mhurhangee/ep-ind-claims huggingface dataset:
A method of managing electronic safes comprising a step of: authenticating a user requesting access to an electronic safe (CF U), via a web portal among a plurality of web portals hosted respectively on a plurality of servers, by means of authentication data of said the user; wherein the authentification data, to be provided by said user" are dependant of an entity (P A; P B) by means of which the user is requesting said access; wherein said method further comprises, when the user requests for the first time an access to the electronic safe by means of an entity among the first (P A) and the second (P B) entities, a step of transmitting authentication data to a terminal of the user in view of storing said authentication data in a hardware security module (CP UA, CP UB) assigned to the user and associated specifically with said first entity, wherein the authentication data transmitted in view of being stored in the hardware security module associated with the first web portal is different from authentication data transmitted in view of being stored in the hardware security module associated with a second entity. authenticating a user requesting access to an electronic safe (CF U), via a web portal among a plurality of web portals hosted respectively on a plurality of servers, by means of authentication data of said the user; wherein the authentification data, to be provided by said user" are dependant of an entity (P A; P B) by means of which the user is requesting said access; wherein said method further comprises, when the user requests for the first time an access to the electronic safe by means of an entity among the first (P A) and the second (P B) entities, a step of transmitting authentication data to a terminal of the user in view of storing said authentication data in a hardware security module (CP UA, CP UB) assigned to the user and associated specifically with said first entity, wherein the authentication data transmitted in view of being stored in the hardware security module associated with the first web portal is different from authentication data transmitted in view of being stored in the hardware security module associated with a second entity.
A method of producing a stable spray-dried flavor composition, the method comprising preparing an emulsion from a flavor composition comprising a flavor that contains volatile compounds; a solvent; a carrier material; and an emulsifier or surfactant, wherein the flavor and the carrier material comprise between 40% and 70% by weight of the emulsion, spray drying the emulsion in a spray dryer having an inlet temperature of less than 100°C and an air inlet dew point -10°C to 5°C, wherein the volatile compounds are present in the spray-dried flavor composition in an amount that is at least 20% of the volatile compounds originally contained in the flavor, and wherein the spray-dried flavor composition further comprises between 0.2% to 0.5% quillaja extract as an emulsifier.
An aroma composition, comprising: a Matthiola incana fragrance ingredient; and an artificial aroma ingredient, wherein the artificial aroma ingredient includes one or two or more selected from the group consisting of hedione, ethylene brassylate and benzyl salicylate. a Matthiola incana fragrance ingredient; and an artificial aroma ingredient, wherein the artificial aroma ingredient includes one or two or more selected from the group consisting of hedione, ethylene brassylate and benzyl salicylate.
A developing device comprising: developing means including a developer bearing member and a developing frame member, the developing frame member being configured to support the developer bearing member; an end supporting member (38; 48) configured to pivotably support the developing means on one end side in an axis direction of the developer bearing member; an other-end supporting member configured to pivotably support the developing means on the other end side in the axis direction; a first shaft provided on the developing means; a second shaft provided either in the developing means or in the other-end supporting member; a first hole (38a; 48a) provided in the end supporting member (38; 48), the first hole (38a; 48a) configured to support the first shaft so that the developing means pivots about the first shaft and the second shaft, and also configured to allow the first shaft to move in a direction intersecting the axis direction; a second hole provided in the other of the developing means and the other-end supporting member, the second hole being configured to support the second shaft so that the developing means pivots about the first shaft and the second shaft, and also being configured to restrain the second shaft from moving in the direction intersecting the axis direction; and a biasing member (40: 41, 140) configured to bias the first shaft in the direction intersecting the axis direction. developing means including a developer bearing member and a developing frame member, the developing frame member being configured to support the developer bearing member; an end supporting member (38; 48) configured to pivotably support the developing means on one end side in an axis direction of the developer bearing member; an other-end supporting member configured to pivotably support the developing means on the other end side in the axis direction; a first shaft provided on the developing means; a second shaft provided either in the developing means or in the other-end supporting member; a first hole (38a; 48a) provided in the end supporting member (38; 48), the first hole (38a; 48a) configured to support the first shaft so that the developing means pivots about the first shaft and the second shaft, and also configured to allow the first shaft to move in a direction intersecting the axis direction; a second hole provided in the other of the developing means and the other-end supporting member, the second hole being configured to support the second shaft so that the developing means pivots about the first shaft and the second shaft, and also being configured to restrain the second shaft from moving in the direction intersecting the axis direction; and a biasing member (40: 41, 140) configured to bias the first shaft in the direction intersecting the axis direction.
