mhurhangee/ep-ind-claims huggingface dataset:
An interference allocating method, characterized in that the method comprises: acquiring or receiving, by a reconfiguration managing node of a secondary system, information on an idle spectrum resource, and information on an overall interference the secondary system is allowed to produce on the idle spectrum resource; computing, by the reconfiguration managing node according to the information on the overall interference the secondary system is allowed to produce, a transmit power for a secondary user equipment under management of the reconfiguration managing node, wherein the overall interference the secondary system is allowed to produce is allocated according to an interference tolerance threshold of a primary user and/or a further interference tolerable to the primary user, and according to a nature of the secondary system, wherein the further interference tolerable to the primary user is computed according to the interference tolerance threshold of the primary user on the idle spectrum resource and an interference already produced on a coverage edge of the primary user, wherein the overall interference the secondary system is allowed to produce accumulates to give the further interference tolerable to the primary user, wherein the nature of the secondary system comprises at least one of: historical interference information, payment information, priority information, and a transmit parameter requirement of the secondary system. acquiring or receiving, by a reconfiguration managing node of a secondary system, information on an idle spectrum resource, and information on an overall interference the secondary system is allowed to produce on the idle spectrum resource; computing, by the reconfiguration managing node according to the information on the overall interference the secondary system is allowed to produce, a transmit power for a secondary user equipment under management of the reconfiguration managing node, wherein the overall interference the secondary system is allowed to produce is allocated according to an interference tolerance threshold of a primary user and/or a further interference tolerable to the primary user, and according to a nature of the secondary system, wherein the further interference tolerable to the primary user is computed according to the interference tolerance threshold of the primary user on the idle spectrum resource and an interference already produced on a coverage edge of the primary user, wherein the overall interference the secondary system is allowed to produce accumulates to give the further interference tolerable to the primary user, wherein the nature of the secondary system comprises at least one of: historical interference information, payment information, priority information, and a transmit parameter requirement of the secondary system.
A method of manufacturing a dressing member for treating a tissue site, comprising: providing a plurality of iodine-forming reagents adapted to react with each other to form iodine; coating each of the plurality of iodine-forming reagents with a covering material; forming the covering material, containing the iodine-forming reagents, into hollow fibers; and twisting a first hollow fiber containing a first iodine-forming reagent with a second hollow fiber containing a second iodine-forming reagent to form a combined yarn. providing a plurality of iodine-forming reagents adapted to react with each other to form iodine; coating each of the plurality of iodine-forming reagents with a covering material; forming the covering material, containing the iodine-forming reagents, into hollow fibers; and twisting a first hollow fiber containing a first iodine-forming reagent with a second hollow fiber containing a second iodine-forming reagent to form a combined yarn.
An apparatus comprising: a first circuit (207,209) to determine protocol types of packets received from a network processor; a plurality of execution units including microcoded engines that support cryptographic primitives and protocols including decrypting encrypted protocol layers of the packets and conversions between IPSec and IP; a packet order manager to schedule the operation of the execution units operating on the packets; a second circuit (215, 217) to update protocol layer data of the packets after decryption by adjusting layer two header and tail information to reflect the new length of the packet; and a third circuit coupled to the second circuit to communicate with a framer, which receives and transmits frames of a specified format to a physical layer; wherein the conversions between IPSec and IP are performed without corrupting packet metadata or addressing information and are thereby transparent to the framer and network processor. a first circuit (207,209) to determine protocol types of packets received from a network processor; a plurality of execution units including microcoded engines that support cryptographic primitives and protocols including decrypting encrypted protocol layers of the packets and conversions between IPSec and IP; a packet order manager to schedule the operation of the execution units operating on the packets; a second circuit (215, 217) to update protocol layer data of the packets after decryption by adjusting layer two header and tail information to reflect the new length of the packet; and a third circuit coupled to the second circuit to communicate with a framer, which receives and transmits frames of a specified format to a physical layer; wherein the conversions between IPSec and IP are performed without corrupting packet metadata or addressing information and are thereby transparent to the framer and network processor.
