mhurhangee/ep-ind-claims huggingface dataset:
Method for connecting at least two structural units for a body of a vehicle, which each comprise at least one carrier unit formed as a hollow profile with at least one reinforcement element (14, 14') arranged in the carrier unit, wherein each reinforcement element (14, 14') is connected with the respective carrier unit using a structural foam, and wherein the reinforcement elements (14, 14') of both structural units are each formed having a joining section and are joined with each other, characterized in that the structural units to be connected are oriented and the reinforcement elements (14, 14') in the carrier units are prefixed prior to a heat treatment of the structural units and after the heat treatment are permanently fixed by foaming and/or bonding.
Soybean plant which is resistant to Phyfophfora sojae, characterized in that the plant has a reduced level or complete absence of DMR6 protein as compared to the plant that is not resistant to the said pathogen wherein said plant has a mutation in its DMR6 gene resulting in a reduced DMR6 expression as compared to the wild-type DMR6 gene wherein no such mutation is present.
Method for paper-free commissioning of a control unit, in particular of a MiniLeu S11, a LEU S21 and a MSTT signal for a train securing component, in particular an ETCS Balise, a signal, a railway switch, comprising the following steps: a) providing inquiry relevant data by means of a projecting tool for a programming tool, wherein the inquiry relevant data comprise the control data for the train securing unit, a template for a second test protocol and encrypted set points for check sums to control the correct loading of control data on the control unit; b) programming the control unit by means of the programming tool with the control data provided by the projecting tool; c) calculating actual check sums for the programmed control data on the control unit by means of a key, unknown to the programming tool, and transferring these calculated check sums to the programming tool; d) comparing these calculated check sums with the encrypted set points for the check sums within the framework of a first test protocol in order to provide a second test protocol on the programming tool; e) representing the results of the first test protocol on the programming tool and confirming an accordance of the calculated check sums and of the encrypted set points for the check sums by means of an examiner, and f) generating the second test protocol by means of the template, delivered by the projecting tool, for the second test protocol by adding the identity of the examiner as well as the calculated check sums and the encrypted set points for the check sums, isolated on the programming tool. a) providing inquiry relevant data by means of a projecting tool for a programming tool, wherein the inquiry relevant data comprise the control data for the train securing unit, a template for a second test protocol and encrypted set points for check sums to control the correct loading of control data on the control unit; b) programming the control unit by means of the programming tool with the control data provided by the projecting tool; c) calculating actual check sums for the programmed control data on the control unit by means of a key, unknown to the programming tool, and transferring these calculated check sums to the programming tool; d) comparing these calculated check sums with the encrypted set points for the check sums within the framework of a first test protocol in order to provide a second test protocol on the programming tool; e) representing the results of the first test protocol on the programming tool and confirming an accordance of the calculated check sums and of the encrypted set points for the check sums by means of an examiner, and f) generating the second test protocol by means of the template, delivered by the projecting tool, for the second test protocol by adding the identity of the examiner as well as the calculated check sums and the encrypted set points for the check sums, isolated on the programming tool.
A method for mounting a wind power plant in a high base structure (1; 10; 16; 19), in which method - a high base structure (1, 10; 16; 19) is brought to and installed at the site of installation of the wind power plant; - the mast of the wind power plant, divided into at least two pieces shorter than the length of the whole mast, and the other parts of the wind power plant are brought to the vicinity of the high base structure (1; 10; 16; 19); - the wind power plant is installed by using an installation structure (1; 11), in which the mast of the wind power plant is assembled from elements in such a way that the uppermost element of the mast is brought to the installation structure (1; 11) first, and after that the lower elements of the mast so that the preceding installed elements of the mast are lifted upwards at least by the height of the next element of the mast, the next lower element of the mast is transferred underneath the upper elements of the mast and fixed at its top to the bottom of the next upper element of the mast; - the lowermost element of the mast of the wind power plant is connected at its bottom to the high base structure (1; 10; 16; 19); and in which method - the installation structure (1, 11) used is the high base structure; - the high base structure is provided with means for lifting elements of the mast upwards and connecting on the top of each other, characterized in that the installation structure used is the high base structure comprising an upwards open inner space enclosed by a side wall, the inner diameter of the cross-section of the inner space being at least the outer diameter of the elements of the mast, and that the elements of the mast are transferred to the inside of the high base structure through an inlet opening in the high base structure. - a high base structure (1, 10; 16; 19) is brought to and installed at the site of installation of the wind power plant; - the mast of the wind power plant, divided into at least two pieces shorter than the length of the whole mast, and the other parts of the wind power plant are brought to the vicinity of the high base structure (1; 10; 16; 19); - the wind power plant is installed by using an installation structure (1; 11), in which the mast of the wind power plant is assembled from elements in such a way that the uppermost element of the mast is brought to the installation structure (1; 11) first, and after that the lower elements of the mast so that the preceding installed elements of the mast are lifted upwards at least by the height of the next element of the mast, the next lower element of the mast is transferred underneath the upper elements of the mast and fixed at its top to the bottom of the next upper element of the mast; - the lowermost element of the mast of the wind power plant is connected at its bottom to the high base structure (1; 10; 16; 19); and in which method - the installation structure (1, 11) used is the high base structure; - the high base structure is provided with means for lifting elements of the mast upwards and connecting on the top of each other,
