mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communication, the method comprising: receiving a first signal at a user equipment, UE, from a transmitting device using a first beam for beamformed wireless communication between the transmitting device and the UE, wherein the first beam uses a first set of one or more antenna elements of the UE; determining a channel quality metric associated with a channel between the UE and the transmitting device based on a measurement of a reference signal received on the first beam from the transmitting device; identifying a type of the reference signal used for determining the channel quality metric; selecting a channel quality threshold from a plurality of different thresholds based on the identification of the type of the reference signal used for determining the channel quality metric; comparing the channel quality metric with the channel quality threshold; adjusting a number of antenna elements used for beamformed wireless communication between the transmitting device and the UE based on the comparison between the channel quality metric and the channel quality threshold; and receiving a second signal at the UE from the transmitting device using a second beam for beamformed wireless communication between the transmitting device and the UE, wherein the second beam uses a second set of one or more antenna elements of the UE that has a different number of antenna elements than the first set of one or more antenna elements based on the adjustment of the number of antenna elements used for beamformed wireless communication between the transmitting device and the UE. receiving a first signal at a user equipment, UE, from a transmitting device using a first beam for beamformed wireless communication between the transmitting device and the UE, wherein the first beam uses a first set of one or more antenna elements of the UE; determining a channel quality metric associated with a channel between the UE and the transmitting device based on a measurement of a reference signal received on the first beam from the transmitting device; identifying a type of the reference signal used for determining the channel quality metric; selecting a channel quality threshold from a plurality of different thresholds based on the identification of the type of the reference signal used for determining the channel quality metric; comparing the channel quality metric with the channel quality threshold; adjusting a number of antenna elements used for beamformed wireless communication between the transmitting device and the UE based on the comparison between the channel quality metric and the channel quality threshold; and receiving a second signal at the UE from the transmitting device using a second beam for beamformed wireless communication between the transmitting device and the UE, wherein the second beam uses a second set of one or more antenna elements of the UE that has a different number of antenna elements than the first set of one or more antenna elements based on the adjustment of the number of antenna elements used for beamformed wireless communication between the transmitting device and the UE.
An apparatus for making an absorbent structure for an absorbent article, comprising a first and second supporting sheet (16, 16') and therebetween an absorbent layer, the absorbent layer comprising an absorbent material, the apparatus comprising: a) transfer means for transferring the first and second supporting sheets (16, 16') to first and second moving endless surfaces; b) a feeder for feeding the absorbent material onto at least the first supporting sheet at a depositing point on the first moving endless surface, the absorbent material forming absorbent regions upon the first supporting sheet, and one or more channels between the absorbent regions, the channels being free of absorbent material; c) an adhesive applicator for applying adhesive to at least one of the first and second supporting sheets (16, 16'), at least within a region of the channels; characterized in that the first moving endless surface comprises one or more longitudinally extending first mating strips, and the second moving endless surface comprises corresponding longitudinally extending second mating strips, the first and second mating strips acting upon each other by applying pressure to the first and second supporting sheets (16, 16') at least within a part of an area of the channels, so as to adhere together the first and second supporting sheets (16, 16'). a) transfer means for transferring the first and second supporting sheets (16, 16') to first and second moving endless surfaces; b) a feeder for feeding the absorbent material onto at least the first supporting sheet at a depositing point on the first moving endless surface, the absorbent material forming absorbent regions upon the first supporting sheet, and one or more channels between the absorbent regions, the channels being free of absorbent material; c) an adhesive applicator for applying adhesive to at least one of the first and second supporting sheets (16, 16'), at least within a region of the channels;
A process for producing a two-stage cross-linked biopolymer membrane for corneal trauma repair, being characterized by that the process lies in preparation of a mixed solution of biopolymers consisting of collagen and chitosan, dropwise adding a solution of the primary crosslinking agent from the group of tannins and pouring the solution onto a flat pad and then drying to form a thin primary cross-linked chitosan-collagen membrane with a thickness after drying of 5 to 10 μm and this is then cross-linked in the second stage with a solution of genipin as a secondary crosslinking agent.
