mhurhangee/patent-ind-claim-en huggingface dataset:
Process for producing flame-retardant, non-corrosive, highly flowable polyamides and polyesters, characterized in that a flame retardant mixture made of a phosphinic salt of the formula (I), where M = Al, Mg, Ca, Ti, Zn or Na (component A) in which R 1 and R 2 are identical or different and are C 1 -C 6 -alkyl, linear or branched, and/or aryl; n is from 1 to 3; and, as component B, sodium phosphite, barium sulfate and/or zinc carbonate are used, where the amount of component A present in the flame retardant mixture is from 70 to 99.5% by weight and the amount of component B present in the flame retardant mixture is from 0.5 to 30% by weight. R 1 and R 2 are identical or different and are C 1 -C 6 -alkyl, linear or branched, and/or aryl; n is from 1 to 3;
A method of detecting kidney specific clusterin comprising (a) contacting a sample with (i) one or more antibodies or antigen binding fragments thereof that specifically bind clusterin and (ii) one or more molecules that specifically bind to carbohydrate moieties of kidney specific clusterin and that do not specifically bind to carbohydrate moieties of non-kidney specific, bloodborne clusterin isoforms, and (b) detecting complexes of kidney specific clusterin, the one or more antibodies or antigen binding fragments thereof that specifically bind clusterin, and the one or more molecules that specifically bind to carbohydrate moieties of kidney specific clusterin and that do not specifically bind to carbohydrate moieties of non-kidney specific, bloodborne clusterin isoforms. (a) contacting a sample with (i) one or more antibodies or antigen binding fragments thereof that specifically bind clusterin and (ii) one or more molecules that specifically bind to carbohydrate moieties of kidney specific clusterin and that do not specifically bind to carbohydrate moieties of non-kidney specific, bloodborne clusterin isoforms, and (i) one or more antibodies or antigen binding fragments thereof that specifically bind clusterin and (ii) one or more molecules that specifically bind to carbohydrate moieties of kidney specific clusterin and that do not specifically bind to carbohydrate moieties of non-kidney specific, bloodborne clusterin isoforms, and (b) detecting complexes of kidney specific clusterin, the one or more antibodies or antigen binding fragments thereof that specifically bind clusterin, and the one or more molecules that specifically bind to carbohydrate moieties of kidney specific clusterin and that do not specifically bind to carbohydrate moieties of non-kidney specific, bloodborne clusterin isoforms.
A computing system comprising: one or more memories; one or more processing units coupled to the one or more memories; and one or more computer readable storage media storing computer-executable instructions specifying operations for: creating a first schema for a first virtual table in a data dictionary, the first schema comprising a first logical pointer specifying a first location of a first table comprising first data and defined according to the first schema, the first location being in a first federated database system; receiving at least a portion of the first data; creating a second table in a cache of a central computing system hosting a database management system, the second table defined according to the first schema; storing the received at least a portion of the first data in the second table; and assigning a second value to the first logical pointer, the second value identifying a location in the cache of the second table. one or more memories; one or more processing units coupled to the one or more memories; and one or more computer readable storage media storing computer-executable instructions specifying operations for: creating a first schema for a first virtual table in a data dictionary, the first schema comprising a first logical pointer specifying a first location of a first table comprising first data and defined according to the first schema, the first location being in a first federated database system; receiving at least a portion of the first data; creating a second table in a cache of a central computing system hosting a database management system, the second table defined according to the first schema; storing the received at least a portion of the first data in the second table; and assigning a second value to the first logical pointer, the second value identifying a location in the cache of the second table. creating a first schema for a first virtual table in a data dictionary, the first schema comprising a first logical pointer specifying a first location of a first table comprising first data and defined according to the first schema, the first location being in a first federated database system; receiving at least a portion of the first data; creating a second table in a cache of a central computing system hosting a database management system, the second table defined according to the first schema; storing the received at least a portion of the first data in the second table; and assigning a second value to the first logical pointer, the second value identifying a location in the cache of the second table.
