mhurhangee/ep-ind-claims huggingface dataset:
A broadcast receiving apparatus, comprising: a tuner unit; an input/output unit connectable to an external display apparatus; a built-in speaker; and a control unit configured to control the tuner unit, the input/output unit, and the built-in speaker, and to detect status information of the display apparatus through the input/output unit, wherein the control unit is arranged to decode a broadcast signal received through the tuner unit and output audio included in the decoded broadcast signal, wherein, when the status information of the display apparatus indicates a power-on state, the control unit is arranged to output the audio to the built-in speaker and to a speaker associated with the display apparatus or only to the built-in speaker, and when the status information of the display apparatus indicates a power-off state, the control unit is arranged to output the audio only to the built-in speaker, and characterized in that the control unit is configured to, in response to the detected status information indicating that the external display apparatus is on, cause a pop-up to be displayed on a screen of the external display apparatus, the pop-up configured to allow a user to select between at least a mode where only the broadcast receiving apparatus outputs audio and a mode in which both the broadcast receiving apparatus and the external display apparatus output audio. a tuner unit; an input/output unit connectable to an external display apparatus; a built-in speaker; and a control unit configured to control the tuner unit, the input/output unit, and the built-in speaker, and to detect status information of the display apparatus through the input/output unit, wherein the control unit is arranged to decode a broadcast signal received through the tuner unit and output audio included in the decoded broadcast signal, wherein, when the status information of the display apparatus indicates a power-on state, the control unit is arranged to output the audio to the built-in speaker and to a speaker associated with the display apparatus or only to the built-in speaker, and when the status information of the display apparatus indicates a power-off state, the control unit is arranged to output the audio only to the built-in speaker, and characterized in that the control unit is configured to, in response to the detected status information indicating that the external display apparatus is on, cause a pop-up to be displayed on a screen of the external display apparatus, the pop-up configured to allow a user to select between at least a mode where only the broadcast receiving apparatus outputs audio and a mode in which both the broadcast receiving apparatus and the external display apparatus output audio.
A method comprising: controlling, by means of a computing device (100; 158) comprising a processor, a mass flow device to mix gases at a plurality of concentrations so as to provide a sequence of concentrations of a gas over a range of concentrations to a gas tube included in a chamber; controlling, by the computing device (100; 158), a temperature of the chamber over a temperature range; reading, by the computing device (100; 158), gas absorbance values from a first detector included in the chamber over the plurality of concentrations and over the temperature range; generating, by the computing device (100; 158), at least one of a look-up table and a mathematical formula mapping the absorbance values to the gas concentrations as a file configured to be downloaded to a second detector; and causing the at least one of the look-up table and the mathematical formula to be stored in the second detector. controlling, by means of a computing device (100; 158) comprising a processor, a mass flow device to mix gases at a plurality of concentrations so as to provide a sequence of concentrations of a gas over a range of concentrations to a gas tube included in a chamber; controlling, by the computing device (100; 158), a temperature of the chamber over a temperature range; reading, by the computing device (100; 158), gas absorbance values from a first detector included in the chamber over the plurality of concentrations and over the temperature range; generating, by the computing device (100; 158), at least one of a look-up table and a mathematical formula mapping the absorbance values to the gas concentrations as a file configured to be downloaded to a second detector; and causing the at least one of the look-up table and the mathematical formula to be stored in the second detector.
A door frame, in particular for sectional doors and up-and-over doors, with frame side parts and foot angle pieces for fastening the frame side parts at the bottom, wherein the frame side parts comprise a metallic angle section, which comprises a front face parallel to the door opening and a leg orientated normal thereto at the outer side of the frame, and wherein the foot angle piece in each case comprises a bottom face and at least one flap projecting vertically from the bottom face and fastened to the angle section, characterised in that the lower edge of the angle section fastened to the foot angle piece has a spacing (a) of more than 5 mm at the bottom side, that the flap of the foot angle piece is constituted stepped and that the angle section is fastened to an outwardly projecting portion of the flap, in such a way that a gap (s 1, s 2) with a gap width of at least 2 mm is formed between the lower edge of the angle section and vertical faces of the foot angle piece.