A deflector system for a trommel screen machine, comprising: a deflector body (128, 146) hingedly attached to a trommel screen frame, the trommel screen frame being attached to a rotary trommel screen having an inlet end and an outlet end, wherein the rotatory trommel screen is rotatably attached to rotary trommel screen frame; a conveyor (110, 210) movable with respect to the trommel screen frame, the conveyor having a stowed position and an operating position; and an automatic linkage (134, 154, 234) pivotably attached to the deflector body (128, 146) and to the conveyor (110, 210), wherein the linkage (134, 154, 234) moves the deflector body (128, 146) when the conveyor (110, 210) moves between the stowed position and the operating position; characterized in that the deflector body (128, 146) and the conveyor (110, 210) are positioned at the outlet end of the rotary trommel screen. a deflector body (128, 146) hingedly attached to a trommel screen frame, the trommel screen frame being attached to a rotary trommel screen having an inlet end and an outlet end, wherein the rotatory trommel screen is rotatably attached to rotary trommel screen frame; a conveyor (110, 210) movable with respect to the trommel screen frame, the conveyor having a stowed position and an operating position; and an automatic linkage (134, 154, 234) pivotably attached to the deflector body (128, 146) and to the conveyor (110, 210), wherein the linkage (134, 154, 234) moves the deflector body (128, 146) when the conveyor (110, 210) moves between the stowed position and the operating position; characterized in that the deflector body (128, 146) and the conveyor (110, 210) are positioned at the outlet end of the rotary trommel screen.
A container filler-inspecting apparatus for inspecting a filler with which a container is filled by a fixed amount, comprising: a weight-measuring unit for measuring the weight of the container filled with the filler; a sample-extracting unit for extracting a fixed amount of sample filler from a tip opening of the container; and a sampling unit arranged to perform a sampling operation by wiping off the sample filler extracted by the sample-extracting unit with a sampling paper sheet. a weight-measuring unit for measuring the weight of the container filled with the filler; a sample-extracting unit for extracting a fixed amount of sample filler from a tip opening of the container; and a sampling unit arranged to perform a sampling operation by wiping off the sample filler extracted by the sample-extracting unit with a sampling paper sheet.
A method for detecting a mature small RNA in a sample comprising a mature small RNA, the method comprising: polyadenylating the 3' end of the mature small RNA and ligating a single-stranded adaptor to the 5' end of the mature small RNA in the presence of single strand RNA ligase, whereby an RNA ligation product is formed, wherein the adaptor comprises a universal forward primer portion; reverse transcribing the RNA ligation product using a reverse transcription primer, thereby forming a cDNA product of the RNA ligation product, wherein the RT primer comprises a poly portion and a tail portion, wherein the tail portion comprises a universal reverse primer portion; amplifying the cDNA product using a first forward and reverse primer pair to form an amplification product, wherein the first forward primer can hybridize to the universal forward primer portion or its complement, and the first reverse primer can hybridize to the universal reverse primer portion or its complement; and detecting the amplification product corresponding to the mature small RNA via quantitative real-time polymerase chain reaction (qPCR), wherein the cDNA product amplifying is a pre-amplification step, and wherein polyadenylation, ligation, and reverse transcription are performed in the same reaction vessel, and wherein polyadenylation, ligation, reverse transcription and pre-amplification are performed without intervening extraction, precipitation, purification and/or other clean-up processes. polyadenylating the 3' end of the mature small RNA and ligating a single-stranded adaptor to the 5' end of the mature small RNA in the presence of single strand RNA ligase, whereby an RNA ligation product is formed, wherein the adaptor comprises a universal forward primer portion; reverse transcribing the RNA ligation product using a reverse transcription primer, thereby forming a cDNA product of the RNA ligation product, wherein the RT primer comprises a poly portion and a tail portion, wherein the tail portion comprises a universal reverse primer portion; amplifying the cDNA product using a first forward and reverse primer pair to form an amplification product, wherein the first forward primer can hybridize to the universal forward primer portion or its complement, and the first reverse primer can hybridize to the universal reverse primer portion or its complement; and detecting the amplification product corresponding to the mature small RNA via quantitative real-time polymerase chain reaction (qPCR), wherein the cDNA product amplifying is a pre-amplification step, and wherein polyadenylation, ligation, and reverse transcription are performed in the same reaction vessel, and wherein polyadenylation, ligation, reverse transcription and pre-amplification are performed without intervening extraction, precipitation, purification and/or other clean-up processes.
