mhurhangee/ep-ind-claims huggingface dataset:
An image processing apparatus comprising: an input interface unit for receiving at least two projection images (PI α, PI β) of a patient taken at different projection angles (α, β) by an X-ray scanner, each of the images including a footprint (EO α,, IO α, EO β, IO β) of a target object (IO, EO); an image depth resolver configured i) to establish a binocular disparity between the two target object footprints, ii) to calculate a vertical position of the target object based on the established binocular disparity and imaging parameters used when acquiring the at least two projection images, and iii) to compare the calculated vertical position with a target range to determine whether the target object was external to the patient when the images were taken; an image manipulator configured to, when the target object is determined by the resolver to be external, virtually replace or remove pixel information in the respective target object footprints (EO α, β) to so produce an output enhanced image which, when viewed, no longer shows the target object footprints, and an output interface unit configured to output the output enhanced image. an input interface unit for receiving at least two projection images (PI α, PI β) of a patient taken at different projection angles (α, β) by an X-ray scanner, each of the images including a footprint (EO α,, IO α, EO β, IO β) of a target object (IO, EO); an image depth resolver configured i) to establish a binocular disparity between the two target object footprints, ii) to calculate a vertical position of the target object based on the established binocular disparity and imaging parameters used when acquiring the at least two projection images, and iii) to compare the calculated vertical position with a target range to determine whether the target object was external to the patient when the images were taken; i) to establish a binocular disparity between the two target object footprints, ii) to calculate a vertical position of the target object based on the established binocular disparity and imaging parameters used when acquiring the at least two projection images, and iii) to compare the calculated vertical position with a target range to determine whether the target object was external to the patient when the images were taken; an image manipulator configured to, when the target object is determined by the resolver to be external, virtually replace or remove pixel information in the respective target object footprints (EO α, β) to so produce an output enhanced image which, when viewed, no longer shows the target object footprints, and an output interface unit configured to output the output enhanced image.
A method for mapping a discovery signal by a User Equipment, UE, in a wireless access system, the method comprising: generating a discovery signal; mapping the discovery signal to a discovery unit; and mapping the discovery unit to at least a part of a plurality of discovery signal Resource Blocks, RBs, wherein if the number of UEs transmitting and receiving discovery signals, including the UE, is equal to or less than a predetermined value, absolute values of frequency bands of discovery signal RBs included in a positive frequency area with respect to a Direct Current, DC, carrier among the plurality of discovery signal RBs are not overlapped with absolute values of frequency bands of discovery signal RBs included in a negative frequency area with respect to the DC carrier among the plurality of discovery signal RBs. generating a discovery signal; mapping the discovery signal to a discovery unit; and mapping the discovery unit to at least a part of a plurality of discovery signal Resource Blocks, RBs, wherein if the number of UEs transmitting and receiving discovery signals, including the UE, is equal to or less than a predetermined value, absolute values of frequency bands of discovery signal RBs included in a positive frequency area with respect to a Direct Current, DC, carrier among the plurality of discovery signal RBs are not overlapped with absolute values of frequency bands of discovery signal RBs included in a negative frequency area with respect to the DC carrier among the plurality of discovery signal RBs.
An injection mold comprising a first and a second mold part together defining a space, said space being suitable for receiving a pane element, wherein the first mold part comprises support means for defining a predetermined position of the pane element within the space, wherein the second mold part comprises a pressure plate movable within said space for pressing the pane element against the first mold part and for delimiting a cavity for receiving injected polymer thereby defining the shape of a portion of a border element to be molded onto a circumferential portion of the pane element, characterized in that one or more primary actuators are operatively connected to the pressure plate for controlling the position of the pressure plate within the space, wherein the pressure plate comprises a circumferential plate portion for pressing a circumferential portion of the pane element against the first mold part, wherein a plurality of secondary actuators are operatively connected to respective attachment portions of the circumferential plate portion of the pressure plate for controlling the position of each respective attachment portion within said space, and wherein the shape of the pressure plate can be adjusted by operating one or more primary or secondary actuators.
