mhurhangee/ep-ind-claims huggingface dataset:
Chamber system for transmitting ions generated by means of ion generation source, comprising: a) a tube-like device for transferring ions generated by an ion generation source comprising a cylindrical middle portion and an inlet portion for introduction of the ions into the cylindrical middle portion, wherein the inlet portion is formed tapering funnel-like so that its cross section, which is oriented perpendicular to the longitudinal axis, diminishes towards the middle portion, wherein a flow direction of the ions is along a longitudinal axis of the tube-like device, an inner wall segment of the inlet portion is formed convexly, wherein the curvature is formed as a smooth inner surface of the funnel region avoiding kinks that moreover transforms smoothly into the cylindrical part of the middle portion; b) a ion generation source arranged in the inlet portion, which is arranged and adapted for initially emitting an ion gas cloud in the inlet portion and the tube-like device for transferring ions in at least one ion cloud from high pressure atmosphere to low pressure atmosphere through the middle portion, and c) a device for receiving the emitted ions; characterized in that the ion generation source is a nanospray ion generation source; and the cylindrical middle portion is a linear tube having a continuous orifice extending along the longitudinal axis. a) a tube-like device for transferring ions generated by an ion generation source comprising a cylindrical middle portion and an inlet portion for introduction of the ions into the cylindrical middle portion, wherein the inlet portion is formed tapering funnel-like so that its cross section, which is oriented perpendicular to the longitudinal axis, diminishes towards the middle portion, wherein a flow direction of the ions is along a longitudinal axis of the tube-like device, an inner wall segment of the inlet portion is formed convexly, wherein the curvature is formed as a smooth inner surface of the funnel region avoiding kinks that moreover transforms smoothly into the cylindrical part of the middle portion; b) a ion generation source arranged in the inlet portion, which is arranged and adapted for initially emitting an ion gas cloud in the inlet portion and the tube-like device for transferring ions in at least one ion cloud from high pressure atmosphere to low pressure atmosphere through the middle portion, and c) a device for receiving the emitted ions;
Roller carriage arrangement for a door or a window of a building, wherein the window or the door has a fixed frame and a leaf which can be released from the fixed frame and which can be displaced relative to the fixed frame and wherein the roller carriage arrangement has the following: a) a first roller carriage having a single-piece roller carriage housing; b) a first roller and a second roller which are arranged on the roller carriage housing and which can be rolled on a sliding rail of the fixed frame; wherein the roller carriage arrangement has a first coupling rod and a second roller carriage, wherein the second roller carriage is connected indirectly or directly via the first coupling rod to the first roller carriage, wherein the first roller carriage has a first deployment arm and a second deployment arm which are each pivotably arranged in the region of the first ends thereof on the roller carriage housing and which, in the region of the second ends thereof which are opposite the first ends, can be connected indirectly or directly to the leaf in order to discharge the leaf load, wherein the first roller, the second roller and a third roller are arranged in series on the roller carriage housing in order to roll together on the sliding rail. a) a first roller carriage having a single-piece roller carriage housing; b) a first roller and a second roller which are arranged on the roller carriage housing and which can be rolled on a sliding rail of the fixed frame; wherein the roller carriage arrangement has a first coupling rod and a second roller carriage, wherein the second roller carriage is connected indirectly or directly via the first coupling rod to the first roller carriage,
A method for recycling molybdenum, vanadium and nickel contained in a spent catalyst and/or a metal containing hydrocarbon feedstock, wherein said spent catalyst and/or metal containing hydrocarbon feedstock successively undergoes (i) calcination performed so as to collect carbon monoxide and hydrogen and to remove carbon containing material, (ii) washing with water the raw gas produced by the calcination step (i) and obtaining a waste water, (iii) precipitating a first precipitate by acidification of said waste water at acid pH with sulfuric acid and addition of (FeCl(SO 4)), obtaining an acidic water and separating of said first precipitate from said acidic water, (iv) precipitating a second precipitate by alkalinization of said acidic water at alkaline pH with sodium hydroxide and addition of (FeCl(SO 4)), obtaining an alkaline water and separating said second precipitate, and wherein first and/or second precipitate are introduced into melted iron resulting in obtaining divanadium pentoxide (V 2 O 5), and reduced iron-molybdenum-nickel alloy. (i) calcination performed so as to collect carbon monoxide and hydrogen and to remove carbon containing material, (ii) washing with water the raw gas produced by the calcination step (i) and obtaining a waste water, (iii) precipitating a first precipitate by acidification of said waste water at acid pH with sulfuric acid and addition of (FeCl(SO 4)), obtaining an acidic water and separating of said first precipitate from said acidic water, (iv) precipitating a second precipitate by alkalinization of said acidic water at alkaline pH with sodium hydroxide and addition of (FeCl(SO 4)), obtaining an alkaline water and separating said second precipitate, and wherein first and/or second precipitate are introduced into melted iron resulting in obtaining divanadium pentoxide (V 2 O 5), and reduced iron-molybdenum-nickel alloy.
