mhurhangee/ep-ind-claims huggingface dataset:
Process for the preparation of a catalyst comprising the steps of: a) preparing a slurry comprising clay, zeolite, a sodium-free silica source, quasi-crystalline boehmite, and micro-crystalline boehmite, provided that the slurry does not comprise peptised quasi-crystalline boehmite, wherein quasi-crystalline boehmite is defined as having a reflection with a full width at half height (FWHH) of 1.5° or greater than 1.5° 2θ in XRD and micro-crystalline boehmite is defined as having a reflection with a FWHH of smaller than 1.5° 2θ b) adding a monovalent acid to the slurry, c) adjusting the pH of the slurry to a value above 3, and d) shaping the slurry to form particles. a) preparing a slurry comprising clay, zeolite, a sodium-free silica source, quasi-crystalline boehmite, and micro-crystalline boehmite, provided that the slurry does not comprise peptised quasi-crystalline boehmite, wherein quasi-crystalline boehmite is defined as having a reflection with a full width at half height (FWHH) of 1.5° or greater than 1.5° 2θ in XRD and micro-crystalline boehmite is defined as having a reflection with a FWHH of smaller than 1.5° 2θ b) adding a monovalent acid to the slurry, c) adjusting the pH of the slurry to a value above 3, and d) shaping the slurry to form particles.
A liquid radiation curable resin comprising: A) from 0 to 12 wt.% of a cycloaliphatic epoxide having a linking ester group; B) from 30 to 65 wt.% of one or more epoxy functional components other than A); C) from 10 to 30 wt.% of one or more oxetanes; D) from 1 to 10 wt.% of one or more polyols; E) from 2 to 20 wt.% of one or more radically curable (meth)acrylate components; F) from 2 to 12 wt.% of one or more impact modifiers; G) from 0.1 to 8 wt.% of one or more free radical photoinitiators; and H) from 0.1 to 8 wt.% of one or more cationic photoinitiators; wherein the liquid radiation curable resin has a viscosity at 30 °C of from 600 mPa·s (600 cps) to 1300 mPa·s (1300 cps), and wherein the liquid radiation curable resin, after full cure, has a Young's modulus of from 2.25 GPa to 2.80 GPa, where viscosity and Young's modulus are measured according to the methods given in the present specification. A) from 0 to 12 wt.% of a cycloaliphatic epoxide having a linking ester group; B) from 30 to 65 wt.% of one or more epoxy functional components other than A); C) from 10 to 30 wt.% of one or more oxetanes; D) from 1 to 10 wt.% of one or more polyols; E) from 2 to 20 wt.% of one or more radically curable (meth)acrylate components; F) from 2 to 12 wt.% of one or more impact modifiers; G) from 0.1 to 8 wt.% of one or more free radical photoinitiators; and H) from 0.1 to 8 wt.% of one or more cationic photoinitiators;
A stable pharmaceutical formulation for oral administration comprising: from 1 to 35 % of cannabidiol; and from 50 to 90 % of caprylic/capric triglyceride and 0.1 to 1.0 % of alpha-tocopherol.
A target network node in a mobile communication system, the target network node comprising: a receiver configured to receive a handover request message from a source network node, wherein the handover request message includes association information indicative of association among a plurality of bearers and information indicative of whether each of the plurality of bearers is to be mandatory setup by the target network node; a processor configured to: check whether bearers, associated with each other based on the association information, are capable of being set up to determine acceptance or rejection of handover, and generate a handover message indicative of the determined acceptance or rejection of handover; and a transmitter configured to transmit the handover message to the source network node. a receiver configured to receive a handover request message from a source network node, wherein the handover request message includes association information indicative of association among a plurality of bearers and information indicative of whether each of the plurality of bearers is to be mandatory setup by the target network node; a processor configured to: check whether bearers, associated with each other based on the association information, are capable of being set up to determine acceptance or rejection of handover, and generate a handover message indicative of the determined acceptance or rejection of handover; and check whether bearers, associated with each other based on the association information, are capable of being set up to determine acceptance or rejection of handover, and generate a handover message indicative of the determined acceptance or rejection of handover; and a transmitter configured to transmit the handover message to the source network node.
Tool for the axial pressing of fittings which consist of a predominantly cylindrical sleeve and an also cylindrical compression ring which through the two-part pressing tool, the housing parts of which are connected to each other, is pushed over the sleeve, wherein radial deformation of the sleeve is brought about, wherein the tool comprises two housing parts (1, 2) connected to each other in an articulated manner and a plug coupling for connection to a hydraulic pump by way of a flexible tube with a plug coupling, pistons (16, 34) located in the housing are arranged symmetrically in relation to a line than runs parallel to the tool partition and through the centroid of the area of the inserts so that the resulting force acts through the centroid of the area of the force-transmitting areas and that it comprises two mirror-inverted housing parts (1, 2) which are connected to each other in a rotatable manner by two joints extending over the entire height, characterised in that the two mirror-inverted housing parts (1, 2) can be automatically locked when they are closed.