Oil sump, comprising a bottom wall and a lateral outer wall, which in the assembled condition of the oil sump extends upwards from the bottom wall, as seen in the direction of gravity, and an oil storage region, which is arranged in an interior of the oil sump and, when the oil sump is in operation, is filled with oil up to a storage level, wherein the oil sump comprises an oil cooling region, which is adjacent to the lateral outer wall and is filled with oil up to a cool level, and a decoupling device for decoupling the cool level of the oil in the oil cooling region from the storage level of the oil in the oil storage region in a cool condition of the oil sump, characterized in that the decoupling device comprises a separating wall that is arranged between the oil cooling region and the oil storage region, said separating wall extending upwards from the bottom wall of the oil sump, as seen in the direction of gravity. wherein the oil sump comprises an oil cooling region, which is adjacent to the lateral outer wall and is filled with oil up to a cool level, and a decoupling device for decoupling the cool level of the oil in the oil cooling region from the storage level of the oil in the oil storage region in a cool condition of the oil sump, characterized in that the decoupling device comprises a separating wall that is arranged between the oil cooling region and the oil storage region, said separating wall extending upwards from the bottom wall of the oil sump, as seen in the direction of gravity.
Method in an operating system for scheduling processing resources on a multi-core chip, the multi-core chip comprises a plurality of processor cores (231, 232), the operating system is configured to schedule processing resources to an application to be executed on the multi-core chip, wherein the multi-core chip is characterised by one or several processor cores of a first type, which are adapted to operate on either a first operating frequency or at least one second frequency, and one or several processor cores of a second type, which are adapted to operate on either the first operating frequency or to be switched off, the method comprises the steps of: allocating a plurality of processor cores (231, 232), for parallel computing, to the application, based on an application related parameter of an application generated request for computing resources, when a sequential portion of the application is executing on only one processor core of the first type, switching off at least one processor core of the second type allocated to the application, not executing the sequential portion of the application, and increasing the frequency of the one processor core of the first type executing the application; wherein the processor cores which are adapted to operate on either a first operating frequency and at least one second frequency are spread out over the multi-core chip and surrounded by at least one processor core which is adapted to operate on either the first operating frequency or to be switched off, such that hot spots on the multi-core chip are avoided, and wherein the processor cores allocated to the application are close to each other. allocating a plurality of processor cores (231, 232), for parallel computing, to the application, based on an application related parameter of an application generated request for computing resources, when a sequential portion of the application is executing on only one processor core of the first type, switching off at least one processor core of the second type allocated to the application, not executing the sequential portion of the application, and increasing the frequency of the one processor core of the first type executing the application; wherein the processor cores which are adapted to operate on either a first operating frequency and at least one second frequency are spread out over the multi-core chip and surrounded by at least one processor core which is adapted to operate on either the first operating frequency or to be switched off, such that hot spots on the multi-core chip are avoided, and wherein the processor cores allocated to the application are close to each other.
A process for the production of a pasta food product, which comprises the following steps: a) mixing water and a meal which is suitable for producing pasta, so as to obtain a dough with a water content comprised between 35% and 37.5% by weight of the total weight of said dough; b) kneading said dough; c) extruding said kneaded dough by extrusion through a die plate insert made of polyoxymethylene copolymer; d) drying said extruded dough so as to obtain a pasta food product with a predetermined moisture content. a) mixing water and a meal which is suitable for producing pasta, so as to obtain a dough with a water content comprised between 35% and 37.5% by weight of the total weight of said dough; b) kneading said dough; c) extruding said kneaded dough by extrusion through a die plate insert made of polyoxymethylene copolymer; d) drying said extruded dough so as to obtain a pasta food product with a predetermined moisture content.
A computer-implemented method of analysing an airplane or any of its parts that moves through a fluid medium, comprising the steps of generating a mesh and using a hybrid method combining RANS and LES, characterised in that generating the mesh comprises the following steps: a) creating an inner "C" topology around said airplane or any of its parts for a boundary layer description; b) creating an outer "C" topology around the inner "C" topology covering a space region including the separation region; c) locating the separation region and adapting to it said inner and outer "C's" topologies (21, 23) so that the outer "C" topology is adapted to the size of the separation region and the inner "C" topology is adapted to the size of the boundary layer; d) refining the mesh in the separation region according to the specifications of said RANS/LES method. a) creating an inner "C" topology around said airplane or any of its parts for a boundary layer description; b) creating an outer "C" topology around the inner "C" topology covering a space region including the separation region; c) locating the separation region and adapting to it said inner and outer "C's" topologies (21, 23) so that the outer "C" topology is adapted to the size of the separation region and the inner "C" topology is adapted to the size of the boundary layer; d) refining the mesh in the separation region according to the specifications of said RANS/LES method.
