mhurhangee/ep-ind-claims huggingface dataset:
An electrical connection (1; 1') for electrically connecting a flat connector (2; 2'; 2"), comprising a flat strip of electrically conductive material (20; 20'; 20") encased in a thin layer of non-conductive material, and an electrical cable (3; 3'; 3"), the electrical connection (1; 1') comprising a flat connector (2; 2'; 2") with an insulated portion (21; 21") and an exposed electrically conductive portion (20e; 20e"), an electrical cable (3; 3'; 3"), a first seal (6a; 6a"), a second seal and an enclosure, where the flat connector (2; 2'; 2") and the electrical cable (3; 3'; 3") are secured together in order to provide electrical contact between one another at the exposed electrically conductive portion (20e; 20e") of the flat connector (2; 2'; 2"), the first seal (6a; 6a") being outboard of the exposed electrically conductive portion (20e; 20e") of the flat connector (2; 2'; 2") whereby the enclosure encases the first seal (6a; 6a"), the second seal and the electrical contact and characterised in that the first seal (6a; 6a") is adjacent a distal edge of the exposed electrically conductive element (20e; 20e") of the flat connector (2; 2'; 2") and wherein the second seal contacts the insulated portion (21; 21") of the flat connector (2; 2'; 2") and the electrically conductive portion (20e; 20e") of the flat connector (2; 2'; 2"), whereby the electrical contact is free of the second seal.
A breathing apparatus comprising a hood having a visor, breathing circuit and an oxygen generating system, an internal indicator (105, 110) within the hood that visually indicates to a user that the breathing apparatus is functioning nominally; and wherein the internal indicator (105, 110) also visually indicates to the user an approaching end of a useful operating life of the breathing apparatus; characterized by: said hood being sized to fit over a user's head and having a sealing membrane to isolate the user's head and define a breathing chamber, and the oxygen generating system inside the hood being located behind the user's head; a first duct connecting the oxygen generating system behind the user's head and terminating at a position above the user's head for delivering oxygen to the breathing chamber; an oronasal mouthpiece connected to a front of the hood including a one-way valve for intake of oxygen from the breathing chamber; a second duct connecting the oronasal mouthpiece to the oxygen generating system behind the user's head for carrying carbon dioxide away from the breathing chamber; the indicator being a first internal indicator facing the user inside the hood that indicates to the user that the oxygen generating system behind the user's head is providing an oxygen level inside the breathing chamber; and a second internal indicator facing the user inside the hood, that indicates to the user that a carbon dioxide level is not exceeded inside the breathing chamber. said hood being sized to fit over a user's head and having a sealing membrane to isolate the user's head and define a breathing chamber, and the oxygen generating system inside the hood being located behind the user's head; a first duct connecting the oxygen generating system behind the user's head and terminating at a position above the user's head for delivering oxygen to the breathing chamber; an oronasal mouthpiece connected to a front of the hood including a one-way valve for intake of oxygen from the breathing chamber; a second duct connecting the oronasal mouthpiece to the oxygen generating system behind the user's head for carrying carbon dioxide away from the breathing chamber; the indicator being a first internal indicator facing the user inside the hood that indicates to the user that the oxygen generating system behind the user's head is providing an oxygen level inside the breathing chamber; and a second internal indicator facing the user inside the hood, that indicates to the user that a carbon dioxide level is not exceeded inside the breathing chamber.