An evolved Node B - eNB - for allocating resources for a device-to-device - D2D - link between User Equipments - UEs - , comprising: a processor; memory in electronic communication with the processor; instructions stored in the memory, the instructions being executable to: allocate a semi-persistent resource for a D2D link by Downlink Control Information - DCI - on a Physical Downlink Control Channel - PDCCH -, wherein - i - a D2D signal is transmitted or received by a UE through the allocated semi-persistent resource in uplink subframes of Time Division Duplexing - TDD - configuration for a cellular service, - ii - Cyclic Redundancy Check - CRC - of the DCI is scrambled by a different sequence for a D2D link than a Cell Radio Network Temporary Identifier - C-RNTI - for a normal link , wherein the different sequence for a D2D link is specific to each UE, and - iii - the semi-persistent resource for the D2D link is allocated by the DCI and activated until the semi-persistent resource is released, and release the semi-persistent resource for the D2D link by a PDCCH. a processor; memory in electronic communication with the processor; instructions stored in the memory, the instructions being executable to: allocate a semi-persistent resource for a D2D link by Downlink Control Information - DCI - on a Physical Downlink Control Channel - PDCCH -, wherein - i - a D2D signal is transmitted or received by a UE through the allocated semi-persistent resource in uplink subframes of Time Division Duplexing - TDD - configuration for a cellular service, - ii - Cyclic Redundancy Check - CRC - of the DCI is scrambled by a different sequence for a D2D link than a Cell Radio Network Temporary Identifier - C-RNTI - for a normal link , wherein the different sequence for a D2D link is specific to each UE, and - iii - the semi-persistent resource for the D2D link is allocated by the DCI and activated until the semi-persistent resource is released, and release the semi-persistent resource for the D2D link by a PDCCH. allocate a semi-persistent resource for a D2D link by Downlink Control Information - DCI - on a Physical Downlink Control Channel - PDCCH -, wherein - i - a D2D signal is transmitted or received by a UE through the allocated semi-persistent resource in uplink subframes of Time Division Duplexing - TDD - configuration for a cellular service, - ii - Cyclic Redundancy Check - CRC - of the DCI is scrambled by a different sequence for a D2D link than a Cell Radio Network Temporary Identifier - C-RNTI - for a normal link , wherein the different sequence for a D2D link is specific to each UE, and - iii - the semi-persistent resource for the D2D link is allocated by the DCI and activated until the semi-persistent resource is released, and release the semi-persistent resource for the D2D link by a PDCCH.
Agricultural single grain seeder having a separating device for separating granular material, preferably for separating seeds, wherein the separating device has a housing and at least one separating element driven in rotation by a shaft, which subdivides the interior of the housing in such a way that a pressure difference can be produced between a first region and a second region by means of a blower, wherein the separating element has, along its circumferential direction and/or in its outer region in the vicinity of the circumferential line, suitable recesses at regular intervals for entraining single grains of the granular material, wherein the recesses create spatial connections between the first and the second region of the housing and the grains are deposited in these recesses on account of the pressure difference, and the separating device additionally has a covering element at a suitable location, which temporarily covers the recesses in order to suppress the pressure difference and thus continuing deposition of the transported grains, characterized in that in its outer region in the vicinity of the circumferential line, the separating element has a separating region made exclusively of metal, which adjoins a fixing region consisting of plastic, and the recesses are arranged in the separating region .
A system for reaming a bone, comprising: a guiding wire configured to be attached to the bone; a tubular depth guide configured to cover at least a portion of the guiding wire, the tubular depth guide including a first end configured to abut the bone, a second end opposite the first end, and having a patient-specific length; and a reaming device including an elongate recess therein that extends between a reaming tool of the reaming device and an interior of the reaming device; characterized in that the system further comprises a depth control window formed in an exterior surface of the reaming device, wherein the elongate recess is configured to receive each of the guiding wire and depth guide therein, and during reaming of the bone, the depth control window is configured to provide visual access to the second end of the tubular depth guide to determine whether a patient-specific reaming depth has been reached. a guiding wire configured to be attached to the bone; a tubular depth guide configured to cover at least a portion of the guiding wire, the tubular depth guide including a first end configured to abut the bone, a second end opposite the first end, and having a patient-specific length; and a reaming device including an elongate recess therein that extends between a reaming tool of the reaming device and an interior of the reaming device; characterized in that the system further comprises a depth control window formed in an exterior surface of the reaming device, wherein the elongate recess is configured to receive each of the guiding wire and depth guide therein, and during reaming of the bone, the depth control window is configured to provide visual access to the second end of the tubular depth guide to determine whether a patient-specific reaming depth has been reached.
Sensor for detecting a liquid in a fluid channel of a microfluidic component , characterised in that the sensor comprises an electrode arrangement having a transmitting electrode , a receiving electrode and a first shielding electrode , which is arranged in a coplanar manner on a plane and which can be positioned parallel with the fluid channel and in a state above or below adjacent to the fluid channel , wherein the transmitting electrode and the receiving electrode are directly coupled to each other in a capacitive manner by having an adjacently arranged edge with a dielectric located therebetween, wherein no shielding is provided between the transmitting electrode and the receiving electrode .