Rechargeable electric battery, in particular a high-voltage battery, preferably for an electric vehicle, having at least two stacks (3, 4) of battery cells strung together in the direction of stacking (y), wherein the stacks (3, 4) are arranged side-by-side transversely to the direction of stacking, wherein at least two stacks (3, 4) arranged side-by-side are arranged offset relative to each other in the direction of stacking (y), at least one battery cell of a stack (3, 4) is arranged at least partly overlapping with respect to at least one battery cell of an adjacent stack (4, 3), and at least one battery cell is encapsulated by a plastic cell casing, wherein the plastic cell casing has a protruding sealing seam which surrounds the battery cell and is arranged to run along the narrow side of the battery cell, characterised in that a space is defined between each of the sealing seams of the adjacent battery cells of a stack (3, 4), wherein at least one sealing seam of a battery cell of the one stack (3, 4) projects into a space defined by the sealing seams of two adjacent battery cells of the other stack (4, 3).
Fiber web machine comprising a damper for controlling vibrations of different components of sections and/or devices of the fiber web machine, wherein the damper comprises a frame and a support element for attaching the damper to a component of a fiber web machine for damping vibration, inside the frame a liquid volume, advantageously an oil volume, a channel for liquid flow, an adjustable flow restrictor located in the channel for controlling flow of the liquid in the liquid volume and an inertial mass mounted to the frame by mounting springs floating in the liquid volume and that the inertial mass is movable in direction of vibration such that when the frame vibrates the inertial mass moves towards the support element and forces the liquid volume to decrease and a liquid flow into the channel creating a pressure loss in said channel, which provides damping.
A computer-implemented data processing method for identifying personal data in a particular cookie, the method comprising: generating a plurality of virtual user profiles; storing the plurality of virtual user profiles in a memory; accessing a plurality of websites with the plurality of virtual user profiles scanning, by one or more processors, using the plurality of virtual user profiles, a single website for one or more cookies; scanning, by one or more processors, the plurality of websites using a first particular one of the plurality of virtual user profiles that persists across the plurality of websites for the one or more cookies; identifying, by one or more processors, the particular cookie from the one or more cookies; determining, by one or more processors, whether a host of the particular cookie is a third party host; determining, by one or more processors, a purpose of the particular cookie; determining, by one or more processors, based at least in part on whether the host of the particular cookie is the third party host and the purpose of the particular cookie, whether a particular individual is likely to be identified by the particular cookie; in response to determining that a particular individual is likely to be identified by the particular cookie, generating, by one or more processors, a report regarding a likelihood that the particular individual might be identified by the particular cookie; and displaying, by one or more processors, the report to an individual associated with the single website. generating a plurality of virtual user profiles; storing the plurality of virtual user profiles in a memory; accessing a plurality of websites with the plurality of virtual user profiles scanning, by one or more processors, using the plurality of virtual user profiles, a single website for one or more cookies; scanning, by one or more processors, the plurality of websites using a first particular one of the plurality of virtual user profiles that persists across the plurality of websites for the one or more cookies; identifying, by one or more processors, the particular cookie from the one or more cookies; determining, by one or more processors, whether a host of the particular cookie is a third party host; determining, by one or more processors, a purpose of the particular cookie; determining, by one or more processors, based at least in part on whether the host of the particular cookie is the third party host and the purpose of the particular cookie, whether a particular individual is likely to be identified by the particular cookie; in response to determining that a particular individual is likely to be identified by the particular cookie, generating, by one or more processors, a report regarding a likelihood that the particular individual might be identified by the particular cookie; and displaying, by one or more processors, the report to an individual associated with the single website.
A method of manufacturing an optical component for an optical semiconductor device, the method comprising: providing a joined body comprising: a first member having light transmissivity and containing at least one element selected from the group consisting of oxygen, fluorine, and nitrogen, and a second member, wherein the first member and the second member are joined together via a metal joining member made by directly bonding a first metal film formed on the first member and a second metal film formed on the second member by an atomic diffusion bonding method or a surface activated bonding method; and irradiating the joining member with a laser beam or a microwave. providing a joined body comprising: a first member having light transmissivity and containing at least one element selected from the group consisting of oxygen, fluorine, and nitrogen, and a second member, wherein the first member and the second member are joined together via a metal joining member made by directly bonding a first metal film formed on the first member and a second metal film formed on the second member by an atomic diffusion bonding method or a surface activated bonding method; and a first member having light transmissivity and containing at least one element selected from the group consisting of oxygen, fluorine, and nitrogen, and a second member, wherein the first member and the second member are joined together via a metal joining member made by directly bonding a first metal film formed on the first member and a second metal film formed on the second member by an atomic diffusion bonding method or a surface activated bonding method; and irradiating the joining member with a laser beam or a microwave.
