mhurhangee/ep-ind-claims huggingface dataset:
Insulation-time determining device for a thermally insulated container with a latent heat accumulator, characterised by: - an energy-calculating equipment for calculating the amount of thermal energy stored in the latent heat accumulator from at least one status parameter of the thermally insulated container or the interior thereof, - a display equipment for displaying the calculated amount of stored thermal energy or a value correlated therewith, - an input unit for entering an external temperature progression, and - an insulation-time calculating equipment, by means of which a maximum insulation time provided with a safety correction factor of the thermally insulated container can be calculated from the calculated amount of stored thermal energy or a value correlated therewith and the entered external temperature progression outside the thermally insulated container, during which maximum insulation time a specified temperature range is neither fallen below nor exceeded in the interior of the thermally insulated container. - an energy-calculating equipment for calculating the amount of thermal energy stored in the latent heat accumulator from at least one status parameter of the thermally insulated container or the interior thereof, - a display equipment for displaying the calculated amount of stored thermal energy or a value correlated therewith, - an input unit for entering an external temperature progression, and - an insulation-time calculating equipment, by means of which a maximum insulation time provided with a safety correction factor of the thermally insulated container can be calculated from the calculated amount of stored thermal energy or a value correlated therewith and the entered external temperature progression outside the thermally insulated container, during which maximum insulation time a specified temperature range is neither fallen below nor exceeded in the interior of the thermally insulated container.
An aqueous coating composition comprising at least one cathodically depositable binder for at least partly coating an electrically conductive substrate with an electrocoat material, the coating composition having a pH in a range from 4.0 to 6.5 and comprising a total amount of at least 30 ppm of bismuth, based on the total weight of the coating composition, characterized in that the aqueous coating composition is produced using at least 0.005% by weight of magnesium oxide particles, based on the total weight of the coating composition. at least one cathodically depositable binder for at least partly coating an electrically conductive substrate with an electrocoat material, the coating composition having a pH in a range from 4.0 to 6.5 and comprising a total amount of at least 30 ppm of bismuth, based on the total weight of the coating composition, characterized in that the aqueous coating composition is produced using at least 0.005% by weight of magnesium oxide particles, based on the total weight of the coating composition.
A spool assembly for a second stage of a servo valve comprising: a spool having an axis and an opening for a feedback member provided in a central region of the spool extending perpendicular to the axis; and an adjustable joint provided within the spool for securing a feedback member relative to the spool, comprising first and second jaw arms (122, 123) being displaceable relative to each other along the axis of the spool, the jaw arms having opposing clamping surfaces, characterised in that the clamping surfaces are arranged to be drawn towards each other as the jaw arms are drawn away from each other, such that a feedback member can be clamped between the opposed clamping surfaces of the jaw arms and thereby secured relative to the spool. a spool having an axis and an opening for a feedback member provided in a central region of the spool extending perpendicular to the axis; and an adjustable joint provided within the spool for securing a feedback member relative to the spool, comprising first and second jaw arms (122, 123) being displaceable relative to each other along the axis of the spool, the jaw arms having opposing clamping surfaces, characterised in that the clamping surfaces are arranged to be drawn towards each other as the jaw arms are drawn away from each other, such that a feedback member can be clamped between the opposed clamping surfaces of the jaw arms and thereby secured relative to the spool.
A liquid crystal display element comprising a liquid crystal layer, a first electrode and a second electrode, the first electrode and the second electrode facing each other with the liquid crystal layer sandwiched therebetween in the thickness direction of the liquid crystal layer, the first electrode is provided with a first slit penetrating in the thickness direction, the second electrode is provided with a second slit penetrating in the thickness direction, the first slit and the second slit are formed so as to be displaced from each other when viewed in the thickness direction, so that when voltage is applied to the first electrode and the second electrode, an electric field that has an inclination with respect to the thickness direction is generated, and characterized in that the contour of one end portion of the first slit is a substantially semicircular arc, or the contour of one end portion of the first slit has three or more corners, and among three or more corners, there is at most one corner with an angle of 90 degrees or less.
A conjugate comprising a lysosomal protein and a saccharide moiety being covalently linked thereto via a non-hydrophobic linker, said saccharide being selected from the group consisting of a mannose and a M6P, and said linker comprising a poly(alkylene glycol) chain of at least 18 atoms in length.