A method for use in a wireless network comprising: configuring a base station to perform operations comprising: sending a globally unique group identifier list to a device; wherein sending the globally unique group identifier list to the device is performed upon one or more of initial association with the device or a configuration update for the device; and wherein sending of the globally unique group identifier list comprises including in the globally unique group identifier list a subset of Mobility Management Entity, MME, pool identifiers associated with the base station, characterized in that, if the device is a relay node associated with the base station, the MME pool identifiers included in the subset are chosen so as to exclude MME pool identifiers that are unsupported by one or more neighbor nodes of the device. sending a globally unique group identifier list to a device; wherein sending the globally unique group identifier list to the device is performed upon one or more of initial association with the device or a configuration update for the device; and wherein sending of the globally unique group identifier list comprises including in the globally unique group identifier list a subset of Mobility Management Entity, MME, pool identifiers associated with the base station, characterized in that, if the device is a relay node associated with the base station, the MME pool identifiers included in the subset are chosen so as to exclude MME pool identifiers that are unsupported by one or more neighbor nodes of the device.
A method comprising: initiating an aliphatic polycarbonate polymerization reaction by combining an epoxide with carbon dioxide in the presence of a catalytic transition metal-ligand complex to form a reaction mixture comprising a polycarbonate chain; and quenching the polymerization reaction by contacting the reaction mixture with an acid containing an anion that is not a polymerization initiator; wherein the acid is selected from a sulfonic acid, or a phosphoric acid derivative having at least one acidic hydrogen atom; wherein the catalytic transition metal-ligand complex comprises at least one ligand that is a polymerization initiator and at least one ligand that is not a polymerization initiator; wherein the ligand that is a polymerization initiator is a nucleophilic ligand, wherein the nucleophilic ligand is selected from the group consisting of -OR x, -O(C=O)R x, -NC, -CN, halo ( e.g., -Br, -I, -Cl), and -N 3, wherein each R x is, independently, selected from hydrogen, optionally substituted aliphatic, optionally substituted heteroaliphatic, optionally substituted aryl and optionally substituted heteroaryl; and wherein the ligand that is not a polymerization initiator is a salen ligand. initiating an aliphatic polycarbonate polymerization reaction by combining an epoxide with carbon dioxide in the presence of a catalytic transition metal-ligand complex to form a reaction mixture comprising a polycarbonate chain; and quenching the polymerization reaction by contacting the reaction mixture with an acid containing an anion that is not a polymerization initiator; wherein the acid is selected from a sulfonic acid, or a phosphoric acid derivative having at least one acidic hydrogen atom; wherein the catalytic transition metal-ligand complex comprises at least one ligand that is a polymerization initiator and at least one ligand that is not a polymerization initiator; wherein the ligand that is a polymerization initiator is a nucleophilic ligand, wherein the nucleophilic ligand is selected from the group consisting of -OR x, -O(C=O)R x, -NC, -CN, halo ( e.g., -Br, -I, -Cl), and -N 3, wherein each R x is, independently, selected from hydrogen, optionally substituted aliphatic, optionally substituted heteroaliphatic, optionally substituted aryl and optionally substituted heteroaryl; and wherein the ligand that is not a polymerization initiator is a salen ligand.
A structure for containing and covering walls having external wiring, comprising modular means suitable, on the one hand, for containing said wiring and covering said walls, and on the other hand, for forming personalized decorative elements of the same walls, said means comprising a panel for covering and containing said wiring, in addition to a bar (9,91) anchored to said wall, said structure further comprising a fixing support of said panel to said bar, characterized in that said support is provided with hooks suitable for being engaged in corresponding slots of said bar, said support consisting of a profiled section provided with holes for anchoring elements of the same support to the respective panel, and also a hole for regulation means of the inclination of said panel.
