreating of a hydrocarbon fuel comprising the steps: (a) forming a feedstock by combining a hydrocarbon fuel containing renewable organic material with a hydrogen stream; (b) conducting hydrotreatment of the feedstock of step (a) in a hydrotreating stage by contacting said feedstock with at least one fixed bed of hydrotreating catalyst, providing a hydrotreated effluent comprising water; (c) passing the hydrotreated effluent comprising water from the at least one catalyst fixed bed of step (b) to a hot separator and withdrawing from the hot separator an overhead fraction comprising water and a bottoms fraction; (d) passing the overhead fraction comprising water of step (c) to a water gas shift stage; (e) passing a water gas shift stage effluent from step (d) to a cold separator and withdrawing from the cold separator a gaseous overhead fraction in the form of a hydrogen-rich recycle gas stream; (f) passing the gaseous overhead fraction of step (e) to a hydrogen sulphide recovery unit in which a solvent is contacted with said gaseous stream and withdrawing from said recovery unit a gaseous stream with reduced content of hydrogen sulphide and carbon dioxide, and withdrawing from said recovery unit a solvent containing hydrogen sulphide and carbon dioxide; (g) returning the gaseous stream with reduced content of hydrogen sulphide and carbon dioxide of step (f) to step (a), or returning a portion of the gaseous stream with reduced content of hydrogen sulphide and carbon dioxide of step (f) to step (a) by dividing said gaseous stream into at least two streams and returning at least one of these streams to step (a) and at least one of these streams to step (d). (a) forming a feedstock by combining a hydrocarbon fuel containing renewable organic material with a hydrogen stream; (b) conducting hydrotreatment of the feedstock of step (a) in a hydrotreating stage by contacting said feedstock with at least one fixed bed of hydrotreating catalyst, providing a hydrotreated effluent comprising water; (c) passing the hydrotreated effluent comprising water from the at least one catalyst fixed bed of step (b) to a hot separator and withdrawing from the hot separator an overhead fraction comprising water and a bottoms fraction; (d) passing the overhead fraction comprising water of step (c) to a water gas shift stage; (e) passing a water gas shift stage effluent from step (d) to a cold separator and withdrawing from the cold separator a gaseous overhead fraction in the form of a hydrogen-rich recycle gas stream; (f) passing the gaseous overhead fraction of step (e) to a hydrogen sulphide recovery unit in which a solvent is contacted with said gaseous stream and withdrawing from said recovery unit a gaseous stream with reduced content of hydrogen sulphide and carbon dioxide, and withdrawing from said recovery unit a solvent containing hydrogen sulphide and carbon dioxide; (g) returning the gaseous stream with reduced content of hydrogen sulphide and carbon dioxide of step (f) to step (a),
A fiber comprising a composition comprising the product of melt blending: 58 to 93.9 weight percent of a polyamide consisting of polyamide-6,6; 5 to 35 weight percent of a poly(phenylene ether); 1 to 10 weight percent of a flame retardant comprising a metal dialkylphosphinate; and 0.1 to 2 weight percent of a compatibilizing agent for the polyamide and the poly(phenylene ether); wherein all weight percents are based on the total weight of the composition; wherein the composition excludes poly(phenylene ether)-polysiloxane block copolymers; and wherein the composition comprises a continuous phase comprising the polyamide, and a disperse phase comprising the poly(phenylene ether); wherein the disperse phase comprises disperse phase particles have a mean cross-sectional area less than or equal to 0.9 micrometer 2, based on the number of disperse phase particles, as measured by scanning electron microscopy. 58 to 93.9 weight percent of a polyamide consisting of polyamide-6,6; 5 to 35 weight percent of a poly(phenylene ether); 1 to 10 weight percent of a flame retardant comprising a metal dialkylphosphinate; and 0.1 to 2 weight percent of a compatibilizing agent for the polyamide and the poly(phenylene ether); wherein all weight percents are based on the total weight of the composition; wherein the composition excludes poly(phenylene ether)-polysiloxane block copolymers; and wherein the composition comprises a continuous phase comprising the polyamide, and a disperse phase comprising the poly(phenylene ether); wherein the disperse phase comprises disperse phase particles have a mean cross-sectional area less than or equal to 0.9 micrometer 2, based on the number of disperse phase particles, as measured by scanning electron microscopy.