mhurhangee/ep-ind-claims huggingface dataset:
A springless lower closeout system for a passenger seat, comprising: a left-side seat spreader and a right-side seat spreader configured to define a lower aft portion of a passenger seat, each seat spreader including a restrictive channel extending along an aft portion thereof; a dress cover configured to extend across the lower aft portion of the passenger seat, the dress cover having a left side and a right side, each side terminating in a cord element configured to retain the left side or the right side within the restrictive channel of the left-side or right-side seat spreader; and at least one fastener connecting the dress cover to either the left side or right side cord element, the at least one fastener configured to facilitate insertion of the left side or right side cord element by adjusting a tension of the dress cover across the lower aft portion. a left-side seat spreader and a right-side seat spreader configured to define a lower aft portion of a passenger seat, each seat spreader including a restrictive channel extending along an aft portion thereof; a dress cover configured to extend across the lower aft portion of the passenger seat, the dress cover having a left side and a right side, each side terminating in a cord element configured to retain the left side or the right side within the restrictive channel of the left-side or right-side seat spreader; and at least one fastener connecting the dress cover to either the left side or right side cord element, the at least one fastener configured to facilitate insertion of the left side or right side cord element by adjusting a tension of the dress cover across the lower aft portion.
Refrigerated sales furniture, comprising: a front frame with at least one opening providing access to a refrigerated goods presentation space of the refrigerated sales furniture; at least one mullion, which is detachably mounted to the front frame and which comprises at least one heat pipe; and at least one refrigerant conduit extending through at least a section of the front frame; wherein the mullion comprises a first heat conducting section and an end section of the at least one heat pipe is embedded in the first heat conducting section providing a thermal connection between the first heat conducting section and the at least one heat pipe; wherein the front frame comprises a second heat conducting section and a section of the at least one refrigerant conduit extends through the second heat conducting section providing a thermal connection between the second heat conducting section and the refrigerant flowing through the refrigerant conduit; and wherein the first and second heat conducting sections (18a, 18b) abut against each other and form a heat conduction device configured to provide a thermal connection to transfer heat from the refrigerant flowing through the refrigerant conduit to the at least one heat pipe. a front frame with at least one opening providing access to a refrigerated goods presentation space of the refrigerated sales furniture; at least one mullion, which is detachably mounted to the front frame and which comprises at least one heat pipe; and at least one refrigerant conduit extending through at least a section of the front frame; wherein the mullion comprises a first heat conducting section and an end section of the at least one heat pipe is embedded in the first heat conducting section providing a thermal connection between the first heat conducting section and the at least one heat pipe; wherein the front frame comprises a second heat conducting section and a section of the at least one refrigerant conduit extends through the second heat conducting section providing a thermal connection between the second heat conducting section and the refrigerant flowing through the refrigerant conduit; and wherein the first and second heat conducting sections (18a, 18b) abut against each other and form a heat conduction device configured to provide a thermal connection to transfer heat from the refrigerant flowing through the refrigerant conduit to the at least one heat pipe.
A method performed by a positioning station for time-of-flight (ToF) positioning, the method comprising: receiving a ToF cooperation table from an access point (104, 114), the ToF cooperation table identifying one or more cooperating stations and includes information about each cooperating station for ToF positioning; performing a ToF positioning protocol with at least one of the cooperating stations identified in the ToF cooperation table using the information in the ToF cooperation table, wherein during the ToF positioning protocol, a current position and a station positional accuracy of the cooperating stations are received in frames exchanged between the positioning station and the cooperating stations, the current position being a position when ToF is measured; and determining a location of the positioning station based on the current positions and ranges to the cooperating stations determined during the ToF positioning protocol. receiving a ToF cooperation table from an access point (104, 114), the ToF cooperation table identifying one or more cooperating stations and includes information about each cooperating station for ToF positioning; performing a ToF positioning protocol with at least one of the cooperating stations identified in the ToF cooperation table using the information in the ToF cooperation table, wherein during the ToF positioning protocol, a current position and a station positional accuracy of the cooperating stations are received in frames exchanged between the positioning station and the cooperating stations, the current position being a position when ToF is measured; and determining a location of the positioning station based on the current positions and ranges to the cooperating stations determined during the ToF positioning protocol.
A chip card, comprising a first operating system dedicated to the control of the card during normal functioning and a second operating system dedicated to control the transmission of data by at least one annex channel, wherein the chip card further comprises: - a boot module for switching control of the chip card to the second operating system when the card is marked as being in the "end of life" state and to said first operating system otherwise; - said annex transmission channel using a measurable modification of the environment of said card for the transmission of data relating to information on said "end of life" state. - a boot module for switching control of the chip card to the second operating system when the card is marked as being in the "end of life" state and to said first operating system otherwise; - said annex transmission channel using a measurable modification of the environment of said card for the transmission of data relating to information on said "end of life" state.
