mhurhangee/ep-ind-claims huggingface dataset:
A tamping unit for tamping a group of adjacent sleepers (4, 4a-4e) of a track, with tamping tools arranged one behind the other in a working direction, with the respective tamping tool being mounted on a height-adjustable tool carrier so as to be able to pivot about an associated pivot axis, and with squeezing drives of individual tamping tools being designed for a first squeezing movement and for an opposite second squeezing movement, and with a plurality of tamping tools being arranged next to one another in a row at a plurality of points for tamping a respective sleeper, characterized in that each of the tamping tools (17, 17v, 17h, 17m, 17m1, 17m2) arranged one behind the other is arranged in a row with the tamping tools (17, 17v, 17h, 17m, 17m1, 17m2) arranged next to them for sole penetration of a sleeper crib, and in that each tamping tool (17m, 17m1, 17m2) arranged between a foremost tamping tool and a rearmost tamping tool is assigned a squeezing drive designed for two squeezing movements (25b, 25c) in opposite directions.
A method for preparing an oil-in-water emulsion comprising mometasone furoate, the method comprising a) preparing an oil phase by mixing the ingredients making up the oil phase and heating to a temperature of from 60 °C to 80 °C, b) preparing an aqueous phase by i) preparing a dispersion of mometasone furoate in part of the aqueous phase, ii) preparing the remaining part of the aqueous phase by dissolving the ingredients, and iii) adding the dispersion resulting from i) to the remaining part of the aqueous phase resulting from ii) to obtain the aqueous phase, c) transferring the oil phase a) to the aqueous phase ii), or optionally ii) to i), d) mixing until an emulsion is obtained, e) optionally, subjecting the thus obtained emulsion to vacuum conditions, f) optionally, homogenizing the emulsion, optionally under vacuum conditions, g) optionally, addition one or more fragrance agents, h) cooling the thus obtained emulsion, wherein the emulsion obtained comprises mometasone furoata and propylene glycol, and the total concentration of propylene glycol is from 20 to 45% w/w, and wherein a part of mometasone furoate is present in undissolved form. a) preparing an oil phase by mixing the ingredients making up the oil phase and heating to a temperature of from 60 °C to 80 °C, b) preparing an aqueous phase by i) preparing a dispersion of mometasone furoate in part of the aqueous phase, ii) preparing the remaining part of the aqueous phase by dissolving the ingredients, and iii) adding the dispersion resulting from i) to the remaining part of the aqueous phase resulting from ii) to obtain the aqueous phase, i) preparing a dispersion of mometasone furoate in part of the aqueous phase, ii) preparing the remaining part of the aqueous phase by dissolving the ingredients, and iii) adding the dispersion resulting from i) to the remaining part of the aqueous phase resulting from ii) to obtain the aqueous phase, c) transferring the oil phase a) to the aqueous phase ii), or optionally ii) to i), d) mixing until an emulsion is obtained, e) optionally, subjecting the thus obtained emulsion to vacuum conditions, f) optionally, homogenizing the emulsion, optionally under vacuum conditions, g) optionally, addition one or more fragrance agents, h) cooling the thus obtained emulsion,
Functionalized peptide selected from: a) the peptide of formula: X 1 -N(CH 2 CH 2 SeH) 2; or b) the peptide of formula (I'): in which X 1 represents a peptide fragment and the -N(CH 2 CH 2 SeH) 2 group or group forms an amide bond with the C=O termination of the amino acid residue of the peptide fragment X 1 which is in the C-terminal position. a) the peptide of formula: X 1 -N(CH 2 CH 2 SeH) 2; or b) the peptide of formula (I'): in which X 1 represents a peptide fragment and the -N(CH 2 CH 2 SeH) 2 group or group forms an amide bond with the C=O termination of the amino acid residue of the peptide fragment X 1 which is in the C-terminal position.