Distributor and/or fire protection casing comprising a body which has at least one body wall (11, 12, 12', 13, 14, 15) which is formed at least partially from a plate compound structure consisting of at least three plates, wherein an outer plate of these plates, which forms an outer side of the distributor and/or fire protection casing, is formed from at least one gypsum fiber board, and the plate compound structure comprises at least one mineral fiber board arranged on an inner side of the at least one gypsum fiber board and at least one calcium silicate board arranged on an inner side of the at least one mineral fiber board and facing an interior space of the distributor and/or fire protection casing, characterized in that one of the body walls formed from the plate compound structure is formed as a door to which a body wall, also formed from the plate compound structure, is adjacent, wherein these plate compound structures are formed in a step-like or stair-like manner at their ends, wherein an upon exceeding a temperature threshold value automatically foaming-up inner seal is located on a side edge of the calcium silicate board of the door, an upon exceeding a temperature threshold value automatically foaming-up intermediate seal is located on a side edge of the mineral fiber board of the door, and an upon exceeding a temperature threshold value automatically foaming-up outer seal is located on a side edge of the gypsum fiber board of the door.
An isolated anti CEACAM1 antibody or antibody fragment comprising an antigen recognition domain for use, in combination with-lymphocytes in treating cancer in a subject in need thereof, wherein the antibody or antibody fragment has the CDR sequences and orientation of the antibody produced from a hybridoma cell which has been deposited under ATCC Accession Number PTA-9974.
A plant aid for protecting a young plant, comprising a tube at least partly sideways surrounding a young plant placeable in the plant aid, characterized by further comprising a water collection sheet for collecting moisture present in the atmosphere, wherein the water collection sheet is provided with a water collection surface comprising a receiving surface, which receiving surface operatively makes a first angle with respect to the orientation of gravity, and a collecting surface adjoining a lower edge of the receiving surface, which collecting surface operatively makes a second angle with respect to the orientation of gravity, wherein the first angle is smaller than the second angle.
A wafer-level method for applying N ≥ 2 first elements to a first side of a substrate, the substrate providing at the first side a first surface, the method comprising a) providing the substrate, wherein at least N barrier members are present at the first side, and wherein each of the N barrier members is associated with one of the N first elements; the method comprising for each of the N first elements b) bringing a respective first amount of a hardenable material in a flowable state in contact with the first surface, the respective first amount of hardenable material being associated with the respective first element; c) controlling a flow of the respective associated first amount of hardenable material on the first surface by means of the respective associated barrier member; d) hardening the respective associated first amount of hardenable material; wherein for each of the N first elements, in step d), an interconnection between the first surface and the respective first element is created. a) providing the substrate, wherein at least N barrier members are present at the first side, and wherein each of the N barrier members is associated with one of the N first elements; the method comprising for each of the N first elements b) bringing a respective first amount of a hardenable material in a flowable state in contact with the first surface, the respective first amount of hardenable material being associated with the respective first element; c) controlling a flow of the respective associated first amount of hardenable material on the first surface by means of the respective associated barrier member; d) hardening the respective associated first amount of hardenable material; wherein for each of the N first elements, in step d), an interconnection between the first surface and the respective first element is created.
Emission device which comprises: - a short arc ultra-high pressure mercury lamp having a silica glass arc tube containing a pair of opposed electrodes that have tungsten as a main component and that are spaced apart a distance of at most 2 mm, and being filled with at least 0.15 mg/mm 3 of mercury, a rare gas and an amount of halogen of from 1 x 10 -6 μmole/mm 3 to 1 x 10 -2 μmole/mm 3; and - an operating device, the operating device being adapted to supply alternating current to the lamp and to shift the surface of a tip area of at least one of the electrodes into a molten state during lamp operation, characterized in that the operating device is adapted to shift at least the surface of the tip area of the anode mode electrode into the molten state at least for each switching into operation as an anode. - a short arc ultra-high pressure mercury lamp having a silica glass arc tube containing a pair of opposed electrodes that have tungsten as a main component and that are spaced apart a distance of at most 2 mm, and being filled with at least 0.15 mg/mm 3 of mercury, a rare gas and an amount of halogen of from 1 x 10 -6 μmole/mm 3 to 1 x 10 -2 μmole/mm 3; and - an operating device, the operating device being adapted to supply alternating current to the lamp and to shift the surface of a tip area of at least one of the electrodes into a molten state during lamp operation, characterized in that the operating device is adapted to shift at least the surface of the tip area of the anode mode electrode into the molten state at least for each switching into operation as an anode.
A method of preparing a library of covalently closed DNA fragments, the method comprising: providing DNA, preferably genomic DNA (gDNA) from a cell type or organism of interest; randomly shearing the DNA to a defined average length to provide a population of DNA fragments; preparing the fragments for end-ligation,; ligating to the ends of the fragments a first hairpin adapter comprising at least a single deoxyuridine and a first primer site to prepare a population of ligated fragments; and purifying the ligated fragments using an exonuclease, thereby preparing a library of covalently closed DNA fragments.
