mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting a food spoilage microbe in a food sample comprising: a) adding a first pH adjustment agent to a food sample to provide a food sample having a pH in the range of pH 1 to 5, separating any solid precipitate present in the pH adjusted food sample to provide a pH adjusted food sample, adding a second pH adjustment agent to the pH adjusted food sample to provide a food sample having a pH in the range of pH 6.5-9 to be used in step b), b) contacting a food sample with a peptide substrate, wherein the peptide substrate comprises a peptide comprising a fluorescent agent having an emission wavelength of 650-900 nm, a non-fluorescent agent having an absorption wavelength of 650-900 nm, for quenching said emission of said fluorescent agent, and a cleavage site located between said fluorescent agent and first non-fluorescent agent, the cleavage site cleavable by a protease specifically provided by a food spoilage microbe belonging to a first group consisting of a limited number of microbial strains, species or genera, and not cleaved by any compound provided by any microbe not belonging to said first group of food spoilage microbes, c) monitoring the fluorescence of the sample containing the peptide substrate in step b), wherein an increase in fluorescence is indicative for the presence of a food spoilage microbe belonging to said first group, wherein the food sample is a dairy product. a) adding a first pH adjustment agent to a food sample to provide a food sample having a pH in the range of pH 1 to 5, separating any solid precipitate present in the pH adjusted food sample to provide a pH adjusted food sample, adding a second pH adjustment agent to the pH adjusted food sample to provide a food sample having a pH in the range of pH 6.5-9 to be used in step b), b) contacting a food sample with a peptide substrate, wherein the peptide substrate comprises a peptide comprising a fluorescent agent having an emission wavelength of 650-900 nm, a non-fluorescent agent having an absorption wavelength of 650-900 nm, for quenching said emission of said fluorescent agent, and a cleavage site located between said fluorescent agent and first non-fluorescent agent, the cleavage site cleavable by a protease specifically provided by a food spoilage microbe belonging to a first group consisting of a limited number of microbial strains, species or genera, and not cleaved by any compound provided by any microbe not belonging to said first group of food spoilage microbes, c) monitoring the fluorescence of the sample containing the peptide substrate in step b), wherein an increase in fluorescence is indicative for the presence of a food spoilage microbe belonging to said first group,
A control unit for preventing an undesired vehicle motion during an automatic switch-off process of a drive machine in a motor vehicle, wherein an automatic switch-off process is initiated by means of a start-stop apparatus if the motor vehicle is braked because of a deceleration request, characterised in that an automatic switch-off process is initiated by means of the start-stop apparatus before the standstill is reached if the motor vehicle is braked because of a deceleration request and more especially the speed of the vehicle is less than a specified first speed threshold, such that the drive machine is switched off approximately when the vehicle standstill is reached, said control unit comprising - means for capturing a first signal (Tv0<T1) indicating that the vehicle standstill will soon be reached, - means for capturing a second signal (sdme) indicating that an inability of the drive machine to operate in a self-sustaining manner will soon be reached because of an initiated automatic switch-off process of the drive machine, and - means (&) for prompting a brake pressure of a suitable level to be confined in the braking system if the first signal (Tv0<T1) and second signal (sdme) are captured. - means for capturing a first signal (Tv0<T1) indicating that the vehicle standstill will soon be reached, - means for capturing a second signal (sdme) indicating that an inability of the drive machine to operate in a self-sustaining manner will soon be reached because of an initiated automatic switch-off process of the drive machine, and - means (&) for prompting a brake pressure of a suitable level to be confined in the braking system if the first signal (Tv0<T1) and second signal (sdme) are captured.
A method for controlling a wind turbine comprising a hydraulic pitch force system wherein the hydraulic pitch force system is controlled so as to reduce or eliminate a decrease in hydraulic oil pressure if a hydraulic system parameter value is outside a hydraulic system parameter range, the method comprising: - Obtaining the hydraulic system parameter value, - operating the hydraulic pitch force system according to a reduced mode if the hydraulic system parameter value is outside the hydraulic system parameter range, wherein in the reduced mode: - One or more pitch based activities are reduced or suspended, characterized in that in the reduced mode the method further comprises: - Operating the wind turbine in a derated mode, wherein in the derated mode: - A speed and/or power is limited in order to reduce structural loads on the wind turbine. - Obtaining the hydraulic system parameter value, - operating the hydraulic pitch force system according to a reduced mode if the hydraulic system parameter value is outside the hydraulic system parameter range, - One or more pitch based activities are reduced or suspended, - Operating the wind turbine in a derated mode, - A speed and/or power is limited in order to reduce structural loads on the wind turbine.