Process for producing a permanent magnet, comprising the steps of: (a) producing a mixture comprising - a powder of a magnetic material and - a binder composition comprising at least one precursor compound for silicon oxide and at least one precursor compound of at least one further oxide, (b) moulding the mixture to form a green part; (c) subjecting the green part to thermal treatment for conversion of at least parts of the binder composition to the oxides, and (d) successively to or simultaneously with step (c), sintering the green part to form a glass matrix, ceramic matrix or glass-ceramic matrix from the oxides which surround the particles of the magnetic material; characterized in that the (b) moulding is effected by powder injection moulding. (a) producing a mixture comprising - a powder of a magnetic material and - a binder composition comprising at least one precursor compound for silicon oxide and at least one precursor compound of at least one further oxide, - a powder of a magnetic material and - a binder composition comprising at least one precursor compound for silicon oxide and at least one precursor compound of at least one further oxide, (b) moulding the mixture to form a green part; (c) subjecting the green part to thermal treatment for conversion of at least parts of the binder composition to the oxides, and (d) successively to or simultaneously with step (c), sintering the green part to form a glass matrix, ceramic matrix or glass-ceramic matrix from the oxides which surround the particles of the magnetic material;
A navigation device comprising: a route information obtaining unit (2 1 a) configured for obtaining information indicating a route of a host vehicle;a host vehicle position information obtaining unit (21 b) configured for obtaining information indicating a position of the host vehicle; characterized by a curve information obtaining unit (21 c) configured for obtaining curve information indicating a form of a number of N successive curves (where, N is an integer of 2 or more) in front of the host vehicle position on the route wherein the form includes a distance between curves and the host vehicle, the number of successive curves, a distance between curves, and a direction in which each curve bends; anda vibrator control unit configured for exciting a vibrator provided at a position where contact with a driver of the host vehicle is possible in a vibration mode corresponding to the curve information when the host vehicle reaches a position at a predetermined distance from the curve closest to the host vehicle among the N successive curves, wherein the vibrator control unit generates a vibration corresponding to an Mth (where, M is an integer equal to or greater than 1 and equal to or less than N-1) curve near the host vehicle position on the route before generating a vibration corresponding to an M+lth curve, which is farther away than the Mth curve, wherein the vibrator control unit (21 b) lengthens an interval between a vibration corresponding to the Mth curve and a vibration corresponding to the M+1th curve in accordance with a longer distance between the Mth curve and the M+lth curve. a route information obtaining unit (2 1 a) configured for obtaining information indicating a route of a host vehicle;a host vehicle position information obtaining unit (21 b) configured for obtaining information indicating a position of the host vehicle; characterized by a curve information obtaining unit (21 c) configured for obtaining curve information indicating a form of a number of N successive curves (where, N is an integer of 2 or more) in front of the host vehicle position on the route wherein the form includes a distance between curves and the host vehicle, the number of successive curves, a distance between curves, and a direction in which each curve bends; anda vibrator control unit configured for exciting a vibrator provided at a position where contact with a driver of the host vehicle is possible in a vibration mode corresponding to the curve information when the host vehicle reaches a position at a predetermined distance from the curve closest to the host vehicle among the N successive curves, wherein the vibrator control unit generates a vibration corresponding to an Mth (where, M is an integer equal to or greater than 1 and equal to or less than N-1) curve near the host vehicle position on the route before generating a vibration corresponding to an M+lth curve, which is farther away than the Mth curve, wherein the vibrator control unit (21 b) lengthens an interval between a vibration corresponding to the Mth curve and a vibration corresponding to the M+1th curve in accordance with a longer distance between the Mth curve and the M+lth curve.
A tower of a wind turbine, having a tower central axis, a tower wall and a vibratory apparatus for influencing a vibration of the tower, wherein the vibratory apparatus - has a vibratory body which is suspended in the tower so as to be spaced apart from the tower wall, and - at least one coupling element, which is fastened between the vibratory body and the tower wall and which serves for influencing a relative movement between the vibratory body and the tower wall, wherein - the vibratory body is formed so as to be hollow along a vertical body central axis, characterized in that - the vibratory body is suspended by means of pendulum rods on a fastening portion, wherein - three, four or more pendulum rods are provided such that the vibratory body is restricted to translational or tilt-free movements. - has a vibratory body which is suspended in the tower so as to be spaced apart from the tower wall, and - at least one coupling element, which is fastened between the vibratory body and the tower wall and which serves for influencing a relative movement between the vibratory body and the tower wall, wherein - the vibratory body is formed so as to be hollow along a vertical body central axis, characterized in that - the vibratory body is suspended by means of pendulum rods on a fastening portion, wherein - three, four or more pendulum rods are provided such that the vibratory body is restricted to translational or tilt-free movements.