Grid sensor system for incorporation into a fluid flow-conducting system for characterizing the fluid flow, comprising: - a sensor component which has a grid sensor element with a plurality of electrodes (23, 25) which are arranged in a grid-like manner with the formation of crossover points and connector lines for electrical contacting of the electrodes, and - a flow guide with an inlet line for the inlet of the fluid flow, an outlet line for the outlet of the fluid flow, and a receptacle, arranged between the inlet line and the outlet line, for receiving the sensor component, - the flow guide being configured in such a way that a rectilinear flow path which runs from the inlet line through the receptacle to the outlet line is formed by it, characterized in that - the sensor component is configured as a sensor slide-in unit and the receptacle is configured as a slide-in receptacle, the slide-in receptacle having a slide-in opening and a slide-in guide which is configured as a linear guide, and being configured in such a way that a slide-in direction which is defined by means of the linear guide and runs transversely with respect to the flow path is defined by it, and the sensor slide-in unit can be slid into the slide-in receptacle through the slide-in opening along the defined slide-in direction (y), and - the sensor slide-in unit is configured in such a way that none of the electrodes (23, 25) runs parallel to the slide-in direction (y) when the sensor slide-in unit is received in the slide-in receptacle. - a sensor component which has a grid sensor element with a plurality of electrodes (23, 25) which are arranged in a grid-like manner with the formation of crossover points and connector lines for electrical contacting of the electrodes, and - a flow guide with an inlet line for the inlet of the fluid flow, an outlet line for the outlet of the fluid flow, and a receptacle, arranged between the inlet line and the outlet line, for receiving the sensor component, - the flow guide being configured in such a way that a rectilinear flow path which runs from the inlet line through the receptacle to the outlet line is formed by it, characterized in that - the sensor component is configured as a sensor slide-in unit and the receptacle is configured as a slide-in receptacle, the slide-in receptacle having a slide-in opening and a slide-in guide which is configured as a linear guide, and being configured in such a way that a slide-in direction which is defined by means of the linear guide and runs transversely with respect to the flow path is defined by it, and the sensor slide-in unit can be slid into the slide-in receptacle through the slide-in opening along the defined slide-in direction (y), and - the sensor slide-in unit is configured in such a way that none of the electrodes (23, 25) runs parallel to the slide-in direction (y) when the sensor slide-in unit is received in the slide-in receptacle.
A communication control method in an image forming system which comprises a plurality of applications and an image forming apparatus and in which at least a print job described in Job Definition Format code is transmitted from said applications to said image forming apparatus and a message described in Job Messaging Format code is exchanged between said applications and said image forming apparatus, said method comprising the steps of: specifying an application based on a description of at least one of said print job and said message associated with said print job, transmitted from any of said applications to said image forming apparatus; managing rules of describing said print job for dynamic values added to said print job, together with operations associated with said dynamic values; and analyzing said print job according to said rules managed for said specified application, so as to recognize the dynamic value, and performing the operations associated with the recognized dynamic value, wherein the operations contain an operation of adding the dynamic value to a JMF message of response or notification, when the message of response or notification is to be transmitted to said specified application. specifying an application based on a description of at least one of said print job and said message associated with said print job, transmitted from any of said applications to said image forming apparatus; managing rules of describing said print job for dynamic values added to said print job, together with operations associated with said dynamic values; and analyzing said print job according to said rules managed for said specified application, so as to recognize the dynamic value, and performing the operations associated with the recognized dynamic value, wherein the operations contain an operation of adding the dynamic value to a JMF message of response or notification, when the message of response or notification is to be transmitted to said specified application.