Method for controlling the temperature of an electrodynamic loudspeaker comprising a diaphragm excited by an electric motor supplied with an excitation signal, characterized in that it comprises the steps consisting of: a. obtaining the spectral distribution of the electrical impedance of the motor at time t 1; b. identifying an impedance peak in a predefined frequency range of the spectral distribution obtained in step a); c. determining the frequency difference between the centre frequency, Fc 1, of the impedance peak identified in step b) and the centre frequency, Fc 0, of an impedance peak, identified in the same predefined frequency range in an electrical impedance spectral distribution of the motor obtained at a time t 0 prior to t 1; d. obtaining a correlational relationship between the frequency difference ( Fc 0 -Fc 1) and the temperature of said loudspeaker; e. determining (640, 670) the temperature of the loudspeaker as a function of the result of step c) and the correlation of step d); in that steps a) to e) are repeated for each time period δ t = ( t 1 - t 0) when the loudspeaker is in operation; in that it comprises, after step e), a step consisting of: f. decreasing (670, 695) the power of the excitation signal in a frequency band, referred to as the thermal band, if the temperature determined in step e) exceeds a critical threshold; and in that the spectral distribution of the impedance is obtained in step a) by measuring a transfer function between a signal that is proportional to the current of the analogue excitation signal of the loudspeaker and the delayed digital excitation signal of said loudspeaker. a. obtaining the spectral distribution of the electrical impedance of the motor at time t 1; b. identifying an impedance peak in a predefined frequency range of the spectral distribution obtained in step a); c. determining the frequency difference between the centre frequency, Fc 1, of the impedance peak identified in step b) and the centre frequency, Fc 0, of an impedance peak, identified in the same predefined frequency range in an electrical impedance spectral distribution of the motor obtained at a time t 0 prior to t 1; d. obtaining a correlational relationship between the frequency difference ( Fc 0 -Fc 1) and the temperature of said loudspeaker; e. determining (640, 670) the temperature of the loudspeaker as a function of the result of step c) and the correlation of step d); f. decreasing (670, 695) the power of the excitation signal in a frequency band, referred to as the thermal band, if the temperature determined in step e) exceeds a critical threshold;
An aqueous dispersion of biodegradable polyester comprising a copolymer of 3-hydroxybutyrate and 3-hydroxyhexanoate, wherein said copolymer has a flexural modulus of 100 to 1500 MPa as measured according to JIS K7171, and a weight average molecular weight of 50,000 to 3,000,000; wherein said copolymer within said aqueous dispersion has an average particle size of 0.1 to 50 μm and a composition ratio of 3-hydroxybutyrate/3-hydroxyhexanoate is 95 to 85/5 to 15 (% by mole), wherein solid content concentration of said copolymer within said aqueous dispersion is 5 to 70% by weight
Device for electrically connecting electric household appliances or electric tools, comprising a female receptacle provided with two seats (8a, 8b), a male connector which can be inserted inside said female receptacle, where said male connector is provided with a first electrical contact means with a longitudinal axis (A-A), comprising a pin, and a second electrical contact means, comprising a ring, said male connector also being provided with a plastic body to which the first electrical contact means and the second electrical contact means are fixed, characterized in that the first electrical contact means and the second electrical contact means are concentric with each other, said first electric contact means and said second electric contact means can be removably inserted inside said seats (8a, 8b), with which the female receptacle is provided, so as to allow continuous rotation of the male connector with respect to the female receptacle about the longitudinal axis (A-A); said two seats consist of two retaining springs (8a, 8b) which are of a metallic nature and have a substantially cylindrical form with a radius such as to allow insertion and disengagement of the pin and the ring and have suitable elastic properties.
A holder arrangement for a two-wheeler lock of the type of a folding lock, comprising a carrier which extends along a longitudinal axis and has a fastening device (25, 27) for fastening the carrier to a tube section of a two-wheeler, wherein the carrier bounds a reception region for receiving the two-wheeler lock; and a fixing element supported at the carrier and movable between an open position and a closed position for fixing the two-wheeler lock in the reception region, wherein a support element is provided at the carrier and supports the two-wheeler lock received in the reception region against a movement along the longitudinal axis of the carrier, with the support element projecting from the carrier along a transverse axis aligned transversely to the longitudinal axis and being configured to engage into a cut-out of the two-wheeler lock; and wherein the fixing element is configured to block the two-wheeler lock against a removal from the support element along the transverse axis in the closed position, characterized in that the support element is the only element of the holder arrangement which supports the two-wheeler lock received in the reception region against a movement along the longitudinal axis of the carrier in the open position of the fixing element.