Measurement system for the estimation of a number of similar objects randomly arranged in a storage space, comprising - a 3D scan measurement unit for the acquisition of 3D scan data, - a database including object data concerning the objects, and - an evaluation unit, which is configured to ∘ approximate a volume of the content of the storage space with the aid of the 3D scan data acquired with the 3D scan measurement unit, and ∘ with the aid ▪ of the approximated volume of the content of the storage space and ▪ of the object data included by the database concerning the objects to estimate the number of objects in the storage space. - a 3D scan measurement unit for the acquisition of 3D scan data, - a database including object data concerning the objects, and - an evaluation unit, which is configured to ∘ approximate a volume of the content of the storage space with the aid of the 3D scan data acquired with the 3D scan measurement unit, and ∘ with the aid ▪ of the approximated volume of the content of the storage space and ▪ of the object data included by the database concerning the objects to estimate the number of objects in the storage space. ∘ approximate a volume of the content of the storage space with the aid of the 3D scan data acquired with the 3D scan measurement unit, and ∘ with the aid ▪ of the approximated volume of the content of the storage space and ▪ of the object data included by the database concerning the objects to estimate the number of objects in the storage space. ▪ of the approximated volume of the content of the storage space and ▪ of the object data included by the database concerning the objects to estimate the number of objects in the storage space.
A method of manufacturing a fuel cell stack comprising the steps of: a) providing flow channels (26, 28) in a fuel cell plate (22, 24), wherein step a) includes forming flow channels (26, 28) that extend to an edge of an outer perimeter of the fuel cell plate (22, 24); b) joining multiple fuel cell plates (22, 24) into a cell stack assembly (12; 112); and c) affixing a blocking plate to the cell stack assembly (12; 112) and at least partially obstructing the flow channels (26, 28), subsequent to performing step b), wherein step c) includes providing an interdigitated flow field with two blocking plates (40; 140) arranged on opposing sides of the flow channels (26, 28), and wherein an external manifold is secured to the cell stack assembly (12; 112) by integrating the manifold with the blocking plate. a) providing flow channels (26, 28) in a fuel cell plate (22, 24), wherein step a) includes forming flow channels (26, 28) that extend to an edge of an outer perimeter of the fuel cell plate (22, 24); b) joining multiple fuel cell plates (22, 24) into a cell stack assembly (12; 112); and c) affixing a blocking plate to the cell stack assembly (12; 112) and at least partially obstructing the flow channels (26, 28), subsequent to performing step b), wherein step c) includes providing an interdigitated flow field with two blocking plates (40; 140) arranged on opposing sides of the flow channels (26, 28), and wherein an external manifold is secured to the cell stack assembly (12; 112) by integrating the manifold with the blocking plate.
Method for checking leak-tightness of a sterile assembly which comprises at least one storage container which is filled with a sterile fluid, said container having an inflow port and a discharge port, comprising the steps of: - mounting the sterile assembly in a dosing device for dosing the sterile fluid, wherein the dosing device comprises a pressure test device, - connecting the pressure test device to the storage container of the sterile assembly and at the same time interrupting all the further connections to the storage container, pressurizing the sterile fluid in the storage container for a predetermined period of time by means of a pressure test medium of the pressure test device, wherein the pressure test medium is passed through a filter element prior to inflow into the storage container, and - checking the sterile assembly for leaks. - mounting the sterile assembly in a dosing device for dosing the sterile fluid, wherein the dosing device comprises a pressure test device, - connecting the pressure test device to the storage container of the sterile assembly and at the same time interrupting all the further connections to the storage container, pressurizing the sterile fluid in the storage container for a predetermined period of time by means of a pressure test medium of the pressure test device, wherein the pressure test medium is passed through a filter element prior to inflow into the storage container, and - checking the sterile assembly for leaks.
Foundation for a wind turbine with a first pedestal-like section with at least one tower fastening element located therein, on which a tower of the wind turbine can be arranged and to which the tower of the wind turbine can be connected, and a second section extending essentially horizontally in the form of a flat foundation body, the second section being connected to the first section, the second section of the foundation consisting essentially of at least three prefabricated horizontal elements made of reinforced concrete, the at least three horizontal elements each having at least one base section with a stiffening element extending essentially vertically thereon, and there being a spacing between the horizontal elements in each case, characterized in that in that the first section is cast from concrete at the installation site of the wind turbine, in that the tower fastening element and reinforcements are cast into the pedestal at the installation site of the wind turbine, in that the at least three horizontal elements each have at least one connecting element which emerges from their side facing the first section and is cast into the first section on site, that the distance is covered with at least one cover element (30, 31, 32), and that an upwardly open cavity is delimited by two base sections of two adjacent horizontal elements, the at least one cover element (30, 31, 32) and the stiffening elements of the two adjacent horizontal elements extending substantially vertically thereon, into which floor can be introduced to generate a superimposed load.