A method for analyzing hemoglobin in a sample solution containing hemoglobin by electrophoresis, the method comprising: performing electrophoresis of the sample solution under conditions in which an acidic substance having two or more carboxyl groups is present in an electrophoresis solution, wherein at least two of the carboxyl groups of the acidic substance each have an acid dissociation constant (pK a) lower than the pH of the electrophoresis solution at the time of analysis, wherein said sample solution is introduced into said electrophoresis solution prior to performing electrophoresis, wherein the electrophoresis solution contains a buffer and a separation enhancing agent, and the separation enhancing agent contains the acidic substance and the buffer substance in the buffer is not the acidic substance, wherein the method separates hemoglobin by electrophoresis and the separation is carried out in a separation capillary channel, characterised by the acidic substance having a cyclohexane ring or being a cyclohexanecarboxylic acid. performing electrophoresis of the sample solution under conditions in which an acidic substance having two or more carboxyl groups is present in an electrophoresis solution, wherein at least two of the carboxyl groups of the acidic substance each have an acid dissociation constant (pK a) lower than the pH of the electrophoresis solution at the time of analysis, wherein said sample solution is introduced into said electrophoresis solution prior to performing electrophoresis, wherein the electrophoresis solution contains a buffer and a separation enhancing agent, and the separation enhancing agent contains the acidic substance and the buffer substance in the buffer is not the acidic substance, wherein the method separates hemoglobin by electrophoresis and the separation is carried out in a separation capillary channel, characterised by the acidic substance having a cyclohexane ring or being a cyclohexanecarboxylic acid.
A light emitting module comprising: a light emitting device (512,715); a metal submount (500,700) grown using a method selected from electroplating, electroforming, electrodeposition and electroless metal plating; an electrical isolation layer interdisposed between the grown metal submount (500,700) and a light emitting region (404,708) of the light emitting device (512,715); and, a deposited metal seed layer (501,701), on which the metal submount is grown, disposed between the electrical isolation layer and the grown metal submount, characterised in that the module further comprises a former at least partially disposed within the grown metal submount (500,700) and conjoined therewith, the former comprising regions of different material than the metal submount (500,700) adapted to provide a predetermined thermal conduction path for the spreading of heat generated in the light emitting device (512,715), whereby the thermal resistance of the light emitting module is below 2 K/W. a light emitting device (512,715); a metal submount (500,700) grown using a method selected from electroplating, electroforming, electrodeposition and electroless metal plating; an electrical isolation layer interdisposed between the grown metal submount (500,700) and a light emitting region (404,708) of the light emitting device (512,715); and, a deposited metal seed layer (501,701), on which the metal submount is grown, disposed between the electrical isolation layer and the grown metal submount, characterised in that the module further comprises a former at least partially disposed within the grown metal submount (500,700) and conjoined therewith, the former comprising regions of different material than the metal submount (500,700) adapted to provide a predetermined thermal conduction path for the spreading of heat generated in the light emitting device (512,715), whereby the thermal resistance of the light emitting module is below 2 K/W.
A static reactive jet mixer including a fluid-receiving chamber for mixing a first component comprising phosgene and a second component comprising amine and a first conduit extending through the fluid-receiving chamber for transporting the first component from an inlet to an outlet, the static reactive jet mixer comprising: a first row of nozzles for the passage of the second component, disposed radially around the first conduit between the inlet and the outlet, and an enrichment system for curing a deficit in the first component at a mixing point in the fluid-receiving chamber including a second row of nozzles for the passage of the first component, wherein each nozzle of the second row of nozzles is located within a nozzle of the first row of nozzles to enrich a phosgene deficient region; characterized in that the fluid receiving chamber is a continuous cylinder hollowed by the first conduit having an external circumferential wall between an external area of the chamber, and an internal area of the chamber wherein the first row of nozzles perforates the external wall for the passage of the second component from the external area into the internal area for mixing with the first component; and wherein the first and second rows of nozzles are concentric, wherein the first row of nozzles is connected to a longitudinal conduit within the external circumferential wall of the fluid receiving chamber and wherein the second row of nozzles is perpendicular to the external circumferential wall. a first row of nozzles for the passage of the second component, disposed radially around the first conduit between the inlet and the outlet, and an enrichment system for curing a deficit in the first component at a mixing point in the fluid-receiving chamber including a second row of nozzles for the passage of the first component, wherein each nozzle of the second row of nozzles is located within a nozzle of the first row of nozzles to enrich a phosgene deficient region; characterized in that the fluid receiving chamber is a continuous cylinder hollowed by the first conduit having an external circumferential wall between an external area of the chamber, and an internal area of the chamber wherein the first row of nozzles perforates the external wall for the passage of the second component from the external area into the internal area for mixing with the first component; and wherein the first and second rows of nozzles are concentric, wherein the first row of nozzles is connected to a longitudinal conduit within the external circumferential wall of the fluid receiving chamber and wherein the second row of nozzles is perpendicular to the external circumferential wall.