A method of correcting a pitch angle deviation of a blade of a wind turbine, the wind turbine comprising a plurality of blades, the method comprising: providing first blade load measurements for each blade of the plurality of blades, the first blade load measurements measured when the wind turbine was operating in a first operational mode; determining calibration parameters to correct for differences between the first blade load measurements of the blades; providing second blade load measurements for each blade, the second measurements measured when the wind turbine was operating in a second operational mode, wherein a wind speed experienced by the wind turbine is lower during the first operational mode than during the second operational mode; applying the calibration parameters to the second blade load measurements to determine calibrated blade load measurements; identifying a difference between the calibrated blade load measurements of the blades; estimating a pitch angle deviation of at least one blade responsible for the identified difference; and altering a pitch angle of the at least one of the blades to correct for the pitch angle deviation, wherein identifying a difference between the calibrated blade load measurements of the blades comprises binning the calibrated blade load measurements for each blade according to a wind speed or pitch angle associated with each measurement. providing first blade load measurements for each blade of the plurality of blades, the first blade load measurements measured when the wind turbine was operating in a first operational mode; determining calibration parameters to correct for differences between the first blade load measurements of the blades; providing second blade load measurements for each blade, the second measurements measured when the wind turbine was operating in a second operational mode, wherein a wind speed experienced by the wind turbine is lower during the first operational mode than during the second operational mode; applying the calibration parameters to the second blade load measurements to determine calibrated blade load measurements; identifying a difference between the calibrated blade load measurements of the blades; estimating a pitch angle deviation of at least one blade responsible for the identified difference; and altering a pitch angle of the at least one of the blades to correct for the pitch angle deviation, wherein identifying a difference between the calibrated blade load measurements of the blades comprises binning the calibrated blade load measurements for each blade according to a wind speed or pitch angle associated with each measurement.
An aircraft comprising: a throttle having a throttle position; a fuel switch having an on position and an off position; a fuel cutoff valve operative to cut off a fuel supply in response to a fuel cutoff control signal; a combustion turbine engine having a fuel supply provided through the fuel cutoff valve and having a fuel supply rate proportional to the throttle position; and a processor operative to generate the fuel cutoff control signal in response to the fuel switch being in the off position and the throttle position being less than a throttle position threshold, the processor being further operative to generate a warning signal in response to the throttle position exceeding the throttle position threshold and the fuel switch being in the off position. a throttle having a throttle position; a fuel switch having an on position and an off position; a fuel cutoff valve operative to cut off a fuel supply in response to a fuel cutoff control signal; a combustion turbine engine having a fuel supply provided through the fuel cutoff valve and having a fuel supply rate proportional to the throttle position; and a processor operative to generate the fuel cutoff control signal in response to the fuel switch being in the off position and the throttle position being less than a throttle position threshold, the processor being further operative to generate a warning signal in response to the throttle position exceeding the throttle position threshold and the fuel switch being in the off position. a combustion turbine engine having a fuel supply provided through the fuel cutoff valve and having a fuel supply rate proportional to the throttle position; and a processor operative to generate the fuel cutoff control signal in response to the fuel switch being in the off position and the throttle position being less than a throttle position threshold, the processor being further operative to generate a warning signal in response to the throttle position exceeding the throttle position threshold and the fuel switch being in the off position.
A method for preparing a psicose-containing product from a fructose-containing substrate by a reaction using an immobilized biocatalyst for producing a psicose, wherein the immobilized biocatalyst is a psicose epimerase enzyme, or a microbial cell producing a psicose epimerase which is immobilized in a bead, wherein the biocatalyst converts 20% to 29% of the fructose to psicose from the fructose-containing substrate comprising 75 to 95% by weight of fructose at a reaction temperature of 50 to 60 °C within one hour, wherein the reaction is performed at the reaction flow rate of 8.5 to 20 times the reaction flow rate at which the psicose contained in the psicose-containing product is produced at an amount of 25% by weight or higher with respect to 100% by weight solid content of the total saccharides in the psicose-containing product, wherein the total solid content of psicose and glucose is lower than 20% by weight, with respect to 100% by weight of solid content of psicose, glucose and fructose contained in the psicose-containing product, and wherein the content of psicose in the psicose-containing product is 4 % to 29 % by weight, when the total content of fructose, glucose and psicose is 100 % by weight.
A method for enforcing flow control of a software program in a processor, the method comprising: analyzing program code of the software program to identify a code pointer in the program code; generating an authentication tag for authenticating the code pointer at some point during the execution of the program code, wherein generating the authentication tag comprises applying a cryptographic algorithm to the code pointer, wherein inputs to the cryptographic algorithm include the code pointer, a secret key associated with the processor and context information associated with an execution environment associated with the program code; and modifying the code pointer in the program code with the authentication tag to generate a tagged code pointer. analyzing program code of the software program to identify a code pointer in the program code; generating an authentication tag for authenticating the code pointer at some point during the execution of the program code, wherein generating the authentication tag comprises applying a cryptographic algorithm to the code pointer, wherein inputs to the cryptographic algorithm include the code pointer, a secret key associated with the processor and context information associated with an execution environment associated with the program code; and modifying the code pointer in the program code with the authentication tag to generate a tagged code pointer.