A method for manufacturing an organic solar cell, the method comprising: providing a substrate; forming a first electrode on the substrate; forming a photoactive layer by coating a solution including a photoactive material and a solvent on the first electrode; drying the photoactive layer in a closed drying system having a constant volume; and forming a second electrode on the photoactive layer, characterized in that a ratio of a volume of the solution coated on the first electrode to the volume of the drying system is from 1:1,000 to 1:5,000; and that a volume of the solution coated on the first electrode is greater than or equal to 0.1 μl/cm 2 and less than or equal to 10 μl/cm 2 based on an area of the substrate. providing a substrate; forming a first electrode on the substrate; forming a photoactive layer by coating a solution including a photoactive material and a solvent on the first electrode; drying the photoactive layer in a closed drying system having a constant volume; and forming a second electrode on the photoactive layer, characterized in that a ratio of a volume of the solution coated on the first electrode to the volume of the drying system is from 1:1,000 to 1:5,000; and that a volume of the solution coated on the first electrode is greater than or equal to 0.1 μl/cm 2 and less than or equal to 10 μl/cm 2 based on an area of the substrate.
An antibody which binds to structure wherein: X is selected from n -propyl and n -butyl; the antibody having a cross-reactivity represented by B/B 0 of ≤ 50% for an epitope selected from the group consisting of a racemic mixture of a C 7 homologue of CP-47,497 and a racemic mixture of a C 8 homologue of CP-47,497, at a cross-reactant concentration of 100 ng/ml; standardised with a racemic mixture of a C 8 homologue of CP-47,497 and using tracer 1 (C 7); the antibody further having a cross-reactivity represented by B/B 0 of > 80% for a C 7 para quinone analogue of a racemic mixture of CP-47,497, (+-)-CP 55,940, (-)-CP 55,940, (+)-CP 55,940, HU-210, and HU-211 (Dexanabinol), at a cross-reactant concentration of 100 ng/ml; standardised with a racemic mixture of a C 8 homologue of CP-47,497 and using tracer 1 (C 7); wherein the cross-reactivity is determined using an Enzyme Linked Immunosorbent Assay (ELISA) technique as described in example 12, where B/B 0 is determined by measuring absorbance at 450nm, where B is the absorbance at 450nm at x ng/ml standard concentration and where B 0 is the absorbance at 450nm at 0 ng/ml standard concentration; wherein the C 7 and C 8 homologues of CP-47,497 are: and wherein tracer 1 is: X is selected from n -propyl and n -butyl; the antibody having a cross-reactivity represented by B/B 0 of ≤ 50% for an epitope selected from the group consisting of a racemic mixture of a C 7 homologue of CP-47,497 and a racemic mixture of a C 8 homologue of CP-47,497, at a cross-reactant concentration of 100 ng/ml; standardised with a racemic mixture of a C 8 homologue of CP-47,497 and using tracer 1 (C 7); the antibody further having a cross-reactivity represented by B/B 0 of > 80% for a C 7 para quinone analogue of a racemic mixture of CP-47,497, (+-)-CP 55,940, (-)-CP 55,940, (+)-CP 55,940, HU-210, and HU-211 (Dexanabinol), at a cross-reactant concentration of 100 ng/ml; standardised with a racemic mixture of a C 8 homologue of CP-47,497 and using tracer 1 (C 7); wherein the cross-reactivity is determined using an Enzyme Linked Immunosorbent Assay (ELISA) technique as described in example 12, where B/B 0 is determined by measuring absorbance at 450nm, where B is the absorbance at 450nm at x ng/ml standard concentration and where B 0 is the absorbance at 450nm at 0 ng/ml standard concentration; wherein the C 7 and C 8 homologues of CP-47,497 are: and wherein tracer 1 is:
Natural fibre based, melt processable composite material, comprising a polymer matrix of a biopolymer, together with a reinforcing and filling agent, characterized in that the reinforcing and filling agent is hydrophobic dried peat having moisture content lower than 25% and comprising different fractions of peat, and that the biopolymer is a polylactide, a starch or cellulose derivative, a biodegradable polyester, or a mixture of any of these.
