mhurhangee/patent-ind-claim-en huggingface dataset:
A computer implemented method, comprising: assigning a traceability identifier to a data element , wherein the traceability identifier comprises a plurality of identifier segments , wherein the identifier segments comprise at least one segment identifying a source of the data element and at least one data collection policy identifier; receiving a request for the data element to be included in an analytics report; determining, according to the data collection policy identifier, whether the data element is permitted to be included in the analytics report by determining whether the analytics report complies with a requirement of a data collection policy associated with the data collection policy identifier; in response to determining that the data element is permitted to be included in the analytics report, providing the data element for use in the analytics report; and updating the traceability identifier with a new identifier segment , wherein the new identifier segment comprises a report identifier associated with the analytics report. assigning a traceability identifier to a data element , wherein the traceability identifier comprises a plurality of identifier segments , wherein the identifier segments comprise at least one segment identifying a source of the data element and at least one data collection policy identifier; receiving a request for the data element to be included in an analytics report; determining, according to the data collection policy identifier, whether the data element is permitted to be included in the analytics report by determining whether the analytics report complies with a requirement of a data collection policy associated with the data collection policy identifier; in response to determining that the data element is permitted to be included in the analytics report, providing the data element for use in the analytics report; and updating the traceability identifier with a new identifier segment , wherein the new identifier segment comprises a report identifier associated with the analytics report.
A method of manufacturing a porous polymer membrane having a pore size of 5-10000nm as determined by microscopy, comprising the steps of a) providing a dispersion comprising • one or more diluents in an amount of at least 40wt.%, • one or more polymers dissolved therein, • one or more coated particles dispersed therein, • optionally one or more additives dissolved therein; b) coating a substrate with said dispersion ; c) optionally subjecting the obtained material to a drying step; d) optionally subjecting the thus obtained material to a polymerisation or cross-linking step; e) removing said one or more particles by a dissolution step; f) optionally removing the obtained polymer membrane from said supporting material , characterized in that the ratio (wt%) of polymer : coated particles is in the range of 2:1 to 0.01:1, and characterized in that the coated particles • are pre-manufactured, • are selected from the group consisting of organic salts, metal salts, metal oxides and combinations thereof, • the coating material is selected from the group of carboxylic acids, aryl-alkoxy-silanes alkyl-aryl-alkoxy-silanes and alkyl-alkoxy-silanes, and • have a particle size in the range of 5-10000 nm measured as specified in the description. a) providing a dispersion comprising • one or more diluents in an amount of at least 40wt.%, • one or more polymers dissolved therein, • one or more coated particles dispersed therein, • optionally one or more additives dissolved therein; • one or more diluents in an amount of at least 40wt.%, • one or more polymers dissolved therein, • one or more coated particles dispersed therein, • optionally one or more additives dissolved therein; b) coating a substrate with said dispersion ; c) optionally subjecting the obtained material to a drying step; d) optionally subjecting the thus obtained material to a polymerisation or cross-linking step; e) removing said one or more particles by a dissolution step; f) optionally removing the obtained polymer membrane from said supporting material , characterized in that the ratio (wt%) of polymer : coated particles is in the range of 2:1 to 0.01:1, and characterized in that the coated particles • are pre-manufactured, • are selected from the group consisting of organic salts, metal salts, metal oxides and combinations thereof, • the coating material is selected from the group of carboxylic acids, aryl-alkoxy-silanes alkyl-aryl-alkoxy-silanes and alkyl-alkoxy-silanes, and • have a particle size in the range of 5-10000 nm measured as specified in the description. • are pre-manufactured, • are selected from the group consisting of organic salts, metal salts, metal oxides and combinations thereof, • the coating material is selected from the group of carboxylic acids, aryl-alkoxy-silanes alkyl-aryl-alkoxy-silanes and alkyl-alkoxy-silanes, and • have a particle size in the range of 5-10000 nm measured as specified in the description.