A method for suspending birds having body, neck, legs and possibly head and feet from an overhead conveyor, comprising the following sequence of steps: A) each bird is arranged in a holder with its legs and/or feet projecting from a first opening therein and its neck at a neck end of the holder, B) orientation of the legs and/or feet is determined, C) the bird is rotated about an axis of rotation extending between a plane defined by the first opening of the holder and a plane defined by the neck end of holder until a predetermined orientation of the legs and/or feet is reached, and D) the legs and/or feet of the bird are arranged in a shackle on the conveyor. A) each bird is arranged in a holder with its legs and/or feet projecting from a first opening therein and its neck at a neck end of the holder, B) orientation of the legs and/or feet is determined, C) the bird is rotated about an axis of rotation extending between a plane defined by the first opening of the holder and a plane defined by the neck end of holder until a predetermined orientation of the legs and/or feet is reached, and D) the legs and/or feet of the bird are arranged in a shackle on the conveyor.
A solar power generation system comprising: a solar module in which a plurality of solar cells are connected in series; a power converter connected to the solar module, the power converter being configured to control an output voltage of the solar module such that the output voltage matches a target output voltage; and a control device configured to determine the target output voltage, characterised in that the control device is configured to determine a lower limit value of the target output voltage based on a following general formula, V TL I rr T = V OC I rr T ⋅ n − 1 n − V BD T − α where I rr denotes a used light intensity and wherein the used light intensity is the light intensity received by the solar module when the solar module is in use, T denotes a temperature of the solar module, V TL (I rr, T) denotes the lower limit value of the target output voltage under the used light intensity and the temperature, V OC (I rr, T) denotes an open-circuit voltage of the solar module under the used light intensity and the temperature, n denotes the number of the solar cells connected in series, V BD denotes a positive value of a reverse breakdown voltage of one of the solar cells at the temperature, and α denotes a tolerable error. a solar module in which a plurality of solar cells are connected in series; a power converter connected to the solar module, the power converter being configured to control an output voltage of the solar module such that the output voltage matches a target output voltage; and a control device configured to determine the target output voltage, characterised in that the control device is configured to determine a lower limit value of the target output voltage based on a following general formula, V TL I rr T = V OC I rr T ⋅ n − 1 n − V BD T − α where I rr denotes a used light intensity and wherein the used light intensity is the light intensity received by the solar module when the solar module is in use, T denotes a temperature of the solar module, V TL (I rr, T) denotes the lower limit value of the target output voltage under the used light intensity and the temperature, V OC (I rr, T) denotes an open-circuit voltage of the solar module under the used light intensity and the temperature, n denotes the number of the solar cells connected in series, V BD denotes a positive value of a reverse breakdown voltage of one of the solar cells at the temperature, and α denotes a tolerable error.
A steerable beam antenna, comprising a rotatable drum having a drum surface configured as a diffraction grating, and a waveguide feed, the waveguide feed comprising: first and second conductive metal bases extending axially along the length of the drum, each of the bases having an inner surface spaced from and opposed to the inner surface of the other base, and a proximal surface spaced from the drum surface by a gap; and first and second conductive metal plates extending distally from the first and second conductive metal bases, respectively, the first and second plates being parallel to each other and having respective inner surfaces separated by an inter-plate space; and characterized by the waveguide feed further comprising: first and second dielectric strips flush-mounted on the inner surfaces of the first and second conductive metal bases, respectively, the first dielectric strip extending longitudinally along the inner surface of the first base, and the second dielectric strip extending longitudinally along the inner surface of the second base, opposite the first dielectric strip. first and second conductive metal bases extending axially along the length of the drum, each of the bases having an inner surface spaced from and opposed to the inner surface of the other base, and a proximal surface spaced from the drum surface by a gap; and first and second conductive metal plates extending distally from the first and second conductive metal bases, respectively, the first and second plates being parallel to each other and having respective inner surfaces separated by an inter-plate space; and characterized by the waveguide feed further comprising: first and second dielectric strips flush-mounted on the inner surfaces of the first and second conductive metal bases, respectively, the first dielectric strip extending longitudinally along the inner surface of the first base, and the second dielectric strip extending longitudinally along the inner surface of the second base, opposite the first dielectric strip.