Method for manufacturing a power-semiconductor substrate with the method steps of: • coating at least a subarea (12, 14) of a sheet-like pre-sintering support with a sintering paste, • drying the sintering paste, • arranging a connecting-area object on the associated subarea (12, 14) of the dried sintering paste, • applying pressure to the formation comprising the pre-sintering support provided with the dried sintering paste and the connecting-area object during a short pre-sintering time period, so that the bonding force between the dried sintering paste and the connecting-area object becomes greater than the bonding force between the dried sintering paste and the pre-sintering support, • removing the pre-sintering support from the connecting-area object having the dried sintering paste, so that a corresponding semifinished product is obtained, • arranging the semifinished product on an electrically insulating sheet-like main body, the dried sintering paste facing the sheet-like main body, and • applying sintering pressure to the formation comprising the semifinished product and the sheet-like main body and preferably increased temperature during a longer sintering time period to form the power-semiconductor substrate. • coating at least a subarea (12, 14) of a sheet-like pre-sintering support with a sintering paste, • drying the sintering paste, • arranging a connecting-area object on the associated subarea (12, 14) of the dried sintering paste, • applying pressure to the formation comprising the pre-sintering support provided with the dried sintering paste and the connecting-area object during a short pre-sintering time period, so that the bonding force between the dried sintering paste and the connecting-area object becomes greater than the bonding force between the dried sintering paste and the pre-sintering support, • removing the pre-sintering support from the connecting-area object having the dried sintering paste, so that a corresponding semifinished product is obtained, • arranging the semifinished product on an electrically insulating sheet-like main body, the dried sintering paste facing the sheet-like main body, and • applying sintering pressure to the formation comprising the semifinished product and the sheet-like main body and preferably increased temperature during a longer sintering time period to form the power-semiconductor substrate.
Measurement device for non-invasive determination of at least one physiological parameter, having a diagnostic sensor unit for generating measurement signals, and having an evaluation unit for processing the measurement signals, wherein the diagnostic sensor unit comprises at least one pressure sensor that detects the pressure exerted locally on the pressure sensor by a body tissue to be examined, wherein the evaluation unit is set up for derivation of at least one physiological parameter from the measurement signal of the pressure sensor, wherein the sensor unit comprises a bioelectrical impedance measurement unit, wherein the evaluation unit is set up for derivation of the at least one physiological parameter at least from the measurement signals of the pressure sensor and of the bioelectrical impedance measurement unit, wherein that the pressure sensor is mechanically coupled with a measurement electrode of the bioelectrical impedance measurement unit, and thereby detects the pressure locally exerted on the pressure sensor by the body tissue to be examined, by way of the measurement electrode, wherein the evaluation unit is set up for derivation of the at least one physiological parameter as a function of the depth in the body tissue, characterized in that the measurement electrode is movably mounted on the diagnostic sensor unit.
Air humidification apparatus, able to be be installed vertically in a ventilation system, comprising an air duct section able to be flowed through vertically and at least one hydrophilic or hydrophobic, air-permeable humidifier medium which is arranged in the air duct section substantially perpendicular to its longitudinal axis and which is wetted with water by means of a water distributor, and a humidity sensor measures a supply air humidity in order to regulate the maximum water supply characterized in that the water supply is regulated according to the measured value of a return air sensor which is located in the return air flow, the amount of water to be applied is controlled in such a way that only as much water as necessary for humidifying the humidifier medium is applied and no water escapes at the bottom of the humidifier medium. the water supply is regulated according to the measured value of a return air sensor which is located in the return air flow, the amount of water to be applied is controlled in such a way that only as much water as necessary for humidifying the humidifier medium is applied and no water escapes at the bottom of the humidifier medium.
