mhurhangee/ep-ind-claims huggingface dataset:
Electrical device for connecting to a high-voltage network, with - a vessel, which is filled with an insulating fluid, - an active part, which is arranged in the vessel and has a magnetizable core and partial windings (4, 5) for generating a magnetic field in the core, - a cooling device for cooling the insulating fluid, and at least one barrier system, which at least partially delimits encapsulating spaces (17, 18), in which at least one partial winding (4, 5) is respectively arranged, the barrier system guiding the insulating fluid cooled by the cooling device across the encapsulating spaces (17, 18) in such a way that different temperatures of the insulating fluid and/or the partial windings (4, 5) occur in the encapsulating spaces (17, 18), wherein insulations of different insulating materials are arranged in the encapsulating spaces (17, 18), wherein the barrier system guides the insulating fluid through the encapsulating spaces one after the other, and wherein the first partial winding is a low-voltage winding and a second partial winding is a high-voltage winding, the windings (4, 5) being arranged concentrically in relation to one another and in relation to a core portion extending through the inner low-voltage winding, the barrier system having at least one hollow-cylindrical part (16, 16.1, 16.2, 16.3) which is arranged concentrically in relation to the partial winding (4, 5) surrounded by it. - a vessel, which is filled with an insulating fluid, - an active part, which is arranged in the vessel and has a magnetizable core and partial windings (4, 5) for generating a magnetic field in the core, - a cooling device for cooling the insulating fluid, and at least one barrier system, which at least partially delimits encapsulating spaces (17, 18), in which at least one partial winding (4, 5) is respectively arranged, the barrier system guiding the insulating fluid cooled by the cooling device across the encapsulating spaces (17, 18) in such a way that different temperatures of the insulating fluid and/or the partial windings (4, 5) occur in the encapsulating spaces (17, 18), wherein insulations of different insulating materials are arranged in the encapsulating spaces (17, 18), wherein the barrier system guides the insulating fluid through the encapsulating spaces one after the other, and wherein the first partial winding is a low-voltage winding and a second partial winding is a high-voltage winding, the windings (4, 5) being arranged concentrically in relation to one another and in relation to a core portion extending through the inner low-voltage winding, the barrier system having at least one hollow-cylindrical part (16, 16.1, 16.2, 16.3) which is arranged concentrically in relation to the partial winding (4, 5) surrounded by it.
A product wrapper for a pack that is formed from a sheet of tearable material and comprising tear-tape for opening the product wrapper, said tear-tape comprising at least two bands (2, 5) to be provided on a surface of the product wrapper and intersecting each other to form at least two intersecting branches (3, 4), an end of a first band being located within a tab provided in the product wrapper, wherein the intersection between said branches is located between distal ends of the first band such that, in use, only one band extends over a corner or folded edge of the pack, and opening of said product wrapper follows a first opening stage along said first branch, from a first end thereof, followed by a second stage along the two intersecting branches, from said intersection until at least one of a second end of the first branch and an end of the second branch.
Method for controlling interior lighting in a vehicle, in which method an interaction of a user with a device (6, 11, 15, 16, 20a, 20b, 20c) of the vehicle is detected; and on the basis of the detected interaction, a control signal is generated and transmitted to at least one elongate lighting device comprising a plurality of light segments, such that a dynamic light effect is generated, with a temporally variable distribution of a lighting parameter of the light segments being generated, characterized in that the dynamic light effect comprises an inhomogeneity of the distribution of the lighting parameter of the light segments, with at least one location in the vehicle being assigned to the inhomogeneity, at least one effect position in the vehicle is determined on the basis of the detected interaction, if the interaction further relates to at least one further device (6, 11, 15, 16, 20a, 20b, 20c) of the vehicle, a further effect position is determined on the basis of the further device (6, 11, 15, 16, 20a, 20b, 20c), and the generated dynamic light effect comprises a directed movement of the inhomogeneity along a longitudinal extent of the lighting device with respect to the effect position, the directed movement of a light pulse extending from the effect position to the further effect position. on the basis of the detected interaction, a control signal is generated and transmitted to at least one elongate lighting device comprising a plurality of light segments, such that a dynamic light effect is generated, with a temporally variable distribution of a lighting parameter of the light segments being generated, characterized in that the dynamic light effect comprises an inhomogeneity of the distribution of the lighting parameter of the light segments, with at least one location in the vehicle being assigned to the inhomogeneity, at least one effect position in the vehicle is determined on the basis of the detected interaction, if the interaction further relates to at least one further device (6, 11, 15, 16, 20a, 20b, 20c) of the vehicle, a further effect position is determined on the basis of the further device (6, 11, 15, 16, 20a, 20b, 20c), and the generated dynamic light effect comprises a directed movement of the inhomogeneity along a longitudinal extent of the lighting device with respect to the effect position, the directed movement of a light pulse extending from the effect position to the further effect position.