An aero gas turbine engine comprising a compressor (14, 15) provided on a spool, an array of variable inlet guide vanes for the compressor (14, 15) and a controller configured to control the angle of the variable inlet guide vanes in accordance with a schedule, the schedule comprising a first component invoked for engine ground start and a second component invoked for engine in-flight windmill start at least under particular flight conditions and where the angle of the variable inlet guide vanes required by at least a portion of the second component corresponding to a particular range of spool speeds within a broader range of spool speeds is greater than the angle of the variable inlet guide vanes required by at least a portion of the first component corresponding to said particular range of spool speeds.
Method for the fusion of 3D ultrasound images with a pre-acquired 3D image, comprising the following steps: a) acquisition of a first 3D ultrasound image in real-time; b) identification of at least one known reference pattern or object within the pre-acquired 3D image and the first 3D ultrasound image; c) registration of the first 3D ultrasound image acquired in real-time with the pre-acquired 3D image by using the reference pattern or object; d) fusion of 3D ultrasound images of a sequence of 3D ultrasound images acquired in real-time with the pre-acquired 3D image by using data of a registration between said 3D ultrasound images and the pre-acquired 3D image; e) display of fusion tomographic images, each fusion image comprising a corresponding 3D ultrasound image acquired in real-time and the pre-acquired 3D image, characterized in that the registration between the 3D ultrasound images acquired in real-time and the pre-acquired 3D image is performed in a continuous manner by a background processing, comprising continuing to acquire the real-time 3D ultrasound images and to register said real-time 3D ultrasound images with the pre-acquired 3D image by using said reference pattern or patterns or said object or objects, the said background processing comprising the steps of performing registration for each real -time 3D ultrasound image of the sequence of 3D ultrasound images, and omitting display for each real time 3D ultrasound image. a) acquisition of a first 3D ultrasound image in real-time; b) identification of at least one known reference pattern or object within the pre-acquired 3D image and the first 3D ultrasound image; c) registration of the first 3D ultrasound image acquired in real-time with the pre-acquired 3D image by using the reference pattern or object; d) fusion of 3D ultrasound images of a sequence of 3D ultrasound images acquired in real-time with the pre-acquired 3D image by using data of a registration between said 3D ultrasound images and the pre-acquired 3D image; e) display of fusion tomographic images, each fusion image comprising a corresponding 3D ultrasound image acquired in real-time and the pre-acquired 3D image,
A device for driving an endodontic file head of an endodontic device and for operating a remote pump, the device comprising: - a gear for the connection with the endodontic file head; - a drive shaft for rotating the gear and for rotating at least one magnet; - a first cylindrical element surrounding the drive shaft; - a rotatable magnet holding means surrounding the first cylindrical element; - at least one magnet fixed in the rotatable magnet holding means; - a coil surrounding the rotatable magnet holding means; - a second cylindrical element surrounding the coil; characterized in that the device further comprises - a central processing unit; - an inner encoder on the central processing unit for measuring the velocity of the drive shaft; - a transmitter; - an antenna for sending a signal to a remote pump;and - at least one sleeve interlinked with the drive shaft for moving the drive shaft by a motorized power handle. - a gear for the connection with the endodontic file head; - a drive shaft for rotating the gear and for rotating at least one magnet; - a first cylindrical element surrounding the drive shaft; - a rotatable magnet holding means surrounding the first cylindrical element; - at least one magnet fixed in the rotatable magnet holding means; - a coil surrounding the rotatable magnet holding means; - a second cylindrical element surrounding the coil; - a central processing unit; - an inner encoder on the central processing unit for measuring the velocity of the drive shaft; - a transmitter; - an antenna for sending a signal to a remote pump;and - at least one sleeve interlinked with the drive shaft for moving the drive shaft by a motorized power handle.
