mhurhangee/ep-ind-claims huggingface dataset:
A user equipment, UE, comprising: means for receiving from a network a first signaling indicating one or more reference signal, RS, resource configurations; means for receiving from the network a second signaling indicating one or more interference measurement, IM, resource configurations; wherein the UE is characterized by further comprising: means for receiving from the network a third signaling indicating a channel state information, CSI, report configuration, wherein the CSI report configuration indicates a subset of the one or more RS resource configurations and a subset of the one or more IM resource configurations. means for receiving from a network a first signaling indicating one or more reference signal, RS, resource configurations; means for receiving from the network a second signaling indicating one or more interference measurement, IM, resource configurations; wherein the UE is characterized by further comprising: means for receiving from the network a third signaling indicating a channel state information, CSI, report configuration, wherein the CSI report configuration indicates a subset of the one or more RS resource configurations and a subset of the one or more IM resource configurations.
A method for determining the potential of a protein to self-associate, the method comprising: a. combining a protein, a nanoparticle, and a buffered salt to form a sample; b. exciting the sample with light; c. measuring the light transmitted through the sample at multiple wavelengths ranging from 450 nm to about 750 nm; d. calculating the absorbance intensity ratio of the sample, wherein the absorbance intensity ratio is the ratio of absorbance intensity at the maximum absorbance (λ max) to the initial absorbance at 450 nm; wherein the protein is stable at high concentration when the absorbance intensity ratio exceeds a 1.7. a. combining a protein, a nanoparticle, and a buffered salt to form a sample; b. exciting the sample with light; c. measuring the light transmitted through the sample at multiple wavelengths ranging from 450 nm to about 750 nm; d. calculating the absorbance intensity ratio of the sample, wherein the absorbance intensity ratio is the ratio of absorbance intensity at the maximum absorbance (λ max) to the initial absorbance at 450 nm;
Locking device for locking a leaf of a door or the like, comprising at least one electric motor (14; 16) which is operated as a generator and the motor shaft of which is operatively connected to the leaf by means of a force-transmitting unit, wherein the motor terminals of at least one electric motor (14; 16) operating as a generator are connected to an electrical damping circuit for the purpose of damping the leaf movements, and the motor shaft of at least one electric motor (14; 16) operating as a generator can be acted on by a braking unit of the locking device for the purpose of locking the leaf, wherein the locking device comprises an evaluation and/or control unit by means of which the braking unit can be actuated, and at least one electric motor (14; 16) which is operated as a generator is connected to an electrical charging circuit by means of its motor terminals, it being possible for electrical energy to be supplied to the evaluation and/or control unit by means of the said electrical charging circuit, wherein the locking device comprises at least two electric motors (14; 16) which are each operated as a generator and one of which is connected to the electrical damping circuit by means of its motor terminals and the other of which is connected to the electrical charging circuit by means of its motor terminals, wherein the motor shaft of the electric motor which is connected to the electrical charging circuit by means of its motor terminals and/or the motor shaft of the electric motor which is connected to the electrical damping circuit by means of its motor terminals can be acted on by the braking unit for the purpose of locking the leaf.
A breathing mask having a mask bead, which seals the mask toward the patient, a mask body and at least one wing which serves to receive a harness clip, wherein the harness clip fixes a head harness to the mask, wherein the wing has a funnel-shaped recess and the clip catches in the region of a latching point of the recess, characterized in that a latching pin is arranged facing the latching point on the mask body or a spring plate, said latching pin preferably having a rounded surface contour.
An intragastric balloon comprising: an initial fill gas comprising an inert gas; a valve system configured for introducing the initial fill gas into the balloon in an in vivo gastric environment; and a polymeric wall comprising one or more layers, wherein the polymeric wall is configured to have, under in vivo gastric conditions, a permeability to CO2 of more than 10 cc/m2/day, and wherein the polymeric wall is configured such that, in the in vivo gastric environment, the balloon is configured to gain in volume and in pressure during a useful life in the in vivo gastric environment of the intragastric balloon when filled with the initial fill gas. an initial fill gas comprising an inert gas; a valve system configured for introducing the initial fill gas into the balloon in an in vivo gastric environment; and a polymeric wall comprising one or more layers, wherein the polymeric wall is configured to have, under in vivo gastric conditions, a permeability to CO2 of more than 10 cc/m2/day, and wherein the polymeric wall is configured such that, in the in vivo gastric environment, the balloon is configured to gain in volume and in pressure during a useful life in the in vivo gastric environment of the intragastric balloon when filled with the initial fill gas.