Laboratory distribution system for conveying in an upright orientation test tube holders retaining test tubes in a vertical orientation as well as empty test tube holders between various stations comprising at least one screw conveyor device for conveying the test tube holders , wherein the screw conveyor device comprises a helical track having a helix axis and a drive shaft having an axis of rotation parallel or coaxial to the helix axis , which drive shaft is adapted to be driven to rotate about the axis of rotation for causing a movement of one test tube holder or a plurality of test tube holders contacting the helical track in parallel to the helix axis between an entry region and an exit region , wherein the entry region and the exit region are spaced in a direction of the helix axis , characterized in that the screw conveyor device is a vertical screw conveyor device having a vertical helix axis .
Method for the preparation of compound of formula (I) by a reaction REAC1 of compound of formula (II) with trichloroisocyanuric acid; wherein REAC1 is done in the presence of amylene; REAC1 is done in the solvent acetone; R1 is NH 2 , methoxy or ethoxy. REAC1 is done in the presence of amylene; REAC1 is done in the solvent acetone; R1 is NH 2 , methoxy or ethoxy.
Wood fiber mat for use as a plant substrate comprising wood fibers, and at least one agent for absorbing a polar liquid, characterized by a biodegradable binder of polylactic acid fibres in an amount between 5 and 10% by weight and at least one starch in an amount between 5 and 10% by weight, based in each case on the amount of wood fibres atro.
A planetary gear system comprising: a sun gear having external teeth; a plurality of planet gears having external teeth, each planet gear meshing with the sun gear ; a ring gear having internal teeth, the ring gear meshing with the planet gears ; and a baffle unit disposed between the planet gears which are adjacent to each other, the baffle unit having side faces positioned near outer peripheries of the respective planet gears , characterized in that the baffle unit has: oil supply holes which are formed in a tip portion facing an outer periphery of the sun gear and which jet out lubricating oil (OL) to mesh positions between the sun gear and the planet gears ; and a collection opening which is formed in at least one of the side faces and through which the lubricating oil (OL) that has been jetted out is collected into the baffle unit . a sun gear having external teeth; a plurality of planet gears having external teeth, each planet gear meshing with the sun gear ; a ring gear having internal teeth, the ring gear meshing with the planet gears ; and a baffle unit disposed between the planet gears which are adjacent to each other, the baffle unit having side faces positioned near outer peripheries of the respective planet gears , characterized in that the baffle unit has: oil supply holes which are formed in a tip portion facing an outer periphery of the sun gear and which jet out lubricating oil (OL) to mesh positions between the sun gear and the planet gears ; and a collection opening which is formed in at least one of the side faces and through which the lubricating oil (OL) that has been jetted out is collected into the baffle unit . oil supply holes which are formed in a tip portion facing an outer periphery of the sun gear and which jet out lubricating oil (OL) to mesh positions between the sun gear and the planet gears ; and a collection opening which is formed in at least one of the side faces and through which the lubricating oil (OL) that has been jetted out is collected into the baffle unit .