A method of operating a network access node in a wireless telecommunications system comprising the network access node and a terminal device, wherein the method comprises: establishing that a downlink message for the terminal device to decode is going to be transmitted by the network access node; and transmitting wake-up signalling to the terminal device in advance of transmitting the downlink message to provide the terminal device with an indication the downlink message for the terminal device to decode is going to be transmitted, wherein the wake-up signalling comprises an amount of synchronisation signalling for use by the terminal device to achieve radio synchronisation with the network access node, wherein the amount of synchronisation signalling depends on an amount of time elapsed since the terminal device previously achieved radio synchronisation with the network access node. establishing that a downlink message for the terminal device to decode is going to be transmitted by the network access node; and transmitting wake-up signalling to the terminal device in advance of transmitting the downlink message to provide the terminal device with an indication the downlink message for the terminal device to decode is going to be transmitted, wherein the wake-up signalling comprises an amount of synchronisation signalling for use by the terminal device to achieve radio synchronisation with the network access node, wherein the amount of synchronisation signalling depends on an amount of time elapsed since the terminal device previously achieved radio synchronisation with the network access node.
A medical ultrasound device, comprising: a transducer configured for transmitting and/or receiving ultrasound signals and operatively coupled with a drive shaft extending substantially along a rotation axis, wherein the transducer rotates in response to rotation of the drive shaft; and a motor operatively coupled with the drive shaft, wherein the motor includes a first slip ring assembly having a first rotational contact and a first stationary contact, the first rotational contact being fixed relative to the drive shaft and rotatable with the drive shaft relative to and in contact with the first stationary contact, the motor further comprising a stator, wherein the first stationary contact is incorporated into the motor and fixed relative to the stator, wherein the first slip ring assembly maintains an electrical conduction path between the first rotational contact and the first stationary contact when the drive shaft rotates, wherein the motor further comprises a second slip ring assembly having a second rotational contact and a second stationary contact, the second rotational contact being fixed relative to the drive shaft and rotatable with the drive shaft relative to and in contact with the second stationary contact, wherein the second slip ring assembly maintains an electrical conduction path between the second rotational contact and the second stationary contact when the drive shaft rotates. a transducer configured for transmitting and/or receiving ultrasound signals and operatively coupled with a drive shaft extending substantially along a rotation axis, wherein the transducer rotates in response to rotation of the drive shaft; and a motor operatively coupled with the drive shaft, wherein the motor includes a first slip ring assembly having a first rotational contact and a first stationary contact, the first rotational contact being fixed relative to the drive shaft and rotatable with the drive shaft relative to and in contact with the first stationary contact, the motor further comprising a stator, wherein the first stationary contact is incorporated into the motor and fixed relative to the stator, wherein the first slip ring assembly maintains an electrical conduction path between the first rotational contact and the first stationary contact when the drive shaft rotates, wherein the motor further comprises a second slip ring assembly having a second rotational contact and a second stationary contact, the second rotational contact being fixed relative to the drive shaft and rotatable with the drive shaft relative to and in contact with the second stationary contact, wherein the second slip ring assembly maintains an electrical conduction path between the second rotational contact and the second stationary contact when the drive shaft rotates.
An ex-vivo method for the early diagnosis of minimal hepatic encephalopathy in patients with liver diseases, including cirrhosis, characterized in that it comprises the following steps: a) obtaining serum or plasma obtained from the blood of patients and controls, and b) determining whether or not the measurement of the concentration of 3-nitrotyrosine obtained in (a) is greater than a specific level. a) obtaining serum or plasma obtained from the blood of patients and controls, and b) determining whether or not the measurement of the concentration of 3-nitrotyrosine obtained in (a) is greater than a specific level.