A method for repairing a coating film, which comprises applying a second coating material to a position to be repaired of a first coating film formed by applying a first coating material to the surface of a substrate, to form a second coating film thereby to repair the first coating film, wherein the first coating material is a powder coating material containing a polyvinylidene fluoride homopolymer or copolymer (PVDF) and a resin other than PVDF, wherein the second coating material is a coating material containing a fluororesin and a titanium oxide pigment, and wherein the content of the titanium oxide pigment is from 15 to 190 parts by mass per 100 parts by mass of the fluororesin.
A vehicle system comprising at least one charging station and at least one autonomously movable, electrically powered vehicle dockable therewith, the vehicle including an inlet-side coupling means and the charging station including an outlet-side coupling means, said inlet-side coupling means and said outlet-side coupling means being mutually engageable and arranged to transport energy between the charging station and vehicle when engaged, said inlet-side coupling means and said outlet-side coupling means further being provided with an inlet-side guiding member, an outlet-side guiding member, respectively, arranged to guide the inlet-side and outlet-side coupling means from a non-charging position into a charging position upon engaging of said inlet-side and outlet-side coupling means when docking the vehicle to the charging station, characterized in that said inlet-side coupling means is arranged to be deflectingly movable relative to the vehicle in a first plane, and said outlet-side coupling means is arranged to be deflectingly movable relative to the station in a second plane, wherein said first plane and said second plane are arranged substantially horizontally, to enable alignment of the inlet-side and outlet-side coupling means upon their engaging.
A computer-implemented method, comprising: detecting, a new pull request added to a source code repository, the new pull request associated with changed code; extracting source code associated with the new pull request for a feature extraction engine; parsing, via a code feature extraction engine, a code segment containing the changed code and a surrounding context into an abstract syntax tree; obtaining, via the code feature extraction engine the additional elements associated with the code segment and adding the additional elements into the feature vector; creating a feature vector for the new pull request including the token sequence extracted from the abstract syntax tree and the additional elements; transforming, via a transformation engine, the feature vectors into integer-value feature vectors (block 408) which are configured for input into a deep learning model (block 410) capable of outputting a plurality of probabilities for a set of peers that were part of a training dataset (block 410); wherein the probabilities are ranked from the highest probability to the lowest probability and the peers associated with a top k highest probabilities are selected to be output to perform the code review; choosing at least one of the one or more peers associated with the top k highest probabilities to perform code review; and if the changed code is accepted, merging the changed code into the source code. detecting, a new pull request added to a source code repository, the new pull request associated with changed code; extracting source code associated with the new pull request for a feature extraction engine; parsing, via a code feature extraction engine, a code segment containing the changed code and a surrounding context into an abstract syntax tree; obtaining, via the code feature extraction engine the additional elements associated with the code segment and adding the additional elements into the feature vector; creating a feature vector for the new pull request including the token sequence extracted from the abstract syntax tree and the additional elements; transforming, via a transformation engine, the feature vectors into integer-value feature vectors (block 408) which are configured for input into a deep learning model (block 410) capable of outputting a plurality of probabilities for a set of peers that were part of a training dataset (block 410); wherein the probabilities are ranked from the highest probability to the lowest probability and the peers associated with a top k highest probabilities are selected to be output to perform the code review; choosing at least one of the one or more peers associated with the top k highest probabilities to perform code review; and if the changed code is accepted, merging the changed code into the source code.
A polycrystalline chemical vapour deposited diamond wafer comprising: a largest linear dimension equal to or greater than 125 mm; a thickness equal to or greater than 200 μm; and one or both of the following characteristics measured at room temperature (nominally 298 K) over at least a central area of the polycrystalline CVD diamond wafer, said central area being circular, centred on a central point of the polycrystalline CVD diamond wafer, and having a diameter of at least 70% of the largest linear dimension of the polycrystalline CVD diamond wafer: an absorption coefficient ≤ 0.2 cm -1 at 10.6 μm; and a dielectric loss coefficient at 145 GHz, of tan δ ≤ 2 x 10 -4. a largest linear dimension equal to or greater than 125 mm; a thickness equal to or greater than 200 μm; and one or both of the following characteristics measured at room temperature (nominally 298 K) over at least a central area of the polycrystalline CVD diamond wafer, said central area being circular, centred on a central point of the polycrystalline CVD diamond wafer, and having a diameter of at least 70% of the largest linear dimension of the polycrystalline CVD diamond wafer: an absorption coefficient ≤ 0.2 cm -1 at 10.6 μm; and a dielectric loss coefficient at 145 GHz, of tan δ ≤ 2 x 10 -4. an absorption coefficient ≤ 0.2 cm -1 at 10.6 μm; and a dielectric loss coefficient at 145 GHz, of tan δ ≤ 2 x 10 -4.