A method performed by a network node, the method comprising: indicating (YY110, YY220) in a control message at least a Modulation and Coding Scheme, MCS, and a scaling factor for a physical downlink shared channel, PDSCH, the scaling factor indicating a value less than 1; and sending (YY120, YY230) the control message to a User Equipment, UE, the control message enabling the UE to determine an intermediate number of information bits based at least on the MCS, the control message further enabling the UE to determine a Transport Block Size, TBS, for the physical downlink shared channel based at least on the intermediate number of information bits, wherein the UE is enabled to determine the transport block size by using a first TBS determination procedure when the PDSCH is assigned by a physical downlink control channel, PDCCH, with a cyclic redundancy check, CRC, scrambled by a first type of radio network temporary identifier, RNTI, wherein the UE is enabled to determine the intermediate number of information bits N info using the following equation: N info = α ∗ N RE ∗ R ∗ Q m ∗ υ , where α is the scaling factor, N RE is a number of resource elements within a slot, R is a target code rate, Q m is a modulation order and u is a number of layers, and wherein the UE is enabled to determine the transport block size by using a second TBS determination procedure when the PDSCH is assigned by the PDCCH with a CRC scrambled by a second type of RNTI. indicating (YY110, YY220) in a control message at least a Modulation and Coding Scheme, MCS, and a scaling factor for a physical downlink shared channel, PDSCH, the scaling factor indicating a value less than 1; and sending (YY120, YY230) the control message to a User Equipment, UE, the control message enabling the UE to determine an intermediate number of information bits based at least on the MCS, the control message further enabling the UE to determine a Transport Block Size, TBS, for the physical downlink shared channel based at least on the intermediate number of information bits, wherein the UE is enabled to determine the transport block size by using a first TBS determination procedure when the PDSCH is assigned by a physical downlink control channel, PDCCH, with a cyclic redundancy check, CRC, scrambled by a first type of radio network temporary identifier, RNTI, wherein the UE is enabled to determine the intermediate number of information bits N info using the following equation: N info = α ∗ N RE ∗ R ∗ Q m ∗ υ , where α is the scaling factor, N RE is a number of resource elements within a slot, R is a target code rate, Q m is a modulation order and u is a number of layers, and wherein the UE is enabled to determine the transport block size by using a second TBS determination procedure when the PDSCH is assigned by the PDCCH with a CRC scrambled by a second type of RNTI.
A cubic boron nitride complex polycrystal consisting of: wurtzite-type boron nitride at 10 to 95 v/v%; and cubic boron nitride and unavoidable impurities as the remainder, the average grain size of said cubic boron nitride being 200 nm or less, wherein the content of said wurtzite-type boron nitride is greater than the content of said cubic boron nitride. wurtzite-type boron nitride at 10 to 95 v/v%; and cubic boron nitride and unavoidable impurities as the remainder, the average grain size of said cubic boron nitride being 200 nm or less,
A seed boot assembly including a seed boot having a seed passage extending from an inlet end to an outlet end , and a seed tab mounted to the back end of the seed boot directly above the exit opening at the outlet end of the seed boot , the seed tab comprising: a tab body having a mounting arrangement at a first end and having a laterally outer edge ; and a tab tail extending from the tab body to a second end , the tab tail having a laterally outer edge that extends laterally outward of the laterally outer edge of the tab body ; wherein a laterally extending edge extends between the laterally outer edge of the tab body and the laterally outer edge of the tab tail , the laterally extending edge being disposed proximate an edge surface at the back end of the seed boot and extends laterally beyond the exit opening at the outlet end of the seed boot ; wherein the tab body of the seed tab is connected to the seed boot such that the tab tail extends downwardly behind the outlet end of the seed boot ; characterised in that the laterally outer edge of the tab tail , from proximate the laterally extending edge to proximate the second end , is substantially parallel with at least a portion of the laterally outer edge of the tab body . a tab body having a mounting arrangement at a first end and having a laterally outer edge ; and a tab tail extending from the tab body to a second end , the tab tail having a laterally outer edge that extends laterally outward of the laterally outer edge of the tab body ; wherein a laterally extending edge extends between the laterally outer edge of the tab body and the laterally outer edge of the tab tail , the laterally extending edge being disposed proximate an edge surface at the back end of the seed boot and extends laterally beyond the exit opening at the outlet end of the seed boot ; wherein the tab body of the seed tab is connected to the seed boot such that the tab tail extends downwardly behind the outlet end of the seed boot ;