A method for querying a database, the method comprising: receiving an input query string, the input query string comprising a filter clause with a field name and a first field value, the first field value being indicative of a first parameter name; receiving a parameter value for the first parameter name; and sending an output query string and the parameter value to a database management system which stores execution plans in a plan cache, to cause the database management system to execute a database query; characterised in that the method further comprises: determining a second parameter name based on the parameter value and different to the first parameter name; determining the output query string based on the input query string, the output query string comprising the filter clause with the field name and a second field value, the second field value of the output query string being based on the second parameter name; wherein sending the output query string and the parameter value to the database management system causes the database management system to execute a database query using an execution plan based on the second parameter name in the output query string; and re-using the second parameter name for subsequent queries. receiving an input query string, the input query string comprising a filter clause with a field name and a first field value, the first field value being indicative of a first parameter name; receiving a parameter value for the first parameter name; and sending an output query string and the parameter value to a database management system which stores execution plans in a plan cache, to cause the database management system to execute a database query; characterised in that the method further comprises: determining a second parameter name based on the parameter value and different to the first parameter name; determining the output query string based on the input query string, the output query string comprising the filter clause with the field name and a second field value, the second field value of the output query string being based on the second parameter name; wherein sending the output query string and the parameter value to the database management system causes the database management system to execute a database query using an execution plan based on the second parameter name in the output query string; and re-using the second parameter name for subsequent queries. determining a second parameter name based on the parameter value and different to the first parameter name; determining the output query string based on the input query string, the output query string comprising the filter clause with the field name and a second field value, the second field value of the output query string being based on the second parameter name; wherein sending the output query string and the parameter value to the database management system causes the database management system to execute a database query using an execution plan based on the second parameter name in the output query string; and re-using the second parameter name for subsequent queries.
Li-rich transition metal oxides material having general formula Li 1.2+x Mn 0.54 Ni 0.13 Co 0.13-x-y Al y O 2; where: 0.01 ≤ x ≤ 0.1; 0.01 ≤ y ≤ 0,1; and 0.03 ≤ x + y < 0.13.
An apparatus for detecting physical characteristics of food products, such as poultry, meat or fish, comprising: a conveyor for transporting said products along an advancement path, at an advancement speed; a floating belt, located above said conveyor so as to define an analysis zone comprised between said floating belt and the conveyor; at least a first and a second detecting device (41, 42), located on opposite sides of said advancement path, each able to acquire a multiplicity of partial profiles of the products brought by the conveyor into said analysis zone, in accordance with a scanning frequency, said partial profiles being taken in a scanning plane of the related device; and a processing unit connected to said first and second detecting device (41, 42) and in turn comprising: a first shape module configured to determine the conformation of the external surface of a first portion of the product, based on the partial profiles acquired by the first detecting device, at said scanning frequency and at said advancement speed; and a second shape module configured to determine the conformation of the external surface of a second portion of the product, based on the partial profiles acquired by the second detecting device, at said scanning frequency and at said advancement speed. a conveyor for transporting said products along an advancement path, at an advancement speed; a floating belt, located above said conveyor so as to define an analysis zone comprised between said floating belt and the conveyor; at least a first and a second detecting device (41, 42), located on opposite sides of said advancement path, each able to acquire a multiplicity of partial profiles of the products brought by the conveyor into said analysis zone, in accordance with a scanning frequency, said partial profiles being taken in a scanning plane of the related device; and a processing unit connected to said first and second detecting device (41, 42) and in turn comprising: a first shape module configured to determine the conformation of the external surface of a first portion of the product, based on the partial profiles acquired by the first detecting device, at said scanning frequency and at said advancement speed; and a second shape module configured to determine the conformation of the external surface of a second portion of the product, based on the partial profiles acquired by the second detecting device, at said scanning frequency and at said advancement speed. a first shape module configured to determine the conformation of the external surface of a first portion of the product, based on the partial profiles acquired by the first detecting device, at said scanning frequency and at said advancement speed; and a second shape module configured to determine the conformation of the external surface of a second portion of the product, based on the partial profiles acquired by the second detecting device, at said scanning frequency and at said advancement speed.