A gas diffusion layer for a fuel cell, comprising: a gas diffusion layer substrate including carbon fiber; and a microporous layer, the microporous layer being formed into a sheet-like shape including: a binder; and a carbon material containing scale-like graphite (Gf), an electrically conductive path material and a spacer material, wherein the electrically conductive path material is carbon black, wherein the spacer material is granular graphite (Gg), and the sheet-like microporous layer being attached to the gas diffusion layer substrate. a gas diffusion layer substrate including carbon fiber; and a microporous layer, the microporous layer being formed into a sheet-like shape including: a binder; and a carbon material containing scale-like graphite (Gf), an electrically conductive path material and a spacer material, wherein the electrically conductive path material is carbon black, wherein the spacer material is granular graphite (Gg), and the sheet-like microporous layer being attached to the gas diffusion layer substrate. a binder; and a carbon material containing scale-like graphite (Gf), an electrically conductive path material and a spacer material, wherein the electrically conductive path material is carbon black, wherein the spacer material is granular graphite (Gg), and the sheet-like microporous layer being attached to the gas diffusion layer substrate.
A nuclear fission reactor, the reactor comprising a core, a pool of coolant liquid, and a heat exchanger. for extracting heat from the coolant liquid, wherein: the core comprises an array of hollow fuel tubes, each containing molten salt of one or more fissile isotopes, the fuel tube array being at least partly immersed in the pool of coolant liquid, the fuel tube array comprising a critical region, where the density of the fissile isotopes during operation of the reactor is sufficient to cause a self-sustaining fission reaction; and the nuclear fission reactor is arranged such that heat transfer from the molten salt in each fuel tube to the exterior of that tube is achieved by any one or more of: natural convection of the molten salt; mechanical stirring of the molten salt; oscillating molten salt flow within the fuel tube; and boiling of the molten salt within the fuel tube; and such that the molten salt of fissile isotopes is contained entirely within the fuel tubes during operation of the reactor. the core comprises an array of hollow fuel tubes, each containing molten salt of one or more fissile isotopes, the fuel tube array being at least partly immersed in the pool of coolant liquid, the fuel tube array comprising a critical region, where the density of the fissile isotopes during operation of the reactor is sufficient to cause a self-sustaining fission reaction; and the nuclear fission reactor is arranged such that heat transfer from the molten salt in each fuel tube to the exterior of that tube is achieved by any one or more of: natural convection of the molten salt; mechanical stirring of the molten salt; oscillating molten salt flow within the fuel tube; and boiling of the molten salt within the fuel tube; and such that the molten salt of fissile isotopes is contained entirely within the fuel tubes during operation of the reactor. natural convection of the molten salt; mechanical stirring of the molten salt; oscillating molten salt flow within the fuel tube; and boiling of the molten salt within the fuel tube; and such that the molten salt of fissile isotopes is contained entirely within the fuel tubes during operation of the reactor.
A facility for preparing brine comprising at least: an inlet for fresh water, a salt storage device, a preparation tank for the brine, a device for distributing the salt in the brine preparation tank and a storage tank for the prepared brine, the brine preparation tank being equipped with at least one fresh water distribution manifold located in the lower part of the brine preparation tank, a discharge device for the brine, located in the upper part of said brine preparation tank, said device being adapted (15, 16) to feed at least the storage tank in a homogeneous and regular manner, by spillover, characterised in that the spillover control device is a height-adjustable strip.
A polishing tank comprising: - a metal sleeve; and, - a removable insert modular system; said removable insert modular system being configured to be inserted into said metal sleeve and to be removed from said metal sleeve. characterises in that said metal sleeve comprises a deformable area so as to locate a deformation and comprises a cover held to the body of the sleeve by fastening members and preferably screws. - a metal sleeve; and, - a removable insert modular system; said removable insert modular system being configured to be inserted into said metal sleeve and to be removed from said metal sleeve.
Microfiber composite nonwoven comprising a first and a second fibrous component arranged in the form of alternating plies, wherein - at least one first ply A comprises the first fibrous component in the form of melt-spun composite filaments laid down to form a web, some or all of which have been split into elemental filaments having an average linear density of less than 0.1 dtex, preferably between 0.03 dtex and 0.06 dtex, and consolidated, - at least one ply B is arranged on the first ply A, wherein the ply B comprises the second fibrous component in the form of fibers having an average linear density of 0.1 to 3 dtex which have been laid down to form a web and consolidated, - at least one second ply A is arranged on the ply B, characterized in that the microfiber composite nonwoven has a layered construction A n BA where n = 1 to 20. - at least one first ply A comprises the first fibrous component in the form of melt-spun composite filaments laid down to form a web, some or all of which have been split into elemental filaments having an average linear density of less than 0.1 dtex, preferably between 0.03 dtex and 0.06 dtex, and consolidated, - at least one ply B is arranged on the first ply A, wherein the ply B comprises the second fibrous component in the form of fibers having an average linear density of 0.1 to 3 dtex which have been laid down to form a web and consolidated, - at least one second ply A is arranged on the ply B, characterized in that the microfiber composite nonwoven has a layered construction A n BA where n = 1 to 20.