An apparatus for tissue analysis, comprising: at least a first and a second waveguide, each configured to illuminate a lumenal tissue with coherent or partially coherent light, one or more switches configured for switching the illumination of the first and second waveguides, at least a third waveguide configured to receive light reflected from the lumenal tissue and form a series of speckle patterns, and a multiple faceted pyramidal mirror configured to reflect light from the first and second waveguide on the lumenal tissue and to reflect light from the lumenal tissue onto the third waveguide, wherein the one or more switches are adapted to illuminate two or more non-adjacent mirror facets of the pyramidal mirror at the same time; wherein the switches are further adapted so that the switching allows for each of the facets to be illuminated such that the light reflected from the lumenal tissue onto the third waveguide at any given time is reflected from one or more substantially non-overlapping sections of a lumenal tissue. at least a first and a second waveguide, each configured to illuminate a lumenal tissue with coherent or partially coherent light, one or more switches configured for switching the illumination of the first and second waveguides, at least a third waveguide configured to receive light reflected from the lumenal tissue and form a series of speckle patterns, and a multiple faceted pyramidal mirror configured to reflect light from the first and second waveguide on the lumenal tissue and to reflect light from the lumenal tissue onto the third waveguide, wherein the one or more switches are adapted to illuminate two or more non-adjacent mirror facets of the pyramidal mirror at the same time; wherein the switches are further adapted so that the switching allows for each of the facets to be illuminated such that the light reflected from the lumenal tissue onto the third waveguide at any given time is reflected from one or more substantially non-overlapping sections of a lumenal tissue.
Polyolefin composition (PO) comprising an heterophasic propylene copolymer (HECO) and a polar modified α-polyolefin (PMP), wherein said heterophasic propylene copolymer (HECO) comprises (a) a (semi)crystalline polypropylene (PP) having a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of 45 to 150 g/10min; and (b) an elastomeric propylene copolymer (EPC) dispersed in said (semi)crystalline polypropylene (PP), wherein said heterophasic propylene copolymer (HECO) has (i) a xylene cold soluble (XCS) fraction in the range of 25 to 40 wt.-%; wherein further the xylene cold soluble (XCS) fraction of said heterophasic propylene copolymer (HECO) has (ii) a comonomer content in the range of 21 to 55 mol-%; and (iii) optionally an intrinsic viscosity (IV) in the range of 1.50 to 3.00 dl/g, and optionally still further (iv) the intrinsic viscosity (IV) of the xylene cold insoluble (XCI) fraction of the heterophasic propylene copolymer (HECO) is in the range of 1.00 to 1.30 dl/g. (a) a (semi)crystalline polypropylene (PP) having a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of 45 to 150 g/10min; and (b) an elastomeric propylene copolymer (EPC) dispersed in said (semi)crystalline polypropylene (PP), (i) a xylene cold soluble (XCS) fraction in the range of 25 to 40 wt.-%; wherein further the xylene cold soluble (XCS) fraction of said heterophasic propylene copolymer (HECO) has (ii) a comonomer content in the range of 21 to 55 mol-%; and (iii) optionally an intrinsic viscosity (IV) in the range of 1.50 to 3.00 dl/g, and optionally still further (iv) the intrinsic viscosity (IV) of the xylene cold insoluble (XCI) fraction of the heterophasic propylene copolymer (HECO) is in the range of 1.00 to 1.30 dl/g.
A method for system information, SI, acquisition by a user equipment, UE, in a radio resource control, RRC, Connected state, the SI comprising minimum SI and at least one other SI block, the method comprises receiving the minimum SI from a base station, the minimum SI having an area identification, ID, and at least one value tag; comparing the area ID with an area ID stored at the UE; comparing the at least one value tag with a value tag stored at the UE; transmitting an RRC message to the base station to acquire the at least one other SI block from the base station when the area ID is the same as the stored area ID, and the at least one value tag is different from the stored value tag; characterized in that the method further comprises: starting a prohibit timer configured by the base station after sending a system information request; wherein the UE is not allowed to transmit another RRC message to acquire the at least one other SI block until the prohibit timer expires. receiving the minimum SI from a base station, the minimum SI having an area identification, ID, and at least one value tag; comparing the area ID with an area ID stored at the UE; comparing the at least one value tag with a value tag stored at the UE; transmitting an RRC message to the base station to acquire the at least one other SI block from the base station when the area ID is the same as the stored area ID, and the at least one value tag is different from the stored value tag; characterized in that the method further comprises: starting a prohibit timer configured by the base station after sending a system information request; wherein the UE is not allowed to transmit another RRC message to acquire the at least one other SI block until the prohibit timer expires. starting a prohibit timer configured by the base station after sending a system information request; wherein the UE is not allowed to transmit another RRC message to acquire the at least one other SI block until the prohibit timer expires.