A stapling device, comprising: an activation unit configured to sense at least one of a movement of the stapling device or a signal from a timer; a detection unit communicatively coupled to the activation unit, wherein the detection unit is configured to be activated based on a signal from the activation unit to generate an input data in response to the activation unit sensing the at least one of the movement of the stapling device or the signal from the timer; a processing unit configured to determine a number of pins in the stapling device, by comparing the input data with a pre-configured data; and a display unit, interfaced with the processing unit, configured to indicate a status of the pins in the stapling device, wherein the status is based on the determined number of pins in the stapling device. an activation unit configured to sense at least one of a movement of the stapling device or a signal from a timer; a detection unit communicatively coupled to the activation unit, wherein the detection unit is configured to be activated based on a signal from the activation unit to generate an input data in response to the activation unit sensing the at least one of the movement of the stapling device or the signal from the timer; a processing unit configured to determine a number of pins in the stapling device, by comparing the input data with a pre-configured data; and a display unit, interfaced with the processing unit, configured to indicate a status of the pins in the stapling device, wherein the status is based on the determined number of pins in the stapling device.
Method for parameterizing an image processing system, which monitors a processing space of a machine tool by means of one or more cameras, wherein images of the processing space are recorded and the image processing system makes a decision as to whether an image shows a good case or a bad case, wherein, for the purposes of parameterizing the image processing system, - the image processing system is initialized with preliminary parameters in an initialization step, - a set of a plurality of images are stored as raw data that are independent of the parameterization of the image processing system in a raw data capture step, in each case together with an item of information as to whether an image shows a good case or a bad case, - such parameters of the image processing system that influence the result of the image processing are modified in a parameter modification step, wherein the parameters comprise the selection of certain edges detected within the images, said edges being marked as essential, and the maximum permissible distance of said edges from a setpoint position of the edges, - the raw data is processed by the image processing system using the modified parameters in an assessment step and, in the process, divided into good cases and bad cases, the division into good cases and bad cases undertaken by the image processing system thereupon being compared to the good/bad items of information stored together with the raw data, wherein the parameterization of the image processing system is terminated in the case of a sufficient correspondence of the division with the good/bad items of information and, otherwise, there is a jump to the parameter modification step. - the image processing system is initialized with preliminary parameters in an initialization step, - a set of a plurality of images are stored as raw data that are independent of the parameterization of the image processing system in a raw data capture step, in each case together with an item of information as to whether an image shows a good case or a bad case, - such parameters of the image processing system that influence the result of the image processing are modified in a parameter modification step, wherein the parameters comprise the selection of certain edges detected within the images, said edges being marked as essential, and the maximum permissible distance of said edges from a setpoint position of the edges, - the raw data is processed by the image processing system using the modified parameters in an assessment step and, in the process, divided into good cases and bad cases, the division into good cases and bad cases undertaken by the image processing system thereupon being compared to the good/bad items of information stored together with the raw data, wherein the parameterization of the image processing system is terminated in the case of a sufficient correspondence of the division with the good/bad items of information and, otherwise, there is a jump to the parameter modification step.
An expandable insert for a structure comprising: a substrate configured to be secured to the structure; and a plurality of discrete expandable elements secured to the substrate each of the discrete expandable elements formed of an expandable material; wherein the substrate has a stiffness allowing the substrate to deflect relative to an initial shape, the plurality of discrete expandable elements that are secured to the substrate allowing the substrate to be deflected prior to expansion of the expandable elements characterized in that the substrate is one of a flexible tape and a mesh. a substrate configured to be secured to the structure; and a plurality of discrete expandable elements secured to the substrate each of the discrete expandable elements formed of an expandable material; wherein the substrate has a stiffness allowing the substrate to deflect relative to an initial shape, the plurality of discrete expandable elements that are secured to the substrate allowing the substrate to be deflected prior to expansion of the expandable elements characterized in that the substrate is one of a flexible tape and a mesh.