A method of coating a food or beverage can, the method comprising: providing a coating composition comprising an emulsion polymerized latex polymer, wherein the emulsion polymerized latex polymer: (i) comprises a reaction product of an ethylenically unsaturated monomer component polymerized in the presence of an aqueous dispersion of a polymer salt, wherein the ethylenically unsaturated monomer component includes at least one oxirane functional group-containing monomer, and (ii) is substantially free of bound bisphenol A and aromatic glycidyl ether compounds; and applying the coating composition to a metal substrate prior to or after forming the metal substrate into a food or beverage can or portion thereof. providing a coating composition comprising an emulsion polymerized latex polymer, wherein the emulsion polymerized latex polymer: (i) comprises a reaction product of an ethylenically unsaturated monomer component polymerized in the presence of an aqueous dispersion of a polymer salt, wherein the ethylenically unsaturated monomer component includes at least one oxirane functional group-containing monomer, and (ii) is substantially free of bound bisphenol A and aromatic glycidyl ether compounds; and (i) comprises a reaction product of an ethylenically unsaturated monomer component polymerized in the presence of an aqueous dispersion of a polymer salt, wherein the ethylenically unsaturated monomer component includes at least one oxirane functional group-containing monomer, and (ii) is substantially free of bound bisphenol A and aromatic glycidyl ether compounds; and applying the coating composition to a metal substrate prior to or after forming the metal substrate into a food or beverage can or portion thereof.
A method of constructing a database for localizing wireless devices, the method comprising: receiving, by a first network element, a plurality of records from a second network element; determining a first segment; assigning a first drive test record of the plurality of records to the first segment; determining a second segment, wherein a first area of the first segment is not equal to a second area of the second segment; and assigning a second drive test record of the plurality of records to the second segment, wherein each drive test record includes at least a location of a measurement point and a cell identification, ID, of a serving cell, characterized in that before the steps of assigning the method further comprises, for each drive test record: computing a distance between said location and the serving cell; determining whether the distance is between a pre-set minimum distance and a pre-set maximum distance; and if the distance is less than the minimum distance or greater than the maximum distance, discarding the drive test record. receiving, by a first network element, a plurality of records from a second network element; determining a first segment; assigning a first drive test record of the plurality of records to the first segment; determining a second segment, wherein a first area of the first segment is not equal to a second area of the second segment; and assigning a second drive test record of the plurality of records to the second segment, wherein each drive test record includes at least a location of a measurement point and a cell identification, ID, of a serving cell, computing a distance between said location and the serving cell; determining whether the distance is between a pre-set minimum distance and a pre-set maximum distance; and if the distance is less than the minimum distance or greater than the maximum distance, discarding the drive test record.
A method of manufacturing a synthetic marble comprising the steps of: (a) kneading the raw material of the synthetic marble; (b) making the kneaded material into a sheet; (c) putting and mulling sheets of at least two kinds in a kneader; (d) putting and mulling pearl pigments; (e) making the mulled material into a sheet; (f) coating a mixture of 100 parts by weight of unsaturated polyester resin, 1,0 parts by weight of t-butyl hydroperoxy butyrate, 100 parts by weight of a compound with a pencil hardness of 7 to 9 which is silica, and 10 parts by weight of zinc stearates to the sheet; and (g) charging and casting the coated compound in a mold, and removing the form, and cooling the formed product, wherein the casting pressure is 5 to 50 kg/cm 2 and casting temperature is 30 to 150°C. (a) kneading the raw material of the synthetic marble; (b) making the kneaded material into a sheet; (c) putting and mulling sheets of at least two kinds in a kneader; (d) putting and mulling pearl pigments; (e) making the mulled material into a sheet; (f) coating a mixture of 100 parts by weight of unsaturated polyester resin, 1,0 parts by weight of t-butyl hydroperoxy butyrate, 100 parts by weight of a compound with a pencil hardness of 7 to 9 which is silica, and 10 parts by weight of zinc stearates to the sheet; and (g) charging and casting the coated compound in a mold, and removing the form, and cooling the formed product, wherein the casting pressure is 5 to 50 kg/cm 2 and casting temperature is 30 to 150°C.
Method for producing a semiconductor component, in which a recess trench is produced through an opening in a protective layer in an underlying semiconductor region, and a narrow electrode foot is produced through the opening in the protective layer and a wider electrode head of a metallic electrode is produced thereabove, wherein the electrode metal for the electrode foot and the electrode head is deposited continuously over the entire surface onto the protective layer and in its opening and the structure of the electrode head is etched in the metal layer up to the protective layer and thereafter the protective layer is removed and a space is produced which is initially open toward a side remote from the electrode foot and is surrounded on a plurality of sides by the semiconductor region, electrode foot and electrode head, and the opening of the initially open space is closed off by a subsequently deposited passivation layer and a closed off, gas-filled cavity is produced, wherein, after the open space has been produced, at least the semiconductor surface of the recess trench is covered with the passivation layer, and wherein said passivation layer is grown so long or so thick that the initially open space is closed off by the material of said passivation layer and the initially open space has a cavity that is not filled with passivation material as the gas-filled cavity, wherein the layer growth of the passivation layer in the initially open space is weaker than outside the initially open space.