Component of a brake for a vehicle, having a metallic base body which has a surface which, in order to increase its wear resistance, is provided with a coating (B) which comprises an intermediate layer (Z) lying on the base body and a covering layer (D) lying on the intermediate layer (Z), which covering layer (D) is formed from a stainless steel matrix (E) with hard material particles (HP) embedded therein, characterized in that the hard material particles (HP) embedded in the stainless steel matrix (E) of the covering layer (D) have an average grain diameter of 10 μm to 125 μm and in that the hard material particles (HP) have a non-melted core region (K) consisting of uninfluenced material of the hard material particles (HP), which core region (K) is surrounded at least in sections by a mixing zone (M) formed from material of the stainless steel matrix (E) and material of the respective hard material particle (HP), via which mixing zone (M) the hard material particles (HP) are in each case materially bonded to the stainless steel matrix (E).
An obturation element for a well receiving a chemical or biological solution to be analyzed, including for each well, a plug including a sleeve to be inserted into the well by elastic deformation, this insertion sleeve delimiting from the free end of the sleeve, at least one vent when the plug occupies a partial depressed position, the plug including a sealed portion positioned such that in a more depressed position of the plug, relative to the partial depressed position, this portion cooperates with the well to ensure its sealed closing, the insertion sleeve is in the form of a cylinder provided with two truncated areas arranged in a symmetrically opposite manner on the outside of the sleeve to form vents , characterized in that this insertion sleeve being provided with a bottom wall in which a through-cutout is arranged, oriented radially in the direction of the two truncated areas , this cutout extending between two passage faces of the bottom wall, in contact against each other to ensure a sealing and authorize by elastic deformation, the passage of a tip of a pipette.
A method for extracting pea proteins, comprising the steps of: (a) subjecting an aqueous composition comprising peas to fermentation in the presence of lactic acid bacteria prior to milling; (b) milling said peas; (c) fractionating said milled peas so as to obtain at least one protein comprising fraction; and; (d) isolating pea proteins from said at least one protein comprising fraction. (a) subjecting an aqueous composition comprising peas to fermentation in the presence of lactic acid bacteria prior to milling; (b) milling said peas; (c) fractionating said milled peas so as to obtain at least one protein comprising fraction; and; (d) isolating pea proteins from said at least one protein comprising fraction.
Method for fastening a cushion in a squab frame of a seat , said cushion comprising a stiffening wire , a foam and a cover , said wire being embedded into said foam which is itself delimited by said cover , characterized in that it comprises the following steps: - a step of securing at least one fastening flange to the squab frame , - a step of bringing the cushion into abutment against the squab frame , - a step of moving the cushion around where it abuts, - a step of manually compressing said cushion to allow at least one end loop of the stiffening wire to be inserted into the flange , - a step of relaxing the cushion to allow said end loop to slide within the flange . - a step of securing at least one fastening flange to the squab frame , - a step of bringing the cushion into abutment against the squab frame , - a step of moving the cushion around where it abuts, - a step of manually compressing said cushion to allow at least one end loop of the stiffening wire to be inserted into the flange , - a step of relaxing the cushion to allow said end loop to slide within the flange .
Use of the peptide having the following general Formula 1: X − Xaa n K * TFK * − Xaa m − Z for a non-therapeutic cosmetic treatment to preserve or improve the condition of the epidermis, with in the general Formula 1: • K* being selected in group comprising lysine K, omithine, diaminobutyric acid or diaminopropionic acid, or a hydroxylated derivative thereof, the two K* being identical or different; • (Xaa) n and (Xaa) m independently of each other corresponding to a sequence of n or m amino acids Xaa chosen independently of one another from Gly, Ala, Pro, Val, Leu, Ile and Phe, with n and m being integers which may be equal or different between 0 and 5; • At the N-terminal end X being chosen from H, -CO-R 1 , -SO 2 -R 1 or a biotinoyl group; • At the C-terminal end Z being chosen from OH, OR 1 , NH 2 , NHR 1 or NR 1 R 2 ; and • Wherein R 1 and R 2 being, independently of one another, selected from an alkyl, aryl, aralkyl, alkylaryl, alkoxy, saccharide and aryloxy group, which may be linear, branched, cyclic, polycyclic, unsaturated, hydroxylated, carbonylated, phosphorylated, and/or sulfur, said group having 1 to 24 carbon atoms and may have in its backbone one or more O, S and/or N heteroatoms. • K* being selected in group comprising lysine K, omithine, diaminobutyric acid or diaminopropionic acid, or a hydroxylated derivative thereof, the two K* being identical or different; • (Xaa) n and (Xaa) m independently of each other corresponding to a sequence of n or m amino acids Xaa chosen independently of one another from Gly, Ala, Pro, Val, Leu, Ile and Phe, with n and m being integers which may be equal or different between 0 and 5; • At the N-terminal end X being chosen from H, -CO-R 1 , -SO 2 -R 1 or a biotinoyl group; • At the C-terminal end Z being chosen from OH, OR 1 , NH 2 , NHR 1 or NR 1 R 2 ; and • Wherein R 1 and R 2 being, independently of one another, selected from an alkyl, aryl, aralkyl, alkylaryl, alkoxy, saccharide and aryloxy group, which may be linear, branched, cyclic, polycyclic, unsaturated, hydroxylated, carbonylated, phosphorylated, and/or sulfur, said group having 1 to 24 carbon atoms and may have in its backbone one or more O, S and/or N heteroatoms.