An embolic obstruction retrieval device comprising; an elongate self-expandable member (12, 112) having a radially expanded configuration and a radially unexpanded configuration, the elongate self-expandable member (12, 112) comprising a plurality of generally longitudinal undulating elements with adjacent undulating elements being interconnected in a manner to form a plurality of diagonally disposed cell structures, the elongate self-expandable member (12, 112) having a proximal antenna, a proximal end portion and a cylindrical main body portion comprising a proximal section and a distal section, the cell structures in the cylindrical main body portion extending circumferentially around a longitudinal axis of the elongate self-expandable member (12, 112), the cell structures in the proximal end portion extending less than circumferentially around the longitudinal axis of the elongate self-expandable member (12, 112), the cell structures in the cylindrical main body portion comprising proximal and distal flexure elements that are interconnected by a pair of diagonally extending and circumferentially spaced-apart struts (670a, 670b, 671) the proximal and distal flexure elements each having a short leg and a long leg, characterized in that at least some of the diagonally extending and circumferentially spaced-apart struts (670a, 670b, 671) having one or more wires or ribbons (661, 662, 663) wound thereabout so as to enhance the average deflection stiffness of all or a portion of the cylindrical main body portion when the elongate self-expandable member is in the radially expanded configuration, the long legs of the proximal and distal flexure elements being free or substantially free of the wires or ribbons (661, 662, 663) wound thereabout. the proximal and distal flexure elements each having a short leg and a long leg, characterized in that at least some of the diagonally extending and circumferentially spaced-apart struts (670a, 670b, 671) having one or more wires or ribbons (661, 662, 663) wound thereabout so as to enhance the average deflection stiffness of all or a portion of the cylindrical main body portion when the elongate self-expandable member is in the radially expanded configuration, the long legs of the proximal and distal flexure elements being free or substantially free of the wires or ribbons (661, 662, 663) wound thereabout.
A membrane electrode assembly comprising a gas diffusion electrode, a membrane, and a catalytic layer positioned between or inside the gas diffusion electrode and the membrane, wherein the catalytic layer comprises a graduated ionomer concentration wherein a higher concentration of ionomer is found closest to the membrane and a lower concentration of ionomer is found closest to the gas diffusion electrode; and wherein the catalytic layer further comprises a graduated degree of hydrophobicity such that water in the MEA is directed away from the membrane and towards the gas diffusion layer; and wherein the catalytic layer further comprises catalytic material having a higher surface area concentrated towards the gas diffusion layer and catalytic material having a lower surface area concentrated towards the membrane.
A wireless device configured to operate in a cellular communications network, comprising: a radio subsystem; and a processing subsystem associated with the radio subsystem configured to: receive, via the radio subsystem, a downlink subframe comprising a downlink control channel from the cellular communications network, a search space of the wireless device with respect to the downlink control channel comprising one or more sets of downlink control channel physical resources; and estimate one or more large-scale channel properties for an antenna port of interest in a set of downlink control channel physical resources in the search space of the wireless device based on a subset of a plurality of reference signals corresponding to antenna ports in the cellular communications network that are quasi co-located with the antenna port of interest with respect to the one or more large-scale channel properties, the antenna ports that are quasi co-located with the antenna port of interest comprising at least a subset of antenna ports in the same set of downlink control channel physical resources in the search space of the wireless device. a radio subsystem; and a processing subsystem associated with the radio subsystem configured to: receive, via the radio subsystem, a downlink subframe comprising a downlink control channel from the cellular communications network, a search space of the wireless device with respect to the downlink control channel comprising one or more sets of downlink control channel physical resources; and estimate one or more large-scale channel properties for an antenna port of interest in a set of downlink control channel physical resources in the search space of the wireless device based on a subset of a plurality of reference signals corresponding to antenna ports in the cellular communications network that are quasi co-located with the antenna port of interest with respect to the one or more large-scale channel properties, the antenna ports that are quasi co-located with the antenna port of interest comprising at least a subset of antenna ports in the same set of downlink control channel physical resources in the search space of the wireless device. receive, via the radio subsystem, a downlink subframe comprising a downlink control channel from the cellular communications network, a search space of the wireless device with respect to the downlink control channel comprising one or more sets of downlink control channel physical resources; and estimate one or more large-scale channel properties for an antenna port of interest in a set of downlink control channel physical resources in the search space of the wireless device based on a subset of a plurality of reference signals corresponding to antenna ports in the cellular communications network that are quasi co-located with the antenna port of interest with respect to the one or more large-scale channel properties, the antenna ports that are quasi co-located with the antenna port of interest comprising at least a subset of antenna ports in the same set of downlink control channel physical resources in the search space of the wireless device.