A machine tool comprising: a machine element; a tool post having a tool unit for machining a workpiece attached thereto; operation control means for controlling an operation of the tool unit in accordance with a plurality of commands described in a numerical control program; and movement restricting means for inhibiting entry of the tool unit into a no-entry region; wherein at least part of the tool unit is pivotably attached to the tool post, characterized in that the plurality of commands include a limit value setting command for calculating a maximum pivoting angle (β) of the tool unit avoiding interference with the machine element located within a movable region of the tool unit based on positions of the tool post and the machine element and for determining the no-entry region by a limit value of a pivoting position of the tool unit determined by the calculated maximum pivoting angle (β), and wherein upon reading the limit value setting command out of the numerical control program, the operation control means calculates the maximum pivoting angle (β) to determine the limit value and determines the no-entry region by the limit value when the operation control means determines that the tool unit interferes with the machine element based on the positions of the tool post and the machine element. a machine element; a tool post having a tool unit for machining a workpiece attached thereto; operation control means for controlling an operation of the tool unit in accordance with a plurality of commands described in a numerical control program; and movement restricting means for inhibiting entry of the tool unit into a no-entry region; wherein at least part of the tool unit is pivotably attached to the tool post, characterized in that the plurality of commands include a limit value setting command for calculating a maximum pivoting angle (β) of the tool unit avoiding interference with the machine element located within a movable region of the tool unit based on positions of the tool post and the machine element and for determining the no-entry region by a limit value of a pivoting position of the tool unit determined by the calculated maximum pivoting angle (β), and wherein upon reading the limit value setting command out of the numerical control program, the operation control means calculates the maximum pivoting angle (β) to determine the limit value and determines the no-entry region by the limit value when the operation control means determines that the tool unit interferes with the machine element based on the positions of the tool post and the machine element.
An apparatus comprising: decoder circuitry configured to decode: an instruction to include an opcode defining at least one operation to be performed and at least two fields to identify a first operand and a second operand; wherein the operands are to store data in a floating-point encoding format of fixed width that is to include fields for a sign bit, a self-identifying field identifying a bit-length used to represent an exponent and identifying, based on the bit-length, a numerical exponent range of non-overlapping numerical exponent ranges, and a mantissa, and the decoder circuitry is further configured to decode, based at least on the self-identifying field, identified first and second operands into at least two real values, each real value having a standard exponent and mantissa field; and the apparatus further comprises an execution circuitry configured to execute the decoded instruction according to the defined at least one operation to be performed using the at least two real values of the identified first and second operands. an instruction to include an opcode defining at least one operation to be performed and at least two fields to identify a first operand and a second operand; wherein the operands are to store data in a floating-point encoding format of fixed width that is to include fields for a sign bit, a self-identifying field identifying a bit-length used to represent an exponent and identifying, based on the bit-length, a numerical exponent range of non-overlapping numerical exponent ranges, and a mantissa, and the decoder circuitry is further configured to decode, based at least on the self-identifying field, identified first and second operands into at least two real values, each real value having a standard exponent and mantissa field; and the apparatus further comprises an execution circuitry configured to execute the decoded instruction according to the defined at least one operation to be performed using the at least two real values of the identified first and second operands.
A medical image displaying method comprising: displaying a medical image (641; 643) of an object captured in real time, and a first reference image of the object registered with the medical image; obtaining image information of a region adjacent to a first region within the medical image (641; 643), wherein the first region (711; is a distorted region of the medical image (641; 643) with respect to a shape of the object; predicting image information of the first region, based on the image information of the region adjacent to the first region; and reconstructing a region corresponding to the object within the first reference image, based on the predicted image information of the first region, and displaying the reconstructed region. displaying a medical image (641; 643) of an object captured in real time, and a first reference image of the object registered with the medical image; obtaining image information of a region adjacent to a first region within the medical image (641; 643), wherein the first region (711; is a distorted region of the medical image (641; 643) with respect to a shape of the object; predicting image information of the first region, based on the image information of the region adjacent to the first region; and reconstructing a region corresponding to the object within the first reference image, based on the predicted image information of the first region, and displaying the reconstructed region.
An immunoassay method for detecting O-desmethyltramadol comprising bringing a sample suspected of containing O-desmethyltramadol into contact with a detecting agent and an antibody specific to O-desmethyltramadol, in which the detecting agent competes with O-desmethyltramadol present in the sample for binding to the antibody characterised in that the antibody specific to O-desmethyltramadol has a cross-reactivity of less than 5% to each of tramadol and N-desmethyltramadol and that the antibody is generated against an immunogen of structure in which n=0 or 1 and the linking group is -(CH 2) m -CO- in which m=1-5, and the accm is an antigenicity conferring carrier material chosen from keyhole limpet haemocyanin, bovine thyroglobulin, bovine serum albumin, egg ovalbumin, bovine gamma globulin and cationised bovine serum albumin.