An apparatus comprising means for: determining that an orientation of a mobile device (120, 220, 320, 420, 520) is a flat orientation, in which a display of the mobile device (120, 220, 320, 420, 520) is facing upwards or downwards and is at least substantially orthogonal to the gravity; determining a context of the mobile device (120, 220, 320, 420, 520), wherein determining the context comprises determining that an application of the mobile device (120, 220, 320, 420, 520) is activated and determining that the mobile device (120, 220, 320, 420, 520) is involved in an activity of a user (110, 210, 310, 410, 510) based on the activated application; determining movement (332, 334) of the mobile device (120, 220, 320, 420, 520); and based on the orientation, context and movement (332, 334) of the device (120, 220, 320, 420, 520), determining orientation of visual content to be rendered on the display of the mobile device (120, 220, 320, 420, 520). determining that an orientation of a mobile device (120, 220, 320, 420, 520) is a flat orientation, in which a display of the mobile device (120, 220, 320, 420, 520) is facing upwards or downwards and is at least substantially orthogonal to the gravity; determining a context of the mobile device (120, 220, 320, 420, 520), wherein determining the context comprises determining that an application of the mobile device (120, 220, 320, 420, 520) is activated and determining that the mobile device (120, 220, 320, 420, 520) is involved in an activity of a user (110, 210, 310, 410, 510) based on the activated application; determining movement (332, 334) of the mobile device (120, 220, 320, 420, 520); and based on the orientation, context and movement (332, 334) of the device (120, 220, 320, 420, 520), determining orientation of visual content to be rendered on the display of the mobile device (120, 220, 320, 420, 520).
A method for acqui ri ng crosstalk coefficients from a plurality of disturber lines (L 1; L 2) into a victim line (L N) in a wired multi-carrier communication system, the method iterating through the steps of inserting a plurality of crosstalk probing signals (XTS 1; XTS 2) within the wired multi-carrier communication system for probing the crosstalk from respective ones of the plurality of disturber lines into the victim line, carrying out crosstalk measurements (SNIRn) over the victim line, and estimating the crosstalk coefficients from the crosstalk measurements, wherein the method iterates through the further steps of organizing the plurality of disturber lines into subsets of disturber lines (SL 1; SL 2), and individually assigning disjoint groups of carriers (CG 1; CG 2) to the respective subsets of disturber lines, wherein the insertion of the plurality of crosstalk probing signals is confined within the respectively assigned groups of carriers, and wherein the subsets of disturber lines and/or the groups of carriers used for a second or subsequent iteration are tailored based on crosstalk characteristics observed for the respective disturber lines during a previous iteration.
A super-resolution imaging radar (SRIR), the SRIR comprising: a pulse signal generator, wherein the pulse signal generator propagates N number of bursts of radio frequency energy, wherein each burst contains M+1 single pulses, wherein one of the single pulses of each burst is an ancilla pulse, and the remaining M pulses of each burst are propagated towards an object of interest; an array bucket detector, wherein the ABD collects pulses that are reflected from the object; a processor, wherein the processor uses the ancilla pulses, properties of a virtual lens, and properties of a virtual scanning detector to calculate a virtual ancilla electric field, which would be present at the virtual scanning detector wherein the ancilla pulses are propagated through the virtual lens; and a coincidence circuit, wherein the coincidence circuit calculates a cross-time correlation function of the electric fields of the reflected pulses that are collected by the ABD and the virtual ancilla electric field, and wherein the coincidence circuit uses cross-time correlation function results to generate pixels of an image of the object. a pulse signal generator, wherein the pulse signal generator propagates N number of bursts of radio frequency energy, wherein each burst contains M+1 single pulses, wherein one of the single pulses of each burst is an ancilla pulse, and the remaining M pulses of each burst are propagated towards an object of interest; an array bucket detector, wherein the ABD collects pulses that are reflected from the object; a processor, wherein the processor uses the ancilla pulses, properties of a virtual lens, and properties of a virtual scanning detector to calculate a virtual ancilla electric field, which would be present at the virtual scanning detector wherein the ancilla pulses are propagated through the virtual lens; and a coincidence circuit, wherein the coincidence circuit calculates a cross-time correlation function of the electric fields of the reflected pulses that are collected by the ABD and the virtual ancilla electric field, and wherein the coincidence circuit uses cross-time correlation function results to generate pixels of an image of the object.