A computer-implemented method for authenticating users of personal computing devices using encoded versions of temporary and unique codes, the method comprising: receiving a first cryptographic key at a security service, the first cryptographic key having been created by a personal computing device and corresponding to a second cryptographic key maintained on the personal computing device; associating by the security service a user identifier with the first cryptographic key; accessing a temporary and unique code by the security service; accessing an encoded version of the temporary and unique code by the security service; making available, by the security service to the personal computing device, the encoded version of the temporary and unique code; wherein the personal computing device is configured to decode the encoded version of the temporary and unique code to yield the temporary and unique code, to obtain biometric data from a user of the personal computing device, and to decrypt the second cryptographic key based on the obtained biometric data; receiving, by the security service from the personal computing device, a signed version of the temporary and unique code, the signed version having been signed by the second cryptographic key; verifying, by the security service using the first cryptographic key, the signed version of the temporary and unique code; and determining, by the security service based on the verifying, whether to authenticate the user of the personal computing device. receiving a first cryptographic key at a security service, the first cryptographic key having been created by a personal computing device and corresponding to a second cryptographic key maintained on the personal computing device; associating by the security service a user identifier with the first cryptographic key; accessing a temporary and unique code by the security service; accessing an encoded version of the temporary and unique code by the security service; making available, by the security service to the personal computing device, the encoded version of the temporary and unique code; wherein the personal computing device is configured to decode the encoded version of the temporary and unique code to yield the temporary and unique code, to obtain biometric data from a user of the personal computing device, and to decrypt the second cryptographic key based on the obtained biometric data; receiving, by the security service from the personal computing device, a signed version of the temporary and unique code, the signed version having been signed by the second cryptographic key; verifying, by the security service using the first cryptographic key, the signed version of the temporary and unique code; and determining, by the security service based on the verifying, whether to authenticate the user of the personal computing device.
Commercial vehicle brake disc comprising at least one friction disc having a friction surface, wherein the friction disc has at least one recess which forms a contour on the friction surface, characterised in that that the contour or the course of the contour is interrupted by at least one clearance, wherein the clearance has a round, in particular a circular, cross-section.
Optically pumped atomic clock comprising: - an optically pumped atomic resonator provided with a vacuum-tight envelope equipped with optical interfaces and comprising, inside the vacuum-tight envelope: - a resonant cavity, - optical mirrors, and - caesium traps made of graphite, and - outside the vacuum-tight envelope: - a vacuum pump, - a magnetic shield, - a magnetic field coil, - an RF cable, - a caesium oven, and - an interface for connection with the caesium oven. - an optically pumped atomic resonator provided with a vacuum-tight envelope equipped with optical interfaces and comprising, inside the vacuum-tight envelope: - a resonant cavity, - optical mirrors, and - caesium traps made of graphite, and - outside the vacuum-tight envelope: - a vacuum pump, - a magnetic shield, - a magnetic field coil, - an RF cable, - a caesium oven, and - an interface for connection with the caesium oven.
A wireless communication method for an access network device or a chip of the access network device, comprising: sending, a user equipment, UE, capability information enquiry message to a terminal device; receiving, a plurality of first response messages from the terminal device in response to the UE capability information enquiry message, wherein each of the plurality of first response messages comprises a segment of UE capability information; and the UE capability information enquiry message comprises first indication information, wherein the first indication information indicates that the UE capability information is allowed to be sent by the plurality of first response messages. sending, a user equipment, UE, capability information enquiry message to a terminal device; receiving, a plurality of first response messages from the terminal device in response to the UE capability information enquiry message, wherein each of the plurality of first response messages comprises a segment of UE capability information; and the UE capability information enquiry message comprises first indication information, wherein the first indication information indicates that the UE capability information is allowed to be sent by the plurality of first response messages.