Polyesters based on dicarboxylic or polycarboxylic acids and diols, characterized in that they comprise at least one unsaturated dicarboxylic or polycarboxylic acid and at least one alkoxylated diol, wherein as alkoxylated diol, compounds of the general formula R-O(CH 2 CH 2 O) a (CH 2 CHCH 3 O) b -H are used where R = tricyclodecanedimethanol, 1,2-propanediol, cyclohexanedimethanol, and neopentyl glycol, a = 0 to 20, preferably 5 to 12, and/or b = 0 to 20, preferably 5 to 12, with the proviso that a+b ≥ 1. R = tricyclodecanedimethanol, 1,2-propanediol, cyclohexanedimethanol, and neopentyl glycol, a = 0 to 20, preferably 5 to 12, and/or b = 0 to 20, preferably 5 to 12, with the proviso that a+b ≥ 1.
Rolling body for use in a roller bearing, having an outer shell, a first end side, a second end side, and a bore, wherein the bore is provided along a central axis of the rolling body, the rolling body has a circuit board which in the bore is disposed so as to be substantially parallel to the central axis of the rolling body, the bore on the first end side is closed with a closure and the circuit board is fixed by the closure, characterized in that the rolling body has a measuring contact disposed in the bore, wherein the measuring contact is disposed on the bore wall and by way of a magnet is magnetically fixed to the bore wall. the bore is provided along a central axis of the rolling body, the rolling body has a circuit board which in the bore is disposed so as to be substantially parallel to the central axis of the rolling body, the bore on the first end side is closed with a closure and the circuit board is fixed by the closure, characterized in that the rolling body has a measuring contact disposed in the bore, wherein the measuring contact is disposed on the bore wall and by way of a magnet is magnetically fixed to the bore wall.
An apparatus for producing porous semiconductor on a plurality of semiconductor wafers (312, 314), comprising: an electrolyte-filled chamber, said chamber having multiple sections operable to open any close like a clam shell, and forming a seal when closed; an anode disposed at a first end of said chamber; a cathode disposed at an opposite end of said chamber, said anode and said cathode coupled to electrical circuitry capable of providing an electrical power comprising electrical voltage and current; an array of a plurality of semiconductor wafers (312, 314) arranged between said anode and said cathode in a tunnel, each of said wafers held in place by a wafer clamp securing the surface edge of said wafer and sealing the fluid filled compartment formed between each of said wafers with said tunnel; said anode and said cathode each having a region size smaller than the diagonal dimension of said wafer (312, 314), said anode and said cathode each facing a backside wall of said chamber and away from said array of said plurality of semiconductor wafers; and a plurality of vent holes in said chamber for allowing evolved byproduct gas to escape during anodization of said wafers (312. 314); wherein said wafer clamp comprises a first inner layer for minimal edge wrap around and a second outer harder flexible layer providing a seal around said wafer edge. an electrolyte-filled chamber, said chamber having multiple sections operable to open any close like a clam shell, and forming a seal when closed; an anode disposed at a first end of said chamber; a cathode disposed at an opposite end of said chamber, said anode and said cathode coupled to electrical circuitry capable of providing an electrical power comprising electrical voltage and current; an array of a plurality of semiconductor wafers (312, 314) arranged between said anode and said cathode in a tunnel, each of said wafers held in place by a wafer clamp securing the surface edge of said wafer and sealing the fluid filled compartment formed between each of said wafers with said tunnel; said anode and said cathode each having a region size smaller than the diagonal dimension of said wafer (312, 314), said anode and said cathode each facing a backside wall of said chamber and away from said array of said plurality of semiconductor wafers; and a plurality of vent holes in said chamber for allowing evolved byproduct gas to escape during anodization of said wafers (312. 314); wherein said wafer clamp comprises a first inner layer for minimal edge wrap around and a second outer harder flexible layer providing a seal around said wafer edge.