A process for producing styrene, the process comprising: a) alkylating benzene with ethylene to produce ethylbenzene; b) dehydrogenating at least part of the ethylbenzene from (a) to produce a dehydrogenation effluent comprising styrene, together with benzene and toluene as by-products; c) separating a fraction containing both of the benzene and toluene by-products from the dehydrogenation effluent by distillation, wherein the benzene/toluene fraction contains in excess of 2 ppm by weight of basic nitrogen impurities; d) passing at least part of the benzene/toluene fraction, without prior fractionation to remove toluene, through a bed of an adsorbent comprising at least one of an acidic clay, alumina, and an acidic ion exchange resin to remove basic nitrogenous impurities therefrom and produce a purified benzene-containing fraction containing less than 50 ppb by weight of basic nitrogen impurities; and e) recycling at least a benzene fraction of the purified benzene by-product to the alkylating (a). a) alkylating benzene with ethylene to produce ethylbenzene; b) dehydrogenating at least part of the ethylbenzene from (a) to produce a dehydrogenation effluent comprising styrene, together with benzene and toluene as by-products; c) separating a fraction containing both of the benzene and toluene by-products from the dehydrogenation effluent by distillation, wherein the benzene/toluene fraction contains in excess of 2 ppm by weight of basic nitrogen impurities; d) passing at least part of the benzene/toluene fraction, without prior fractionation to remove toluene, through a bed of an adsorbent comprising at least one of an acidic clay, alumina, and an acidic ion exchange resin to remove basic nitrogenous impurities therefrom and produce a purified benzene-containing fraction containing less than 50 ppb by weight of basic nitrogen impurities; and e) recycling at least a benzene fraction of the purified benzene by-product to the alkylating (a).
A method of operation performed by a radio base station operating in a wireless communication network, the method comprising: mapping a nominal carrier frequency to a reference subcarrier frequency according to a mapping function, the nominal carrier frequency among a plurality of nominal carrier frequencies defined by a carrier frequency raster having a frequency spacing that defines nominal carrier frequency positions within a frequency band of interest, and the mapping function uniquely mapping each nominal carrier frequency to a corresponding reference subcarrier frequency on a subcarrier frequency grid having a subcarrier spacing that defines permissible subcarrier frequency positions within the frequency band; defining an Orthogonal Frequency Division Multiplex, OFDM, carrier referenced to the reference subcarrier frequency and comprising a set of subcarriers at respective ones of the permissible subcarrier frequency positions, as defined by the subcarrier frequency grid; and receiving or transmitting on the OFDM carrier; wherein the nominal carrier frequency is given by a starting point of the carrier frequency raster, a grid spacing of the carrier frequency raster, a frequency number corresponding to the nominal carrier frequency, and an offset of a frequency number of the starting point of the carrier frequency raster, and wherein the subcarrier frequency grid is the same for all nominal carrier frequencies defined by the carrier frequency raster, and the subcarrier spacing of the subcarrier frequency grid is not aligned with the carrier frequency raster, being these independently chosen. mapping a nominal carrier frequency to a reference subcarrier frequency according to a mapping function, the nominal carrier frequency among a plurality of nominal carrier frequencies defined by a carrier frequency raster having a frequency spacing that defines nominal carrier frequency positions within a frequency band of interest, and the mapping function uniquely mapping each nominal carrier frequency to a corresponding reference subcarrier frequency on a subcarrier frequency grid having a subcarrier spacing that defines permissible subcarrier frequency positions within the frequency band; defining an Orthogonal Frequency Division Multiplex, OFDM, carrier referenced to the reference subcarrier frequency and comprising a set of subcarriers at respective ones of the permissible subcarrier frequency positions, as defined by the subcarrier frequency grid; and receiving or transmitting on the OFDM carrier; wherein the nominal carrier frequency is given by a starting point of the carrier frequency raster, a grid spacing of the carrier frequency raster, a frequency number corresponding to the nominal carrier frequency, and an offset of a frequency number of the starting point of the carrier frequency raster, and wherein the subcarrier frequency grid is the same for all nominal carrier frequencies defined by the carrier frequency raster, and the subcarrier spacing of the subcarrier frequency grid is not aligned with the carrier frequency raster, being these independently chosen.