A method, comprising: providing a laser-Compton scattering x-ray beam with the highest energy photos emitting in the forward direction; aperturing said x-ray beam to create a first on-axis beam region having an energy that is greater than the k-shell absorption edge of a contrast agent or a specific material within an object, and a second beam region, having an energy that is less than the k-shell absorption edge of said contrast agent or specific material within the object, and where the x-ray beam therefore has two distinct spatial regions having two distinct x-ray spectra, wherein the second beam region is surrounding the first beam region; directing said x-ray beam onto a first location on an object; detecting a first energy of said first beam region and a second energy of said second beam region after portions of each have been transmitted through said first location; calculating the difference between a normalized said first energy and a normalized said second energy; and displaying said difference. providing a laser-Compton scattering x-ray beam with the highest energy photos emitting in the forward direction; aperturing said x-ray beam to create a first on-axis beam region having an energy that is greater than the k-shell absorption edge of a contrast agent or a specific material within an object, and a second beam region, having an energy that is less than the k-shell absorption edge of said contrast agent or specific material within the object, and where the x-ray beam therefore has two distinct spatial regions having two distinct x-ray spectra, wherein the second beam region is surrounding the first beam region; directing said x-ray beam onto a first location on an object; detecting a first energy of said first beam region and a second energy of said second beam region after portions of each have been transmitted through said first location; calculating the difference between a normalized said first energy and a normalized said second energy; and displaying said difference.
A method for reducing the Ra value of the surface roughness of a titanium aluminide alloy-containing article, said method comprising: stabilizing the titanium aluminide alloy on a structure; passing an abrasive medium of sequentially decreasing grit sizes across the surface of said stabilized titanium aluminide alloy at speeds of at least 5m/s and thereby deforming both the gamma TiAl phase and the α2 (Ti 3 Al) phase of the titanium aluminide alloy plastically, and reducing the Ra value of the surface of the titanium aluminide alloy, wherein said passing comprises passing a first abrasive medium of particles ranging from 140 microns to 195 microns across the surface, then passing a second abrasive medium of particles ranging from 115 microns to 145 microns across the surface, and then passing a third abrasive medium of particles ranging from 40 microns to 60 microns across the surface. stabilizing the titanium aluminide alloy on a structure; passing an abrasive medium of sequentially decreasing grit sizes across the surface of said stabilized titanium aluminide alloy at speeds of at least 5m/s and thereby deforming both the gamma TiAl phase and the α2 (Ti 3 Al) phase of the titanium aluminide alloy plastically, and reducing the Ra value of the surface of the titanium aluminide alloy, wherein said passing comprises passing a first abrasive medium of particles ranging from 140 microns to 195 microns across the surface, then passing a second abrasive medium of particles ranging from 115 microns to 145 microns across the surface, and then passing a third abrasive medium of particles ranging from 40 microns to 60 microns across the surface.
A system for measuring deformation of a heart, the system comprising: an imaging system arranged to acquire two images of the heart at respective points in the cardiac cycle; locating means for locating a series of pairs of points on the images, each pair of points indicating the respective positions of a single part of the heart in two images; processing means (106, 108) arranged to: calculate from the positions of said pairs of points a value of at least one parameter of the deformation of the heart, characterized in that the at least one parameter includes the sum of displacements in the longitudinal and radial directions for at least one of said parts of the heart. an imaging system arranged to acquire two images of the heart at respective points in the cardiac cycle; locating means for locating a series of pairs of points on the images, each pair of points indicating the respective positions of a single part of the heart in two images; processing means (106, 108) arranged to: calculate from the positions of said pairs of points a value of at least one parameter of the deformation of the heart, characterized in that the at least one parameter includes the sum of displacements in the longitudinal and radial directions for at least one of said parts of the heart.
Method for producing a component by hot working a steel mill bar cut from a hot strip, the mill bar being heated to working temperature and then being worked, characterised in that the mill bar is heated to a temperature below the Ac 1 transformation temperature and the strength of the mill bar is increased prior to heating by means of strain hardening, the mill bar being worked to a strain level of at least 3% during the strain hardening.
A hard coating film comprising a hard coating layer comprising: a crosslinked product of (a) a polyrotaxane compound, wherein the polyrotaxane compound is obtainable by introducing 50 g of caprolactone - grafted polyrotaxane polymer into a reactor, adding 4.53 g or 9.06 g of 2-acryloyloxyethyl isocyanate, 20 mg of dibutyltin dilaurate, 110 mg of hydroquinone monomethylene ether and 315 g of methylethylketone thereto, reacting at 70°C for 5 hours, to obtain a polyrotaxane polymer liquid including cyclodextrin to which a polylactone-based compound having an acrylate-based compound introduced at the end is bonded as a macrocycle, dripping the polyrotaxane polymer liquid into n-hexane solvent to precipitate a polymer, and filtering to obtain a white solid polymer, and (b) a binder resin, wherein a ratio of the acrylate-based compound introduced at the end of the lactone-based compound is 46.8 mol% when 4.53 g of 2-acryloyloxyethylisocyanate is added, and wherein a ratio of the acrylate-based compound introduced at the end of the lactone-based compound is 60.0 mol% when 9.06 g of 2-acryloyloxyethyl isocyanate is added.