A process of sterilization of a packaging system, constituted by an apparatus for sterilizing containers and by a filling machine, which consists in: - arranging a door so as to close the interface opening defined between said apparatus for sterilizing containers and said filling machine, at least two continuous and closed perimetric expandable gaskets (4, 5), being interposed between said door and said opening and coupled to a perimetric region of a component chosen from either said door or the delimiting edge of said opening, - subjecting said sterilization apparatus to sterilization, keeping inactive the gasket that lies closest to said apparatus, therefore with minimum space occupation and separated from said door, and keeping expanded the gasket that lies furthest from said apparatus, therefore with maximum space occupation and in hermetic abutment against said door, - subjecting said filling machine to sterilization, keeping inactive the gasket that lies closest to said machine, therefore with minimum space occupation and separated from said door, and keeping expanded the gasket that lies furthest from said machine, therefore with maximum space occupation and in hermetic abutment against said door. - arranging a door so as to close the interface opening defined between said apparatus for sterilizing containers and said filling machine, at least two continuous and closed perimetric expandable gaskets (4, 5), being interposed between said door and said opening and coupled to a perimetric region of a component chosen from either said door or the delimiting edge of said opening, - subjecting said sterilization apparatus to sterilization, keeping inactive the gasket that lies closest to said apparatus, therefore with minimum space occupation and separated from said door, and keeping expanded the gasket that lies furthest from said apparatus, therefore with maximum space occupation and in hermetic abutment against said door, - subjecting said filling machine to sterilization, keeping inactive the gasket that lies closest to said machine, therefore with minimum space occupation and separated from said door, and keeping expanded the gasket that lies furthest from said machine, therefore with maximum space occupation and in hermetic abutment against said door.
Assembly for a turbomachine of longitudinal axis comprising a first annular wall, panels being arranged around the longitudinal axis and extending radially opposite said first annular wall so as to form a flow surface for a flow of air, each panel being fixed to the first annular wall by at least one fixing member passing through an orifice in the panel and fixed to the first annular wall, characterized in that a sleeve is inserted in each orifice and comprises a first annular end portion applied to a face of the periphery of the orifice opposite the first annular wall, the fixing member clamping said first annular end portion of the sleeve to the periphery of the orifice, a stud forming a spacer surrounding the sleeve and being clamped radially between the periphery of the orifice and the first annular wall.
Network entity for handling network parameters comprising: means for receiving, from at least one first radio transmitter (101, 102, 103), a representation of local network parameter and corresponding global network parameter for at least one radio transmitter surrounding the first radio transmitter; wherein the local network parameter is reusable for radio transmitters within a cellular communication system, and the global network parameter is unique to a radio transmitter in the cellular communication system; and wherein the network entity is a radio transmitter providing coverage in a cell surrounding the first radio transmitter; and wherein the radio transmitters are base stations. means for receiving, from at least one first radio transmitter (101, 102, 103), a representation of local network parameter and corresponding global network parameter for at least one radio transmitter surrounding the first radio transmitter; wherein the local network parameter is reusable for radio transmitters within a cellular communication system, and the global network parameter is unique to a radio transmitter in the cellular communication system; and wherein the network entity is a radio transmitter providing coverage in a cell surrounding the first radio transmitter; and wherein the radio transmitters are base stations.
A method of calibrating a game controller including a magnetometer during game play, comprising: sampling (402; 602) magnetic information received from the magnetometer, each sample of the magnetic information including a vector component of an ambient magnetic field along each of a first axis, a second axis, and a third axis, the first axis, the second axis, and the third axis being orthogonal to each other characterised in outputting (408; 604), to a computing device, an initial game controller orientation signal derived from a first sample of a plurality of samples of the magnetic information and from directional offset data of magnetic information including a first directional offset along the first axis, a second directional offset along the second axis, and a third directional offset along the third axis, the directional offset data being used for calibrating the initial game controller orientation signal; calculating (420; 606) updated directional offset data by filtering unfiltered offset data determined based on the plurality of samples of the magnetic information with the directional offset data; and outputting (424; 616) to the computing device a calibrated game controller orientation signal derived from a second sample of the plurality of samples of the magnetic information and the updated directional offset data. sampling (402; 602) magnetic information received from the magnetometer, each sample of the magnetic information including a vector component of an ambient magnetic field along each of a first axis, a second axis, and a third axis, the first axis, the second axis, and the third axis being orthogonal to each other characterised in outputting (408; 604), to a computing device, an initial game controller orientation signal derived from a first sample of a plurality of samples of the magnetic information and from directional offset data of magnetic information including a first directional offset along the first axis, a second directional offset along the second axis, and a third directional offset along the third axis, the directional offset data being used for calibrating the initial game controller orientation signal; calculating (420; 606) updated directional offset data by filtering unfiltered offset data determined based on the plurality of samples of the magnetic information with the directional offset data; and outputting (424; 616) to the computing device a calibrated game controller orientation signal derived from a second sample of the plurality of samples of the magnetic information and the updated directional offset data.