A method for generating a cryptographic key for protecting mobile communication between two entities (202, 204), wherein the method is carried out by the first entity (202, 302) as part of an Authentication and Key Agreement <AKA> procedure based on an UMTS AKA protocol initiated by the second entity (204, 304), the method comprising the steps of: - providing an input to a key derivation function, the input comprising at least two parameters (106, 108), wherein the first parameter comprises or is derived from a set of cryptographic keys (110, 112) having been computed by the first entity by running the UMTS AKA procedure, and the second parameter comprises or is derived from a token computed by the second entity (204, 304) by running the UMTS AKA procedure for the first entity (202, 302), wherein the first parameter comprises a concatenation of a cipher key <CK> and an integrity key <IK>; and - applying the key derivation function to generate the cryptographic key based on the provided input, wherein the cryptographic key is an Access Security Management Entity, ASME, key K ASME; wherein the token comprises or is derived from a sequence number <SQN> indicating the number of times the UMTS AKA procedure has been initiated by the second entity (204, 304) for the first entity (202, 302); wherein the input is unique each time the UMTS AKA procedure is initiated by the second entity (204, 304) for the first entity (202, 302); and wherein the token is the SQN or comprises an exclusive OR of the SQN and an anonymity key <AK>, wherein the AK is a cryptographic key produced by a key generation function f5 using a random challenge pursuant to the UMTS AKA protocol. - providing an input to a key derivation function, the input comprising at least two parameters (106, 108), wherein the first parameter comprises or is derived from a set of cryptographic keys (110, 112) having been computed by the first entity by running the UMTS AKA procedure, and the second parameter comprises or is derived from a token computed by the second entity (204, 304) by running the UMTS AKA procedure for the first entity (202, 302), wherein the first parameter comprises a concatenation of a cipher key <CK> and an integrity key <IK>; and - applying the key derivation function to generate the cryptographic key based on the provided input, wherein the cryptographic key is an Access Security Management Entity, ASME, key K ASME;
A method of carbonitriding at least one steel part comprising a first step during which said part is heated up to a first selected temperature, in an environment containing a neutral gas and under a selected pressure, a second step of nitrogen enrichment in a first enrichment chamber of said heated part, by α-phase nitriding at a second temperature, a third step of carbon enrichment in a second enrichment chamber of said nitrogen-enriched part by carburizing at a third temperature selected to be greater than said second temperature, and a fourth step during which said nitrogen- and carbon-enriched part is quenched under pressure, characterized in that the second temperature is selected to be lower than said first temperature.
A monitoring system for at least one peritoneal dialysis appliance, whereby the monitoring system receives from a peritoneal dialysis appliance to be monitored via a first data communication network traverse profile data, whereby the received data are stored with respect to a respective peritoneal dialysis appliance, whereby appliance specific at least individuals of the stored data are evaluated, whereby on basis of the evaluation an action selected from notifying a patient, notifying a medical specialized personnel, notifying a quality officer is executed via a second data communication network, whereby the peritoneal dialysis appliance to be monitored comprises a membrane pump, whereby vie evaluation of changes of the traverse profile data deterioration data of the membrane pump are determined.
A method of making an actuator comprising a plurality of force elements (100,101,102), the method comprising: providing a coupler for coupling force from the force elements to a load; the method being characterized by calculating a transfer function for each force element wherein each transfer function is a representation of a force amplitude applied by one of the force elements as a function of frequency, and the transfer functions allow the force (Fsum) provided to the load to be predicted; identifying dips in the predicted force when a uniform distribution of forces applied by each force element is used; deriving an error functional for minimising said dips in the predicted force, the error functional having the transfer functions and parameters of the force elements as inputs and providing an output value, wherein said parameters comprise the force applied (F1,F2,F3) by each force element; calculating a force applied (F1,F2,F3) by each force element which minimises the output value of the error functional, and coupling force elements configured to apply the calculated forces to the coupler to make the actuator. providing a coupler for coupling force from the force elements to a load; the method being characterized by calculating a transfer function for each force element wherein each transfer function is a representation of a force amplitude applied by one of the force elements as a function of frequency, and the transfer functions allow the force (Fsum) provided to the load to be predicted; identifying dips in the predicted force when a uniform distribution of forces applied by each force element is used; deriving an error functional for minimising said dips in the predicted force, the error functional having the transfer functions and parameters of the force elements as inputs and providing an output value, wherein said parameters comprise the force applied (F1,F2,F3) by each force element; calculating a force applied (F1,F2,F3) by each force element which minimises the output value of the error functional, and coupling force elements configured to apply the calculated forces to the coupler to make the actuator.