A stably transformed duckweed plant or culture transformed with a gene expressing a BTV antigen or fragment or variant thereof; wherein the antigen or fragment or variant thereof has at least 80% sequence identity to the sequence as set forth in SEQ ID NO: 4, 6, or 10 and/or wherein the duckweed plant or culture comprises a plasmid for plant transformation comprising a DNA fragment having at least 70% sequence identity to the sequence as set forth in SEQ ID NO: 1, 2, 3, 5, 7, 8, or 9.
A method of performing electrophoresis utilizing a capillary, the method comprising: filling the capillary with a separating medium; applying a voltage to a current-carrying path including the separating medium prior to performing electrophoresis, the applied voltage being smaller than a voltage that is applied during electrophoresis; detecting a first value of the electric current flowing in the current-carrying path; determining a state of the current-carrying path based on the first value of the electric current either as suitable or not suitable for electrophoresis, wherein the state of the current-carrying path is determined as not suitable when the first value of the electric current is smaller than a predetermined value; applying a predetermined voltage to start electrophoresis; performing electrophoresis while detecting (402, 403) a second value of the electric current flowing in the separating medium after determining that the state of the current-carrying path is suitable for electrophoresis, and terminating (407, 408) performing electrophoresis based on the detected second value of the electric current; wherein detecting a second value of an electric current includes calculating an average value of the electric current over a predetermined period of time, and electrophoresis is terminated when the rate of change of the average value of the electric current exceeds a predetermined value. filling the capillary with a separating medium; applying a voltage to a current-carrying path including the separating medium prior to performing electrophoresis, the applied voltage being smaller than a voltage that is applied during electrophoresis; detecting a first value of the electric current flowing in the current-carrying path; determining a state of the current-carrying path based on the first value of the electric current either as suitable or not suitable for electrophoresis, wherein the state of the current-carrying path is determined as not suitable when the first value of the electric current is smaller than a predetermined value; applying a predetermined voltage to start electrophoresis; performing electrophoresis while detecting (402, 403) a second value of the electric current flowing in the separating medium after determining that the state of the current-carrying path is suitable for electrophoresis, and terminating (407, 408) performing electrophoresis based on the detected second value of the electric current; wherein detecting a second value of an electric current includes calculating an average value of the electric current over a predetermined period of time, and electrophoresis is terminated when the rate of change of the average value of the electric current exceeds a predetermined value.
A method for transmitting control information by a base station in an orthogonal frequency division multiplexing, OFDM, system, the method comprising: spreading, by the base station, acknowledgement, ACK, information by applying a code from a set of codes; mapping, by the base station, the spread ACK information to subcarriers in a pattern for increasing diversity gain of the spread ACK information; encoding, by the base station, other control information based on a channel encoding scheme without spreading; multiplexing, by the base station, the spread ACK information mapped to the subcarriers and the encoded other control information; and transmitting the multiplexed information to at least one terminal. spreading, by the base station, acknowledgement, ACK, information by applying a code from a set of codes; mapping, by the base station, the spread ACK information to subcarriers in a pattern for increasing diversity gain of the spread ACK information; encoding, by the base station, other control information based on a channel encoding scheme without spreading; multiplexing, by the base station, the spread ACK information mapped to the subcarriers and the encoded other control information; and transmitting the multiplexed information to at least one terminal.
A multi-stage centrifugal pump with a foot part, a head part, a wall part (16, 16') which connects the foot part to the head part and surrounds the pump stages at the outer periphery, and with a motor stool connecting to the head part and for receiving an electric motor provided for the drive of the centrifugal pump, characterised in that the wall part (16, 16') projects in the axial direction beyond the head part and is connected to the motor stool.
A thermosetting resin composition comprising: an epoxy compound having an isocyanuric acid ring represented by the following formula: wherein in the formula, at least one of X, Y and Z is a group containing an epoxy ring, and when X, Y or Z contains no epoxy ring, X, Y or Z containing no epoxy ring is an atom of H, a group composed only of C and H, or a group composed only of C, H and O; a solid lubricant; and a curing agent which is an acid anhydride. an epoxy compound having an isocyanuric acid ring represented by the following formula: wherein in the formula, at least one of X, Y and Z is a group containing an epoxy ring, and when X, Y or Z contains no epoxy ring, X, Y or Z containing no epoxy ring is an atom of H, a group composed only of C and H, or a group composed only of C, H and O; a solid lubricant; and a curing agent which is an acid anhydride.