A method of testing a structure, in particular a strand ground anchor, comprising at least one tensile element, the method comprising the steps of: - Providing at least one tensile element, in particular at least one strand bundle; - Providing at least one removable and optionally a sacrificial core, in particular at least one rigid or flexible string; - Arranging the core at a position where a cavity is to be created, in particular arranging the core substantially coaxially to the tensile element, wherein the core is placed as close as feasible to the tensile element; - Embedding the at least one tensile element and the at least one core in a first hardening and/or hardenable material, in particular in cement grout; - Allowing or causing said first material to harden; - Creating at least one cavity in the first material by removing the at least one removable core from the hardened first material; - Applying a load, in particular a tensile load, to the structure to a predetermined load level and maintaining said load level; - Filling a hardening and/or hardenable second material, preferably a curable liquid, into the at least one cavity created; - Permitting or causing said second material to harden while maintaining the load; - Removing the load from the structure after the second material has reached a compressive strength that is at least equal to the compressive strength of the first material; - Providing at least one tensile element, in particular at least one strand bundle; - Providing at least one removable and optionally a sacrificial core, in particular at least one rigid or flexible string; - Arranging the core at a position where a cavity is to be created, in particular arranging the core substantially coaxially to the tensile element, wherein the core is placed as close as feasible to the tensile element; - Embedding the at least one tensile element and the at least one core in a first hardening and/or hardenable material, in particular in cement grout; - Allowing or causing said first material to harden; - Creating at least one cavity in the first material by removing the at least one removable core from the hardened first material; - Applying a load, in particular a tensile load, to the structure to a predetermined load level and maintaining said load level; - Filling a hardening and/or hardenable second material, preferably a curable liquid, into the at least one cavity created; - Permitting or causing said second material to harden while maintaining the load; - Removing the load from the structure after the second material has reached a compressive strength that is at least equal to the compressive strength of the first material;
Method for the contactless determination of an electrical potential (U unknown) of an object, having the step of: - providing an electrode which is spatially at a distance from the object, - connecting the electrode to a reference potential (U ref); - determining a first temporal change in an electrical state of charge (I 1) of the electrode at a first value for the electric flux between the electrode and the object; - determining a second temporal change in the electrical state of charge (I 2) of the electrode at a second value for the electric flux between the electrode and the object; - determining the electrical potential (U unknown) of the object at least from the first temporal change in the electrical state of charge (I 1) and the second temporal change in the electrical state of charge (I 2) and from a difference between the first value and the second value for the electric flux; characterized by the steps of: - setting the first value for the electric flux between the electrode and the object by positioning the electrode at a first distance (d 1) from the object and setting the reference potential to a first potential value (U ref1); - setting the second value for the electric flux between the electrode and the object by positioning the electrode at the first distance (d 1) from the object and setting the reference potential to a second potential value (U ref2) which is different from the first potential value (U ref1). - providing an electrode which is spatially at a distance from the object, - connecting the electrode to a reference potential (U ref); - determining a first temporal change in an electrical state of charge (I 1) of the electrode at a first value for the electric flux between the electrode and the object; - determining a second temporal change in the electrical state of charge (I 2) of the electrode at a second value for the electric flux between the electrode and the object; - determining the electrical potential (U unknown) of the object at least from the first temporal change in the electrical state of charge (I 1) and the second temporal change in the electrical state of charge (I 2) and from a difference between the first value and the second value for the electric flux; - setting the first value for the electric flux between the electrode and the object by positioning the electrode at a first distance (d 1) from the object and setting the reference potential to a first potential value (U ref1); - setting the second value for the electric flux between the electrode and the object by positioning the electrode at the first distance (d 1) from the object and setting the reference potential to a second potential value (U ref2) which is different from the first potential value (U ref1).