Apparatus for the off-line drying treatment, or dry out, of an inductor for billets, comprising a coil and a protection body made of refractory material defining a transit channel for the billets, wherein said apparatus comprises: a heating device comprising at least one electric resistance configured to transform the electrical energy received into radiant heat and to act as a false billet, wherein said electric resistance has size and characteristics correlated to the sizes and characteristics of a real billet intended to be made to pass in the transit channel of the inductor, with an oblong development along a longitudinal axis and located, during use, inside the transit channel of the inductor, a support structure configured to support said resistance cantilevered in such a way that its axis of longitudinal development is oriented substantially horizontally, wherein said inductor with its transit channel is positioned coaxial to said resistance which is located cantilevered with respect to a wall of said support structure, power supply devices configured to supply electrical energy to said heating device, and a control and command unit configured to command said power supply devices and regulate the functioning of said heating device according to a predefined program. a heating device comprising at least one electric resistance configured to transform the electrical energy received into radiant heat and to act as a false billet, wherein said electric resistance has size and characteristics correlated to the sizes and characteristics of a real billet intended to be made to pass in the transit channel of the inductor, with an oblong development along a longitudinal axis and located, during use, inside the transit channel of the inductor, a support structure configured to support said resistance cantilevered in such a way that its axis of longitudinal development is oriented substantially horizontally, wherein said inductor with its transit channel is positioned coaxial to said resistance which is located cantilevered with respect to a wall of said support structure, power supply devices configured to supply electrical energy to said heating device, and a control and command unit configured to command said power supply devices and regulate the functioning of said heating device according to a predefined program.
A portable electronic equipment, comprising: a gaze tracking device configured to track an eye gaze direction of a user in a time interval; a processing device coupled to the gaze tracking device and configured to: generate heat map data for the eye gaze direction, wherein the heat map data provide, for each one of a plurality of gaze points, information on the fraction of time within the time interval for which the user has been gazing towards this gaze point or towards an area (51 - 54) around this gaze point; generate saliency map data for a field of view of the user, wherein the heat map and the saliency map comprise a plurality of pixels and wherein the spatial resolution of pixels of the saliency map is greater than the one of the heat map; register the heat map data and the saliency map data against each other, so as to synchronize them in the spatial domain and have a unique correspondence between the pixels of the heat map and the pixels of the saliency map in the overlap region of the maps, to provide a combined data map; and identify at least one point of interest in the field of view based on the combined data map. a gaze tracking device configured to track an eye gaze direction of a user in a time interval; a processing device coupled to the gaze tracking device and configured to: generate heat map data for the eye gaze direction, wherein the heat map data provide, for each one of a plurality of gaze points, information on the fraction of time within the time interval for which the user has been gazing towards this gaze point or towards an area (51 - 54) around this gaze point; generate saliency map data for a field of view of the user, wherein the heat map and the saliency map comprise a plurality of pixels and wherein the spatial resolution of pixels of the saliency map is greater than the one of the heat map; register the heat map data and the saliency map data against each other, so as to synchronize them in the spatial domain and have a unique correspondence between the pixels of the heat map and the pixels of the saliency map in the overlap region of the maps, to provide a combined data map; and identify at least one point of interest in the field of view based on the combined data map. generate heat map data for the eye gaze direction, wherein the heat map data provide, for each one of a plurality of gaze points, information on the fraction of time within the time interval for which the user has been gazing towards this gaze point or towards an area (51 - 54) around this gaze point; generate saliency map data for a field of view of the user, wherein the heat map and the saliency map comprise a plurality of pixels and wherein the spatial resolution of pixels of the saliency map is greater than the one of the heat map; register the heat map data and the saliency map data against each other, so as to synchronize them in the spatial domain and have a unique correspondence between the pixels of the heat map and the pixels of the saliency map in the overlap region of the maps, to provide a combined data map; and identify at least one point of interest in the field of view based on the combined data map.