A process of manufacturing a reinforced dried gel composite comprising the steps of: providing a segmented fiber reinforcement sheet or a segmented open cell foam reinforcement sheet; combining the segmented reinforcement sheet with a gel precursor; gelling the gel precursor in the combination to make a reinforced gel composite sheet; rolling the composite sheet; and drying the reinforced gel composite sheet to make a reinforced dried gel composite sheet, wherein the reinforced dried gel composite sheet comprises aerogel materials. providing a segmented fiber reinforcement sheet or a segmented open cell foam reinforcement sheet; combining the segmented reinforcement sheet with a gel precursor; gelling the gel precursor in the combination to make a reinforced gel composite sheet; rolling the composite sheet; and drying the reinforced gel composite sheet to make a reinforced dried gel composite sheet, wherein the reinforced dried gel composite sheet comprises aerogel materials.
A Method for producing a compound of Formula I comprising the steps of: Step 1: Radiolabeling compound of Formula II with a F-18 fluorinating agent, to obtain compound of Formula I, if R = H or to obtain compound of Formula III, if R = PG Step 2: If R = PG, cleavage of the protecting group PG to obtain a compound of Formula I Step 3: Purification and Formulation of a compound of Formula I wherein: n = 3, X is selected from the group consisting of a) CH, b) N, R is selected from the group consisting of a) H, b) PG, PG is an "Amine-protecting group", LG is a leaving group selected from the group consisting of: a) Halogen and b) Sulfonyloxy, Halogen is chloro, bromo or iodo, wherein LG contains 0-3 fluorine atoms wherein 10-50 μmol of a compound of formula II are used, wherein the radiofluorination of compound of formula II is carried out in acetonitrile, dimethylsulfoxide or dimethylformamide or a mixture thereof. n = 3, X is selected from the group consisting of a) CH, b) N, a) CH, b) N, R is selected from the group consisting of a) H, b) PG, a) H, b) PG, PG is an "Amine-protecting group", LG is a leaving group selected from the group consisting of: a) Halogen and b) Sulfonyloxy, a) Halogen and b) Sulfonyloxy, Halogen is chloro, bromo or iodo, wherein LG contains 0-3 fluorine atoms wherein 10-50 μmol of a compound of formula II are used, wherein the radiofluorination of compound of formula II is carried out in acetonitrile, dimethylsulfoxide or dimethylformamide or a mixture thereof.
Gas appliance comprising a gas cock and a control device, the gas cock comprising an electromagnetic valve which allows the passage of gas therethrough in an opening position and prevents such passage in a closing position, a cock shaft that moves towards the electromagnetic valve when the gas cock is pressure-actuated, causing said electromagnetic valve to go to the opening position, and a signal line, the control device being communicated with the gas cock through the signal line, the electromagnetic valve comprising a static element which is electrically connected to the signal line, a coil wound around the static element, and a moving element which is arranged between the cock shaft and the static element and which moves being pushed by the cock shaft when the latter moves as the gas cock is pressure-activated, the electromagnetic valve thereby being caused to go to the opening position and the signal line thereby being electrically connected to the cock shaft through the static element and the moving element of the electromagnetic valve when the gas cock is pressure-activated, characterized in that the control device is responsible for controlling the supply of the coil of the electromagnetic valve, said control device receiving a signal representative of the electrical connection between the cock shaft and the signal line through the signal line when the gas cock is pressure-activated, the cock shaft being electrically grounded, the signal representative of said electrical connection thus being the grounding of the signal line. the electromagnetic valve comprising a static element which is electrically connected to the signal line, a coil wound around the static element, and a moving element which is arranged between the cock shaft and the static element and which moves being pushed by the cock shaft when the latter moves as the gas cock is pressure-activated, the electromagnetic valve thereby being caused to go to the opening position and the signal line thereby being electrically connected to the cock shaft through the static element and the moving element of the electromagnetic valve when the gas cock is pressure-activated, characterized in that the control device is responsible for controlling the supply of the coil of the electromagnetic valve, said control device receiving a signal representative of the electrical connection between the cock shaft and the signal line through the signal line when the gas cock is pressure-activated, the cock shaft being electrically grounded, the signal representative of said electrical connection thus being the grounding of the signal line.