A method for a vehicle configured for updating an environmental model of the vehicle, the method using a control module configured for obtaining an environmental model of the vehicle, the environmental model comprising static and dynamic objects in the environment of the vehicle along at least a part of a vehicle's trajectory; assigning information related to correctness probabilities at least to the dynamic objects of the environmental model, wherein the information related to correctness probabilities indicates a confidence on a determined object; determining at least one dynamic object of the environmental model for which the information related to the correctness probability indicates that the correctness probability is below a threshold; and transmitting a broadcast message to the environment of the vehicle to request further information on the at least one dynamic object, wherein the information related to the probability of correctness assigned to the at least one dynamic object at the vehicle is provided with the broadcast message; further comprising receiving at least one response message from another vehicle or a traffic infrastructure entity (200; 300) in the environment with further information related to the at least one dynamic object with a higher correctness probability and updating the environmental model of the vehicle. obtaining an environmental model of the vehicle, the environmental model comprising static and dynamic objects in the environment of the vehicle along at least a part of a vehicle's trajectory; assigning information related to correctness probabilities at least to the dynamic objects of the environmental model, wherein the information related to correctness probabilities indicates a confidence on a determined object; determining at least one dynamic object of the environmental model for which the information related to the correctness probability indicates that the correctness probability is below a threshold; and transmitting a broadcast message to the environment of the vehicle to request further information on the at least one dynamic object, wherein the information related to the probability of correctness assigned to the at least one dynamic object at the vehicle is provided with the broadcast message; further comprising receiving at least one response message from another vehicle or a traffic infrastructure entity (200; 300) in the environment with further information related to the at least one dynamic object with a higher correctness probability and updating the environmental model of the vehicle.
Method to carry out analyses on a sputum sample comprising a combination of components (C i), for the identification of a microbial-based pulmonary pathological condition, said method comprising the following steps: - making available said sputum sample; - making available at least one set of reference data associated with different microbial-based pulmonary pathological conditions; - measuring at least a relaxation time of the hydrogen atoms (T 2i) and an average relaxation time of the hydrogen atoms (T 2m), said measuring being made by nuclear magnetic resonance unit NMR inducing stresses, by applying magnetic fields having intensities comprised between 0.2T and 2T, to the hydrogen atoms comprised in said sputum sample; - comparing said average relaxation time (T 2m) and said relaxation times of the hydrogen atoms (T 2i) with said reference data in order to determine the pathological condition associated with said sputum sample; - supplying information correlated to the pathological condition associated with said sputum sample and correlated to at least part of said components (C i); wherein said reference data are obtained by means of at least measurements of relaxation times of the hydrogen atoms (T 2i, T 2m) of said sputum samples with the addition of substances correlated to microbial-based pulmonary pathological conditions, wherein said substances added to said sputum samples are chosen from a group consisting of: bacteria, albumin, alginate, mucin, DNA; wherein said relaxation time of the hydrogen atoms (T 2i) is correlated to the presence of a component (C i) of said sputum sample and said average relaxation time of the hydrogen atoms (T 2m) is correlated to the combination of said components (C i) of said sputum sample; further wherein said method provides information correlated to at least one component (C i) by means of a relaxation spectrum (T 2i -A i) consisting of the pairs formed by said relaxation times (T 2i) and of their percentage weights (A i). - making available said sputum sample; - making available at least one set of reference data associated with different microbial-based pulmonary pathological conditions; - measuring at least a relaxation time of the hydrogen atoms (T 2i) and an average relaxation time of the hydrogen atoms (T 2m), said measuring being made by nuclear magnetic resonance unit NMR inducing stresses, by applying magnetic fields having intensities comprised between 0.2T and 2T, to the hydrogen atoms comprised in said sputum sample; - comparing said average relaxation time (T 2m) and said relaxation times of the hydrogen atoms (T 2i) with said reference data in order to determine the pathological condition associated with said sputum sample; - supplying information correlated to the pathological condition associated with said sputum sample and correlated to at least part of said components (C i);