A device for measuring scattered light from a measurement volume with compensation for background signals, comprising • at least one light sensor having at least two separately evaluable light-sensitive elements (1a, 1b), • a single imaging optical system, wherein the light-sensitive elements (1a, 1b) are arranged in the image plane and the measurement volume is arranged in the corresponding object plane of the optical system, the visual ranges of the light-sensitive elements (1a, 1b) are completely separate from each other in the object plane and overlap each other behind the object plane, • a light transmitter with a collimated light beam, which only passes through, or at least primarily passes through, the visual range of the one light-sensitive element within an area extending through the object plane and bordering the measured volume such that this light-sensitive element detects scattered light from the measurement volume and background light from the overlapping visual ranges behind the subject plane, and the other light-sensitive element detects no or significantly less scattered light from the measurement volume and background light from the overlapping visual areas behind the object plane, characterized in that the device • comprises a diaphragm that is arranged between the optical system and the light-sensitive elements (1a, 1b) and that restricts the visual ranges of the light-sensitive elements (1a, 1b) behind the object plane • such that the areas of the two visual ranges which do not overlap each other are partially or completely hidden. • at least one light sensor having at least two separately evaluable light-sensitive elements (1a, 1b), • a single imaging optical system, wherein the light-sensitive elements (1a, 1b) are arranged in the image plane and the measurement volume is arranged in the corresponding object plane of the optical system, the visual ranges of the light-sensitive elements (1a, 1b) are completely separate from each other in the object plane and overlap each other behind the object plane, • a light transmitter with a collimated light beam, which only passes through, or at least primarily passes through, the visual range of the one light-sensitive element within an area extending through the object plane and bordering the measured volume such that this light-sensitive element detects scattered light from the measurement volume and background light from the overlapping visual ranges behind the subject plane, and the other light-sensitive element detects no or significantly less scattered light from the measurement volume and background light from the overlapping visual areas behind the object plane, characterized in that the device • comprises a diaphragm that is arranged between the optical system and the light-sensitive elements (1a, 1b) and that restricts the visual ranges of the light-sensitive elements (1a, 1b) behind the object plane • such that the areas of the two visual ranges which do not overlap each other are partially or completely hidden.
A high-strength and high-toughness magnesium alloy, wherein the alloy is a Mg-Al-Bi-Sb-Zn-Sr-Y-Mn alloy, prepared from the following components in percentage by mass: 7.0 to 10.0 percent of Al, 0.2 to 2.0 percent of Bi, 0.2 to 0.8 percent of Sb, 0.2 to 0.5 percent of Zn, 0.1 to 0.5 percent of Sr, 0.03 to 0.3 percent of Y, 0.05 to 0.1 percent of Mn and the balance of Mg.
A two-part composition comprising: A) in one part (i) one or more isocyanate functional prepolymers; and B) in a second part (ii) one or more compounds having isocyanate reactive groups; (iii) one or more fillers selected such that the composition is nonconductive; and (iv) one or more catalysts for the reaction of isocyanate groups with isocyanate reactive compounds: wherein either or both of the one or more isocyanate functional prepolymers and the one or more compounds having isocyanate reactive groups have solid organic particles grafted thereto such that the composition contains from 6 to 13 percent by weight of the total composition of the solid organic particles: wherein the second part comprises from 35 to 65 percent by weight of compounds having isocyanate reactive groups and solid organic particles grafted to the backbone of the compounds. A) in one part (i) one or more isocyanate functional prepolymers; and B) in a second part (ii) one or more compounds having isocyanate reactive groups; (iii) one or more fillers selected such that the composition is nonconductive; and (iv) one or more catalysts for the reaction of isocyanate groups with isocyanate reactive compounds: wherein either or both of the one or more isocyanate functional prepolymers and the one or more compounds having isocyanate reactive groups have solid organic particles grafted thereto such that the composition contains from 6 to 13 percent by weight of the total composition of the solid organic particles: wherein the second part comprises from 35 to 65 percent by weight of compounds having isocyanate reactive groups and solid organic particles grafted to the backbone of the compounds. (iii) one or more fillers selected such that the composition is nonconductive; and (iv) one or more catalysts for the reaction of isocyanate groups with isocyanate reactive compounds: wherein either or both of the one or more isocyanate functional prepolymers and the one or more compounds having isocyanate reactive groups have solid organic particles grafted thereto such that the composition contains from 6 to 13 percent by weight of the total composition of the solid organic particles: wherein the second part comprises from 35 to 65 percent by weight of compounds having isocyanate reactive groups and solid organic particles grafted to the backbone of the compounds.
A medical instrument, in particular a surgical instrument, with an intervention portion for a medical intervention, and with a grip designed for holding the instrument, preferably for actuating the intervention portion, with a grip surface portion which is made of a stainless metal and which has an arrangement with shapings and, formed between the shapings, enclosure portions (4, 5, 6, 7), characterized in that the shapings each have a hexagonal edge with six edge portions of equal length (3-1, 3-2, 3-3, 3-4, 3-5, 3-6), that mutually adjoining edge portions (3-1, 3-2; 3-2, 3-3;...) of each shaping upstream and/or downstream of a winding of the arrangement on a plane surface span the same angle (φ) of 120 degrees, and that the edge is formed by the enclosure portions (4, 5, 6, 7) formed between adjacent shapings, as a result of which a honeycomb structure is obtained.