Method for determining the sex of fertilized and incubated bird eggs in ovo by way of Raman spectroscopy, wherein the embryo including the extraembryonic structures is movable in the egg and not yet attached to the eggshell at the time of registering Raman scattering radiation, including the following steps: - monitoring the passage of time of the incubation up to the formation of at least one identifiable blood vessel (21, 27), - creating a hole in the eggshell in the vicinity of an identified blood vessel (21, 27) by means of a hole-producing unit, - searching for blood vessels (21, 27) forming in the egg by means of a vision system (19, 13) containing a radiation device for coaxial or lateral illumination with light in the visible wavelength range and a detector, - positioning at least one blood vessel (21, 27) in the laser focus of a laser source, either by moving the egg or by moving an objective lens of an apparatus for introducing the laser light and for capturing the Raman scattered radiation, and irradiating the blood vessel with laser light, - registering the Raman scattered radiation of the irradiated blood vessel (21, 27) by means of the apparatus for introducing the laser light and for capturing the Raman scattered radiation, wherein a movement of the blood vessel (21, 27) out of the focus during the registration of the Raman scattered radiation is avoided by tracking by means of the vision system (19, 13), - evaluating the Raman scattered radiation and determining the sex of the embryo in an evaluation unit, and - displaying the sex of the embryo in the bird egg. - monitoring the passage of time of the incubation up to the formation of at least one identifiable blood vessel (21, 27), - creating a hole in the eggshell in the vicinity of an identified blood vessel (21, 27) by means of a hole-producing unit, - searching for blood vessels (21, 27) forming in the egg by means of a vision system (19, 13) containing a radiation device for coaxial or lateral illumination with light in the visible wavelength range and a detector, - positioning at least one blood vessel (21, 27) in the laser focus of a laser source, either by moving the egg or by moving an objective lens of an apparatus for introducing the laser light and for capturing the Raman scattered radiation, and irradiating the blood vessel with laser light, - registering the Raman scattered radiation of the irradiated blood vessel (21, 27) by means of the apparatus for introducing the laser light and for capturing the Raman scattered radiation, wherein a movement of the blood vessel (21, 27) out of the focus during the registration of the Raman scattered radiation is avoided by tracking by means of the vision system (19, 13), - evaluating the Raman scattered radiation and determining the sex of the embryo in an evaluation unit, and - displaying the sex of the embryo in the bird egg.
An article comprising a first substrate, a second substrate, and an adhesive interposed between the two substrates, said adhesive comprising: (a) an emulsion-based polymer selected from the group consisting of vinyl acetate ethylene dispersion, polyvinyl acetate, polyvinyl acetate polyvinyl alcohol, dextrin stabilized polyvinyl acetate, polyvinyl acetate copolymers, vinyl acetate-ethylene copolymers, vinylacrylic, styrene acrylic, acrylic, styrene butyl rubber, polyurethane and mixtures thereof; (b) a plurality of microspheres, wherein the microspheres have a volume of 10 to 50 V/V % in the adhesive; and (c) optionally, water, plasticizer, preservative; wherein the article has a substantially similar thermal insulation loss with 26% decrease in substrate basis weight as compared to an article without any microspheres, and wherein the term substantially similar thermal insulation loss is defined as having a surface temperature separation of less than 2°C after exposure to a heat source 1.9 cm (3/4 inch) away for 30 seconds, and wherein the article is a cup, food container, case, carton, bag, box, envelope, wrap or clamshell, and wherein the microspheres are expandable polymeric microspheres, wherein the diameter of the expandable microspheres may be expandable from 300% of the starting diameter to 1,000% of the starting diameter. (a) an emulsion-based polymer selected from the group consisting of vinyl acetate ethylene dispersion, polyvinyl acetate, polyvinyl acetate polyvinyl alcohol, dextrin stabilized polyvinyl acetate, polyvinyl acetate copolymers, vinyl acetate-ethylene copolymers, vinylacrylic, styrene acrylic, acrylic, styrene butyl rubber, polyurethane and mixtures thereof; (b) a plurality of microspheres, wherein the microspheres have a volume of 10 to 50 V/V % in the adhesive; and (c) optionally, water, plasticizer, preservative; wherein the article has a substantially similar thermal insulation loss with 26% decrease in substrate basis weight as compared to an article without any microspheres, and wherein the term substantially similar thermal insulation loss is defined as having a surface temperature separation of less than 2°C after exposure to a heat source 1.9 cm (3/4 inch) away for 30 seconds, and wherein the article is a cup, food container, case, carton, bag, box, envelope, wrap or clamshell, and wherein the microspheres are expandable polymeric microspheres, wherein the diameter of the expandable microspheres may be expandable from 300% of the starting diameter to 1,000% of the starting diameter.
Clip with a head and a shank extending along a longitudinal axis of the head, wherein at least two ribs are provided, each rib extends from a base of the respective rib on the shank to an end of the respective rib radially spaced from the base of the respective rib, - wherein at least one rib is connected directly to the head, at least in sections, - wherein at least one rib has an elastic arm which protrudes from the respective rib, characterized in that at least one rib has a side which extends between the base of the rib and the end of the rib, wherein the elastic arm of this rib protrudes from this side of the rib, - wherein at least one elastic arm has a first section and a second section, wherein the first section is connected at one end to the rib and at its other end to the second section, wherein the second section extends in a different direction to the first section, - wherein the first section is connected directly to the head, at least in sections. - wherein at least one rib is connected directly to the head, at least in sections, - wherein at least one rib has an elastic arm which protrudes from the respective rib, characterized in that at least one rib has a side which extends between the base of the rib and the end of the rib, wherein the elastic arm of this rib protrudes from this side of the rib, - wherein at least one elastic arm has a first section and a second section, wherein the first section is connected at one end to the rib and at its other end to the second section, wherein the second section extends in a different direction to the first section, - wherein the first section is connected directly to the head, at least in sections.