A heart monitoring or therapy device for detecting and quantifying fusion beats, said device comprising - an IEGM signal sensing channel that puts out a recorded IEGM signal showing at least prominent ventricular components and - an evaluation unit operatively connected to said IEGM signal sensing channel and being configured to detect fusion beats, wherein said evaluation unit comprises or is connected to at least one template memory comprising at least a first template electrogram signal representing an intrinsic beat and a second template electrogram signal representing a captured beat, and wherein said evaluation unit is further configured - to compare the recorded IEGM signal with both, said first and said second template electrogram signal and to determine two degrees of similarity for the recorded IEGM signal: - a first degree of similarity reflecting the similarities between the recorded electrogram signal and the first template electrogram signal and - a second degree of similarity reflecting the similarities between the recorded electrogram signal and the second template electrogram signal, wherein - two adaptive signed correlation index (ASCI) values (ASCI cap and ASCI int) are used to measure the two degrees of similarity, wherein - said evaluation unit is further configured to calculate a fusion index FI from said two ASCI values, wherein said fusion index FI characterizes a degree of fusion in a quantitative manner. - an IEGM signal sensing channel that puts out a recorded IEGM signal showing at least prominent ventricular components and - an evaluation unit operatively connected to said IEGM signal sensing channel and being configured to detect fusion beats, - to compare the recorded IEGM signal with both, said first and said second template electrogram signal and to determine two degrees of similarity for the recorded IEGM signal: - a first degree of similarity reflecting the similarities between the recorded electrogram signal and the first template electrogram signal and - a second degree of similarity reflecting the similarities between the recorded electrogram signal and the second template electrogram signal, wherein - two adaptive signed correlation index (ASCI) values (ASCI cap and ASCI int) are used to measure the two degrees of similarity, wherein - said evaluation unit is further configured to calculate a fusion index FI from said two ASCI values, wherein said fusion index FI characterizes a degree of fusion in a quantitative manner.
Device for automatic control of buoyancy, heel, trim, depth and altitude in submersible vehicles, comprising: 3 or more non-pressurised tanks of liquid ballast, each with an air inlet valve and an air outlet valve, with electrically controlled opening and closing; an electronic control unit for independent opening and closing of the air inlet and outlet valves of the tanks of liquid ballast; a reservoir for storing compressed air connected to the air inlet valves of the tanks of liquid ballast; wherein said tanks of liquid ballast comprise a free communication with the exterior of the submersible vehicle via one or more holes placed on the inferior part of the tank; and wherein said tanks of liquid ballast are to be in different sections of the submersible vehicle placed along two directions of the horizontal plane of the submersible vehicle; the device being arranged to conjugate the automatic maintenance of neutral buoyancy with the automatic correction of heel and trim angles. 3 or more non-pressurised tanks of liquid ballast, each with an air inlet valve and an air outlet valve, with electrically controlled opening and closing; an electronic control unit for independent opening and closing of the air inlet and outlet valves of the tanks of liquid ballast; a reservoir for storing compressed air connected to the air inlet valves of the tanks of liquid ballast;
A semiconductor module, comprising: a first circuit carrier comprising one or more heat generating elements mounted on an upper surface of the first circuit carrier; a second circuit carrier mounted over the first circuit carrier and being vertically spaced apart from the upper surface of the first circuit carrier; a temperature sensor that is fixedly attached to the second circuit carrier and is arranged in a vertical space between the lower surface of the second circuit carrier and the upper surface of the first circuit carrier; and a plurality of elements (114, 126) extending from the upper surface of the first circuit carrier towards the second circuit carrier, and supporting the second circuit carrier, wherein the temperature sensor is arranged in sufficient proximity to a first one of the heat generating elements to obtain a direct temperature measurement from the first one of the heat generating elements, and wherein the semiconductor module further comprises a dielectric material that fills a space between the temperature sensor and the first one of the heat generating elements, wherein the dielectric material is a potting compound that encapsulates each of the one or more heat generating elements. a first circuit carrier comprising one or more heat generating elements mounted on an upper surface of the first circuit carrier; a second circuit carrier mounted over the first circuit carrier and being vertically spaced apart from the upper surface of the first circuit carrier; a temperature sensor that is fixedly attached to the second circuit carrier and is arranged in a vertical space between the lower surface of the second circuit carrier and the upper surface of the first circuit carrier; and a plurality of elements (114, 126) extending from the upper surface of the first circuit carrier towards the second circuit carrier, and supporting the second circuit carrier, wherein the temperature sensor is arranged in sufficient proximity to a first one of the heat generating elements to obtain a direct temperature measurement from the first one of the heat generating elements, and wherein the semiconductor module further comprises a dielectric material that fills a space between the temperature sensor and the first one of the heat generating elements, wherein the dielectric material is a potting compound that encapsulates each of the one or more heat generating elements.