A method for determining when access control of an electronic lock, controlling access to a restricted physical space, should be performed, the method being performed in an intent determiner and comprising the steps of: obtaining movement data from a first sensor of a portable key device, the movement data indicating movement of the portable key device; obtaining a distance indicator from a second sensor, the distance indicator being indicative of distance between the electronic lock and the user; determining when there is user intent to open based on both the movement data and the distance indicator, which comprises determining user intent to open only when the movement data indicates a deceleration peak and the distance indicator indicates a deceleration peak, and the deceleration peaks correspond to each other in time, and when the movement data indicates a stop in motion of the key device and the distance indicator indicates a stop in motion of the user, and the stops correspond to each other in time; and triggering access control to be performed only when user intent has been determined. obtaining movement data from a first sensor of a portable key device, the movement data indicating movement of the portable key device; obtaining a distance indicator from a second sensor, the distance indicator being indicative of distance between the electronic lock and the user; determining when there is user intent to open based on both the movement data and the distance indicator, which comprises determining user intent to open only when the movement data indicates a deceleration peak and the distance indicator indicates a deceleration peak, and the deceleration peaks correspond to each other in time, and when the movement data indicates a stop in motion of the key device and the distance indicator indicates a stop in motion of the user, and the stops correspond to each other in time; and triggering access control to be performed only when user intent has been determined.
A method for the protection of seeding material and germinating plants from infestation with phytopathogenic fungi, characterized in that the seeds are coated with a fungicidal combination of active substances containing fluoxastrobin and metalaxyl-M, in which the mixing ratio of fluoxastrobin to metalaxyl-M is 5:1 to 1:100, based on the weight ratio, and the phytopathogenic fungi are seed- and soil-borne rotting and wilting pathogens as well as seedling diseases, caused by Fusarium culmorum, Phytophthora cactorum, Pythium ultimum, Rhizoctonia solani, Sclerotium rolfsii.
Fuel cell device having a fuel cell unit which has at least one anode and at least one cathode, having at least one anode gas processor which has at least one first heat exchanger, and having at least one cathode gas processor which has at least one second heat exchanger, wherein the at least one first heat exchanger and the at least one second heat exchanger are each of spiral-shaped form, wherein the at least one first heat exchanger and the at least one second heat exchanger form at least a part of a structural unit, characterized by at least one separating element which is provided for fluidically separating the at least one first heat exchanger from the at least one second heat exchanger.
An image forming apparatus arranged to carry out position adjustment, of a side edge of a sheet, in a width direction intersecting with a sheet conveying direction, while conveying the sheet, and wherein the image forming apparatus comprises an image forming portion arranged to form an image on the sheet, the image forming apparatus further comprising: a first conveying portion (120a, 121a) positioned upstream of the image forming portion in the sheet conveying direction, wherein the first conveying portion is operable to vary its conveying angle with respect to the sheet conveying direction and conveying velocity; a second conveying portion (120b, 121b) positioned downstream of the first conveying portion and upstream of the image forming portion in the sheet conveying direction wherein the second conveying portion is operable to vary its conveying angle with respect to the sheet conveying direction and conveying velocity; a plurality of side edge position detectors (100a, 100b) each in a position corresponding to one of the first and second conveying portions and arranged to respectively detect a side edge position of the sheet in the width direction; and a controlling portion arranged to obtain a differential value between the side edge position detected by the side edge position detector and a target position of the side edge of the sheet for each of the first and second conveying portions, and arranged to control the conveying angle and the conveying velocity of each conveying portion according to the differential value. a first conveying portion (120a, 121a) positioned upstream of the image forming portion in the sheet conveying direction, wherein the first conveying portion is operable to vary its conveying angle with respect to the sheet conveying direction and conveying velocity; a second conveying portion (120b, 121b) positioned downstream of the first conveying portion and upstream of the image forming portion in the sheet conveying direction wherein the second conveying portion is operable to vary its conveying angle with respect to the sheet conveying direction and conveying velocity; a plurality of side edge position detectors (100a, 100b) each in a position corresponding to one of the first and second conveying portions and arranged to respectively detect a side edge position of the sheet in the width direction; and a controlling portion arranged to obtain a differential value between the side edge position detected by the side edge position detector and a target position of the side edge of the sheet for each of the first and second conveying portions, and arranged to control the conveying angle and the conveying velocity of each conveying portion according to the differential value.