Multi-passage cavity consisting of the assembly of a planar support , an alignment part , and a first and a second reflective optical element each having a main face (3a, 3'a) arranged opposite each other, the main face (3a, 3'a) of at least one of the optical elements being microstructured in order to modify the phase of incident light radiation which is reflected a plurality of times on each of the optical elements to form transformed radiation, the multi-passage cavity being characterized in that the second reflective optical element is connected to the support by means of the alignment part so that said multi-passage cavity comprises precisely three joining interfaces between the planar support , the alignment part , and the first and second reflective optical elements .
A homogenous polymer mixture comprising a polymer composition, characterized in that said composition comprises at least one cellulose ester polymer, which is cellulose acetate propionate (CAP), in an amount of 55 to 95 weight-% and at least one other polymer, which is selected from the group consisting of polybutylene succinate (PBS) and polypropylene succinate (PPS), in an amount of 5 to 40 weight-%, wherein the total amount of said cellulose ester polymer and said at least one other polymer is at least 80 weight-% based on the total weight of the polymer composition, obtained by processing said polymer composition at a temperature of at least 210°C.
An implant syringe with a syringe needle holder , which holds a syringe needle , an axially adjoining preparation receiving portion and an outer sleeve with a radially projecting handle section on its rear end section, wherein the syringe needle holder and the outer sleeve are connected together for common axial movement, and with an inner sleeve , on which the outer sleeve is slidably located and in which the syringe needle is slidable with the preparation receiving portion , wherein the inner sleeve affords axial slits , through which engage webs , which connect the outer sleeve to the syringe needle holder , further including a rod-shaped piston, which is fastened to a rear handle section and is partially surrounded by a rear sleeve , which slidably engages in the inner sleeve , wherein the rod-shaped piston may be advanced so far through the preparation receiving portion into the syringe needle that a gap remains between the tip of the syringe needle and the head end of the piston , which is approximately equal to the length of the preparation to be dispensed and the advance of the piston is limited by the rear handle section reaching the rear edge of the inner sleeve , wherein the outer sleeve is releasably locked in the advanced starting position with the syringe needle exposed by a blocking device , which is arranged in the inner sleeve and projects radially outwardly, and wherein the blocking device is moved radially inwardly on advance of the rear sleeve into its end position, whereby the outer sleeve is released and is retractable by means of the front handle section on the inner sleeve.
A method for over the air testing of a radio communications device , the method being performed by a signal generator comprising only a single antenna element, the method comprising: generating (S102) a respective test signal for each of a plurality of receiver units of the radio communications device, wherein each test signal is independently modulated according to a multipath propagation channel model, wherein each respective test signal is an aggregated test signal consisting of test signal contributions from at least two transmitters added together; and sequentially, and for the plurality of receiver units of the radio communications device, by the single antenna element, transmitting (S104) the test signals over the air. generating (S102) a respective test signal for each of a plurality of receiver units of the radio communications device, wherein each test signal is independently modulated according to a multipath propagation channel model, wherein each respective test signal is an aggregated test signal consisting of test signal contributions from at least two transmitters added together; and sequentially, and for the plurality of receiver units of the radio communications device, by the single antenna element, transmitting (S104) the test signals over the air.