A taste improver for selective improvement or lowering unpleasant bitterness, astringent taste, harsh taste or bitter taste caused by potassium salts, magnesium salts, calcium salts, or ammonium salts, wherein the taste improver comprises as an active ingredient a blend of a vegetable extract and at least one of the following components: (i) a phospholipid in an amount from 0.2 to 5 parts by weight per one part by weight of the vegetable extract, (ii) a saccharide in an amount from 2 to 100 parts by weight per one part by weight of the vegetable extract, and (iii) arginine in an amount from 0.1 to 10 parts by weight per one part by weight of the vegetable extract, wherein the vegetable extract is a water and/or an ethanol extract of parsley, celery, and/or celery seed, wherein the taste improver is for a foodstuff comprising a potassium salt, a magnesium salt, a calcium salt, and/or an ammonium salt. (i) a phospholipid in an amount from 0.2 to 5 parts by weight per one part by weight of the vegetable extract, (ii) a saccharide in an amount from 2 to 100 parts by weight per one part by weight of the vegetable extract, and (iii) arginine in an amount from 0.1 to 10 parts by weight per one part by weight of the vegetable extract,
An antenna system, comprising a closed loop cooling system and a phased array antenna, the closed loop cooling system comprising: a cooling structure comprising: a plurality of coolant inlet pipes; a plurality of coolant outlet pipes; and a plurality of cooling platforms each comprising a coolant channel, wherein the coolant channel: begins at one of the plurality of coolant inlet pipes; terminates at one of the plurality of coolant outlet pipes; and provides a flow path for a fluid coolant; a heat exchanger; and a pump for circulating the fluid coolant around a coolant loop; wherein the flow of the fluid coolant through the coolant channel dissipates thermal energy produced by one or more antenna elements associated with the phased array antenna; wherein the antenna system comprising the cooling system and the phased array antenna is mountable on a mast of a vessel; wherein the cooling system is configured to receive power from a remote power source; wherein the one or more antenna elements associated with the phased array antenna are mounted to at least one base plate releasably mounted to at least one of the plurality of cooling platforms. a cooling structure comprising: a plurality of coolant inlet pipes; a plurality of coolant outlet pipes; and a plurality of cooling platforms each comprising a coolant channel, a plurality of coolant inlet pipes; a plurality of coolant outlet pipes; and a plurality of cooling platforms each comprising a coolant channel, wherein the coolant channel: begins at one of the plurality of coolant inlet pipes; terminates at one of the plurality of coolant outlet pipes; and provides a flow path for a fluid coolant; begins at one of the plurality of coolant inlet pipes; terminates at one of the plurality of coolant outlet pipes; and provides a flow path for a fluid coolant; a heat exchanger; and a pump for circulating the fluid coolant around a coolant loop; wherein the flow of the fluid coolant through the coolant channel dissipates thermal energy produced by one or more antenna elements associated with the phased array antenna; wherein the antenna system comprising the cooling system and the phased array antenna is mountable on a mast of a vessel; wherein the cooling system is configured to receive power from a remote power source; wherein the one or more antenna elements associated with the phased array antenna are mounted to at least one base plate releasably mounted to at least one of the plurality of cooling platforms.
Method for estimating the state or pressure of an aircraft tyre, defined by the fact that: - during the course of the one same flight and/or after the landing that follows this flight, physical data items characteristic at least of the pressure (PP1, PPMAX) in the tyre are measured at a 1st instant (t 1, t 4) and then at a 2nd instant (t 2, t 5), - at least these measured data are used to form input data for an estimation model which supplies at least one output data item representative of the state of the tyre or of the pressure in the tyre at a 3rd instant (t 3) subsequent to the 2nd instant (t 2, t 5) and characterized in that at least the brake temperature of the brakes of the wheel associated with said tyre and the outside air temperature are also measured at each of the instants (t 1) and (t 2). - during the course of the one same flight and/or after the landing that follows this flight, physical data items characteristic at least of the pressure (PP1, PPMAX) in the tyre are measured at a 1st instant (t 1, t 4) and then at a 2nd instant (t 2, t 5), - at least these measured data are used to form input data for an estimation model which supplies at least one output data item representative of the state of the tyre or of the pressure in the tyre at a 3rd instant (t 3) subsequent to the 2nd instant (t 2, t 5)
A feeding system for animals comprising: - a holder for liquid feed comprising at least a wall and an underlying bottom having a recessed bottom part which extends as far as the bottom circumference, said wall having an opening which is partly adjacent to said recessed bottom part, and - at least a teat having a passage to a suction end, which teat is to be fitted in said opening and is positioned relative to said recessed bottom part such that any feed collected on said recessed bottom part can flow through the passage to the suction end of the teat, - wherein said wall around the opening is provided with a cavity at the inside wall of the holder in which a connecting flange of the teat situated opposite the suction end of said teat is to be fitted, characterized in that the connecting flange of the teat inserted into the cavity has a flat circumferential part which rests on the recessed bottom part. - a holder for liquid feed comprising at least a wall and an underlying bottom having a recessed bottom part which extends as far as the bottom circumference, said wall having an opening which is partly adjacent to said recessed bottom part, and - at least a teat having a passage to a suction end, which teat is to be fitted in said opening and is positioned relative to said recessed bottom part such that any feed collected on said recessed bottom part can flow through the passage to the suction end of the teat, - wherein said wall around the opening is provided with a cavity at the inside wall of the holder in which a connecting flange of the teat situated opposite the suction end of said teat is to be fitted,