A method for operating a low power access node within the coverage area of a macro cell in a wireless communications network, the method comprising: transmitting, by the low power access node, an extended physical downlink control channel (E-PDCCH), wherein the E-PDCCH is transmitted in an E-PDCCH region within a Physical Downlink Shared Channel (PDSCH) region, wherein the E-PDCCH region is one of multiple E-PDCCH regions defined for different groups of user equipments (UEs), wherein each E-PDCCH region is configured by information in respective downlink control information (DCI) of a physical downlink control channel (PDCCH) transmitted in a legacy control channel region, and wherein each DCI is scrambled by a corresponding E-PDCCH group radio network temporary identifier (RNTI).
An anti-ramming vehicle device comprising: - at least one essentially horizontal stop bar ; - at least one tilting bar forming, with the stop bar , in a vertical plane, an angle (α) of at least 100°, each stop bar being rigidly assembled to a corresponding tilting bar , the stop bars , when the device is mounted on a planar horizontal surface, having a slight incline, the tilting bars forming an angle of at least 100° relative to the horizontal and characterized in that the incline is obtained by bearing points located near the center of gravity of the stop bar /tilting bar assembly or assemblies so as to allow easier tilting of these assemblies. - at least one essentially horizontal stop bar ; - at least one tilting bar forming, with the stop bar , in a vertical plane, an angle (α) of at least 100°,
A regenerative braking device of a dump truck comprising: an engine , a first generator and a second generator driven by the engine , at least one travel motor driven by generated electric power of the first generator , and at least one fan motor to which generated electric power of the second generator is inputted via a first rectifier circuit , the regenerative braking device comprising: at least one resistive element to which regenerating electric power from the at least one travel motor in regenerative braking is supplied and which is cooled by at least one fan driven by the at least one fan motor and converts electric energy into heat energy and dissipates heat; characterised in that it comprises a DC/DC converter that in puts a part of the regenerating electric power which is supplied to the at least one resistive element to an output line of the first rectifier circuit via a second rectifier circuit ; a voltage line that extracts a voltage, which is lower than a voltage applied to the at least one resistive element , from the at least one resistive element to apply the extracted voltage to a primary side of the DC/DC converter , wherein the voltage line is provided on a position such that a secondary side open-circuit voltage (V20 open ) of the DC/DC converter exceeds an output side open-circuit voltage (V17 open ) of the first rectifier circuit . an engine , a first generator and a second generator driven by the engine , at least one travel motor driven by generated electric power of the first generator , and at least one fan motor to which generated electric power of the second generator is inputted via a first rectifier circuit , the regenerative braking device comprising: at least one resistive element to which regenerating electric power from the at least one travel motor in regenerative braking is supplied and which is cooled by at least one fan driven by the at least one fan motor and converts electric energy into heat energy and dissipates heat; at least one resistive element to which regenerating electric power from the at least one travel motor in regenerative braking is supplied and which is cooled by at least one fan driven by the at least one fan motor and converts electric energy into heat energy and dissipates heat; a DC/DC converter that in puts a part of the regenerating electric power which is supplied to the at least one resistive element to an output line of the first rectifier circuit via a second rectifier circuit ; a voltage line that extracts a voltage, which is lower than a voltage applied to the at least one resistive element , from the at least one resistive element to apply the extracted voltage to a primary side of the DC/DC converter , wherein the voltage line is provided on a position such that a secondary side open-circuit voltage (V20 open ) of the DC/DC converter exceeds an output side open-circuit voltage (V17 open ) of the first rectifier circuit .
An apparatus for the expansion of the graphite to graphene with at least one container provided for receiving an electrolyte, at least one anode and at least one cathode , characterized in that the cathode contains diamond or consists thereof.