Energy column for supplying electric vehicles with energy, comprising: - a support comprising - a U-shaped channel section with a control box integrated therein, - terminals for the connection of energy lines and/or data lines, - a base element offset relative to the U-shaped channel section, the opening of the U-shaped channel section being located at the front, so that the support stands stably, - a housing having side elements, cover plate and hood for covering an adapter column and the support, - the adapter column having side parts and a base piece, a recess for receiving the base element of the support being formed in the region of the base piece, and the adapter column being designed to receive and secure the support and being used to secure the housing to the support, the support, the adapter column and the housing being mounted in one another, the support being inserted into the adapter column and secured to the latter. - a support comprising - a U-shaped channel section with a control box integrated therein, - terminals for the connection of energy lines and/or data lines, - a base element offset relative to the U-shaped channel section, the opening of the U-shaped channel section being located at the front, so that the support stands stably, - a U-shaped channel section with a control box integrated therein, - terminals for the connection of energy lines and/or data lines, - a base element offset relative to the U-shaped channel section, the opening of the U-shaped channel section being located at the front, so that the support stands stably, - a housing having side elements, cover plate and hood for covering an adapter column and the support, - the adapter column having side parts and a base piece, a recess for receiving the base element of the support being formed in the region of the base piece, and the adapter column being designed to receive and secure the support and being used to secure the housing to the support, the support, the adapter column and the housing being mounted in one another, the support being inserted into the adapter column and secured to the latter.
An integrated sample-testing meter comprising a single modular housing carrying: a puncture means; a drive train for driving the puncture means between an extended position and a retracted position; a test strip cartridge containing a plurality of test strips, each strip having a sample receiving area; a sensor for analyzing a fluid sample received on a test strip; and a test strip dispensing system for moving test strips individually from the cartridge to a sample-receiving position in which the test strip is connected to the sensor, the meter being arranged such that, in use, when it is located in a first position on the skin of a user and is activated, the puncture means is moved to its extended position and retracted to form a puncture in the user's skin and a test strip is moved from the cartridge to the sample-receiving position; characterised in that the meter further comprises a slidable knob which is adapted to be slid to cock the drive train and simultaneously move a test strip into the sample receiving position. a puncture means; a drive train for driving the puncture means between an extended position and a retracted position; a test strip cartridge containing a plurality of test strips, each strip having a sample receiving area; a sensor for analyzing a fluid sample received on a test strip; and a test strip dispensing system for moving test strips individually from the cartridge to a sample-receiving position in which the test strip is connected to the sensor, the meter being arranged such that, in use, when it is located in a first position on the skin of a user and is activated, the puncture means is moved to its extended position and retracted to form a puncture in the user's skin and a test strip is moved from the cartridge to the sample-receiving position;
Image sensor for a position sensor apparatus for ascertaining a position of at least one mirror (M1-M6) of a lithography apparatus (100, 100A), comprising: a plurality N1 of integrated optical waveguides, a plurality N2 of incoupling areas, with N2 ≥ N1, each of the N2 incoupling areas being assigned to one of the N1 integrated optical waveguides and configured to couple incident light into the assigned integrated optical waveguide in such a way that a light signal is generated in the assigned integrated optical waveguide, a multiplexer apparatus, coupled to the N1 integrated optical waveguides, for multiplexing the light signals generated in the N1 integrated optical waveguides to a number N3 of secondary optical waveguides, with N1 ≥ N3, and an image reconstruction apparatus, coupled to the N3 secondary optical waveguides, for reconstructing an image on the basis of the light signals of the N3 secondary optical waveguides, wherein the plurality N2 of incoupling areas, the plurality N1 of integrated optical waveguides and the multiplexer apparatus are integrated on a substrate, in particular on an integral substrate. a plurality N1 of integrated optical waveguides, a plurality N2 of incoupling areas, with N2 ≥ N1, each of the N2 incoupling areas being assigned to one of the N1 integrated optical waveguides and configured to couple incident light into the assigned integrated optical waveguide in such a way that a light signal is generated in the assigned integrated optical waveguide, a multiplexer apparatus, coupled to the N1 integrated optical waveguides, for multiplexing the light signals generated in the N1 integrated optical waveguides to a number N3 of secondary optical waveguides, with N1 ≥ N3, and an image reconstruction apparatus, coupled to the N3 secondary optical waveguides, for reconstructing an image on the basis of the light signals of the N3 secondary optical waveguides, wherein