An organic electroluminescent element comprising at least an emission layer sandwiched between an anode and a cathode, wherein the emission layer comprises at least a compound represented by Formula, wherein X represents O or S; A1 and A2 each represent a hydrogen atom or a substituent and at least one of A1 and A2 is a substituent having a carbazolyl or carbolinyl group; L1 and L2 each represent a divalent linking group; n is an integer of 2 or more; n3 and n4 each are 0 or 1.
Computer-implemented method for determining a preferred location of a vehicle with a navigation device, comprising following steps: a) capturing a situation data set at an actual time and a respective location by a first capturing means, b) capturing a historical data set for a predefined time period, excluding the actual time, at respective locations and calculating from the historical data set a characteristic data set by a second capturing means, c) setup and training of a demand estimator model using the situation data set and the characteristic data set by an estimation model processing means, d) capturing a demand estimation request by a third capturing means, e) calculating a demand estimator using the demand estimator model and the demand estimation request by a computer, f) estimating the preferred location with location information using the demand estimator by the computer, g) incorporating the preferred location into the demand estimator model by the computer h) communicate the preferred location by a wireless communication means to the vehicle with the navigation device, i) setting a target location of the navigation device to a location corresponding to the location information of the preferred location. a) capturing a situation data set at an actual time and a respective location by a first capturing means, b) capturing a historical data set for a predefined time period, excluding the actual time, at respective locations and calculating from the historical data set a characteristic data set by a second capturing means, c) setup and training of a demand estimator model using the situation data set and the characteristic data set by an estimation model processing means, d) capturing a demand estimation request by a third capturing means, e) calculating a demand estimator using the demand estimator model and the demand estimation request by a computer, f) estimating the preferred location with location information using the demand estimator by the computer, g) incorporating the preferred location into the demand estimator model by the computer h) communicate the preferred location by a wireless communication means to the vehicle with the navigation device, i) setting a target location of the navigation device to a location corresponding to the location information of the preferred location.
A method in a radio base station for receiving uplink control information in time slots in a subframe over a radio channel from a user equipment, which radio channel is arranged to carry uplink control information, the uplink control information is comprised in a block of bits, and which user equipment and radio base station are comprised in a radio communications network, the method comprises - receiving a sequence of complex-valued modulation symbols, - Orthogonal Frequency Division Multiplexing, OFDM, demodulating the sequence of complex-valued modulation symbols, - transforming, per Discrete Fourier Transform Spread - Orthogonal Frequency Division Multiplexing, DFTS-OFDM, symbol, the sequence of complex-valued modulation symbols that has been OFDM demodulated by applying, for each DFTS-OFDM symbol, to a part of the OFDM demodulated sequence of complex-valued modulation symbols corresponding to that DFTS-OFDM symbol, a matrix comprising matrix elements, which matrix elements are cyclically shifted depending on a DFTS-OFDM symbol index and/or slot index, - block despreading the sequence of complex-valued modulation symbols that has been OFDM demodulated and transformed with a despreading sequence, and - mapping the despread sequence of complex-valued modulation symbols that has been OFDM demodulated and transformed, to a block of bits. - receiving a sequence of complex-valued modulation symbols, - Orthogonal Frequency Division Multiplexing, OFDM, demodulating the sequence of complex-valued modulation symbols, - transforming, per Discrete Fourier Transform Spread - Orthogonal Frequency Division Multiplexing, DFTS-OFDM, symbol, the sequence of complex-valued modulation symbols that has been OFDM demodulated by applying, for each DFTS-OFDM symbol, to a part of the OFDM demodulated sequence of complex-valued modulation symbols corresponding to that DFTS-OFDM symbol, a matrix comprising matrix elements, which matrix elements are cyclically shifted depending on a DFTS-OFDM symbol index and/or slot index, - block despreading the sequence of complex-valued modulation symbols that has been OFDM demodulated and transformed with a despreading sequence, and - mapping the despread sequence of complex-valued modulation symbols that has been OFDM demodulated and transformed, to a block of bits.
A process for the synthesis of 1,1,2,3-tetrachloropropene (HCC-1230xa) using 1,1,3-trichloropropene, and/or 3,3,3-trichloropropene and Cl 2 gas as the reactants, with a dehydrochlorination catalyst, wherein the process takes place in a single reactor system, wherein the single reactor system comprises a CSTR, a reaction column and a total condenser.