A graphics pipeline method for rendering an image from scene information, the method comprising: a step of vertex shading wherein a set of three dimensional coordinates is determined for a primitive from the scene information; a step of projecting the set of three dimensional coordinates onto screen coordinates; a step of sampling shading for determining, for each screen pixel, a location for the respective sampling point for that pixel, based on the pixel position and a distortion pattern that applies distortion to the image so that the rendered image is a distortion image; a step of rasterizing for determining a pixel value at the location of the sampling point for that pixel, the pixel value being based on the primitive overlapping the sampling point; and rendering the image using the generated image pixel; wherein the sampling shading step for determining the locations for the sampling points is performed in parallel with the vertex shading step and the projecting step of the graphics pipeline, before the rasterizing step. a step of vertex shading wherein a set of three dimensional coordinates is determined for a primitive from the scene information; a step of projecting the set of three dimensional coordinates onto screen coordinates; a step of sampling shading for determining, for each screen pixel, a location for the respective sampling point for that pixel, based on the pixel position and a distortion pattern that applies distortion to the image so that the rendered image is a distortion image; a step of rasterizing for determining a pixel value at the location of the sampling point for that pixel, the pixel value being based on the primitive overlapping the sampling point; and rendering the image using the generated image pixel; wherein the sampling shading step for determining the locations for the sampling points is performed in parallel with the vertex shading step and the projecting step of the graphics pipeline, before the rasterizing step.
A furniture carcass with at least one base formed by a furniture panel, which is arranged between two side walls and in which a first hinge part of a hinge is integrated, wherein the first hinge part has a cassette-shaped housing for integration in a furniture panel, wherein the hinge has a second hinge part in the form of a hinge pot for incorporation into one furniture door, wherein the two hinge parts (11, 12) are pivotably connected to one another via a lever mechanism, wherein the housing of the first hinge part is widened in a front region, in which an opening for the lever mechanism is located, in relation to a rear region, wherein at least a part of the lever mechanism occupies a space in the front widened region in a closed position of the hinge, characterized in that at least one connecting element in the furniture panel for connection to a further component of the furniture carcass is arranged in the installation space behind the widened region of the housing and in front of the end of the rear region of the housing.
A volatile memory data save subsystem for a motherboard in a system, the subsystem comprising: a volatile memory device shared power source coupling which when coupled to a shared power source and also coupled to a volatile memory device by the motherboard provides operating power to the volatile memory device, the volatile memory device being one of at least two separately pluggable devices that receive power from the shared power source; a data save trigger coupling which when coupled to the volatile memory device and triggered sends a data save command toward the volatile memory device; and a data save trigger controller, characterised in that the shared power source is configured, in order to trigger the data save trigger coupling, to drop a voltage level to a value that is less than normal operating power but is still sufficient to power the volatile memory device during a data save operation, and wherein the data save trigger controller operates to trigger the data save trigger coupling when the power source drops the voltage level to said value. a volatile memory device shared power source coupling which when coupled to a shared power source and also coupled to a volatile memory device by the motherboard provides operating power to the volatile memory device, the volatile memory device being one of at least two separately pluggable devices that receive power from the shared power source; a data save trigger coupling which when coupled to the volatile memory device and triggered sends a data save command toward the volatile memory device; and a data save trigger controller, characterised in that the shared power source is configured, in order to trigger the data save trigger coupling, to drop a voltage level to a value that is less than normal operating power but is still sufficient to power the volatile memory device during a data save operation, and wherein the data save trigger controller operates to trigger the data save trigger coupling when the power source drops the voltage level to said value.