A process for preparation of fingolimod hydrochloride comprising, a) reacting 2-(4-octylphenyl)-ethanol with an oxidizing agent, in an organic solvent to give 2-(4-octylphenyl)-acetaldehyde of formula, b) treating compound of formula with 5-nitro-2,3-dimethyl-1,3-dioxane of formula in presence of a base to give 1-(4-(2-hydroxy-2-(2,2-dimethyl-5-nitro-1,3-dioxane-5-yl)ethyl) phenyl) octane of formula, c) treating compound of formula with substituted sulfonyl chloride in presence of triethylamine to give the sulfonates of compound, d) treating compound of formula with a base to give 1-(4-(2-(2,2-dimethyl-5-nitro-1,3-dioxane-5-yl)-ethene-1-yl)phenyl)octane of formula, which on hydrogenation gives 1-(4-(2-(2,2-dimethyl-5-amino-1,3-dioxane-5-yl)- ethyl)phenyl)octane of formula, e) treating compound of formula with an acid to yield fingolimod which is further converted to its hydrochloride salt. a) reacting 2-(4-octylphenyl)-ethanol with an oxidizing agent, in an organic solvent to give 2-(4-octylphenyl)-acetaldehyde of formula, b) treating compound of formula with 5-nitro-2,3-dimethyl-1,3-dioxane of formula in presence of a base to give 1-(4-(2-hydroxy-2-(2,2-dimethyl-5-nitro-1,3-dioxane-5-yl)ethyl) phenyl) octane of formula, c) treating compound of formula with substituted sulfonyl chloride in presence of triethylamine to give the sulfonates of compound, d) treating compound of formula with a base to give 1-(4-(2-(2,2-dimethyl-5-nitro-1,3-dioxane-5-yl)-ethene-1-yl)phenyl)octane of formula, which on hydrogenation gives 1-(4-(2-(2,2-dimethyl-5-amino-1,3-dioxane-5-yl)- ethyl)phenyl)octane of formula, e) treating compound of formula with an acid to yield fingolimod which is further converted to its hydrochloride salt.
A manufacturing method for electrodes of a piezoelectric element, comprising the following steps: a) molding piezoelectric material according to specifications; b) coating, sputtering or evaporating conductive slurry on upper and lower surfaces of the molded piezoelectric material; c) polarizing the piezoelectric material coated with the conductive slurry; d) removing the coating of the conductive slurry on the surfaces of the piezoelectric material; e) spraying graphite on the surfaces of the piezoelectric material which has the coating removed to form electrodes, and adjusting the roughness of the sprayed surfaces; f) connecting electrode lead wires on the surfaces of the electrodes, to output a signal generated by piezoelectric effect thereof.
A method for heat balancing performed in a full-bridge cell of a phase leg of a Modular Multilevel Converter, MMC,, the method comprising: obtaining (Si) real-time measurements of parameters of the cell; based on the obtained measurements, by means of a predetermined mathematical model, estimating real-time heat losses at each semiconductor switching device (V1-4) of the full-bridge; and characterized by, based on the estimated losses, selecting one of a first and a second zero output voltage switching states for balancing heat between the switching devices (V1-4), when a modulator of the MMC requests a zero output voltage of the cell. obtaining (Si) real-time measurements of parameters of the cell; based on the obtained measurements, by means of a predetermined mathematical model, estimating real-time heat losses at each semiconductor switching device (V1-4) of the full-bridge; and characterized by, based on the estimated losses, selecting one of a first and a second zero output voltage switching states for balancing heat between the switching devices (V1-4), when a modulator of the MMC requests a zero output voltage of the cell.
Pumping apparatus (1, 11, 21) comprising a granular material pump assembly (2, 12, 22) and a distributor (3, 13, 23, 33, 43, 63) having a distribution end (4, 14, 24, 49) for distributing granular material, the granular material pump assembly (2, 12, 22) being configured to pump granular material through the distributor (3, 13, 23, 33, 43, 63) towards the distribution end (4, 14, 24, 49), wherein the distributor (3, 13, 23, 33, 43, 63) comprises a valve assembly having a valve (5, 15, 25, 35, 45, 60) configured to open to permit granular material to exit the distributor (3, 13, 23, 33, 43, 63) at the distribution end (4, 14, 24, 49) when an amount of granular material pumped towards the distribution end (4, 14, 24, 49) exceeds a threshold, wherein the granular material pump assembly (2, 12, 22) comprises a granular material feeder (16, 26, 27, 73) for regulating a flow of granular material into the distributor (3, 13, 23, 33, 43, 63) and a gas flow generator (17, 28) for pumping the flow of granular material through the distributor (3, 13, 23, 33, 43, 63), and wherein the valve assembly comprises a vent (37, 47) configured to vent gas from the flow of granular material in the distributor (3, 13, 23, 33, 43, 63) in a vent region upstream of the valve (5, 15, 25, 35, 45, 60).