A method for producing a denture, in particular a crown, a bridge or a bar, with the steps - producing a metallic framework, wherein the proportion of titanium or a titanium alloy in the metallic framework is above 80 % by weight, - producing a ceramic veneer, wherein the ceramic veneer comprises zirconium dioxide as a main component, wherein the proportion of zirconium dioxide is at least 50 % by weight, - applying at least one joining layer onto the metallic framework and/or onto the ceramic veneer, wherein the joining layer contains a proportion of silicon dioxide of more than 60 % by weight and a proportion of aluminium oxide of less than 12 % by weight, - applying the ceramic veneer onto the metallic framework, wherein the joining layer is arranged between the metallic framework and the ceramic veneer, and - joint burning of the metallic framework, the joining layer and the ceramic veneer, whereby the joining layer firmly bonds the metallic framework with the ceramic veneer. - producing a metallic framework, wherein the proportion of titanium or a titanium alloy in the metallic framework is above 80 % by weight, - producing a ceramic veneer, wherein the ceramic veneer comprises zirconium dioxide as a main component, wherein the proportion of zirconium dioxide is at least 50 % by weight, - applying at least one joining layer onto the metallic framework and/or onto the ceramic veneer, wherein the joining layer contains a proportion of silicon dioxide of more than 60 % by weight and a proportion of aluminium oxide of less than 12 % by weight, - applying the ceramic veneer onto the metallic framework, wherein the joining layer is arranged between the metallic framework and the ceramic veneer, and - joint burning of the metallic framework, the joining layer and the ceramic veneer, whereby the joining layer firmly bonds the metallic framework with the ceramic veneer.
An electronic cigarette comprising: an atomizer, with a first storage chamber formed in an end thereof; a first elastic element, received in the first storage chamber; a first push pin, slidably received in the first storage chamber; the first push pin capable of sliding along an axial direction of the first storage chamber; an end of the first push pin abutting against the first elastic element; a power source assembly, with a second storage chamber formed in an end thereof that is closer to the atomizer; a second elastic element, received in the second storage chamber; a second push pin, slidably received in the second storage chamber; the second push pin capable of sliding along an axial direction of the second storage chamber; an end of the second push pin abutting against the second elastic element; and a connector, an end thereof pivotally connected to the atomizer; an opposite end thereof pivotally connected to the power source assembly; an opposite end of the first push pin abutting against the connector; an opposite end of the second push pin abutting against the connector; wherein when the atomizer or the power source assembly is rotating round the connector, the first push pin is capable of sliding along a surface of the connector and the second push pin is capable of sliding along another surface of the connector. an atomizer, with a first storage chamber formed in an end thereof; a first elastic element, received in the first storage chamber; a first push pin, slidably received in the first storage chamber; the first push pin capable of sliding along an axial direction of the first storage chamber; an end of the first push pin abutting against the first elastic element; a power source assembly, with a second storage chamber formed in an end thereof that is closer to the atomizer; a second elastic element, received in the second storage chamber; a second push pin, slidably received in the second storage chamber; the second push pin capable of sliding along an axial direction of the second storage chamber; an end of the second push pin abutting against the second elastic element; and a connector, an end thereof pivotally connected to the atomizer; an opposite end thereof pivotally connected to the power source assembly; an opposite end of the first push pin abutting against the connector; an opposite end of the second push pin abutting against the connector; wherein when the atomizer or the power source assembly is rotating round the connector, the first push pin is capable of sliding along a surface of the connector and the second push pin is capable of sliding along another surface of the connector.
Method for adjusting an oscillation frequency of a voltage-controlled and temperature-compensated oscillator of a device, said device accessing an external time or frequency reference (121; 130) to adjust the oscillation frequency of said oscillator according to time or respectively frequency information supplied by said external time reference, said device comprising a temperature sensor and performs the following steps: - determining a variation in ambient temperature of said oscillator over a predetermined time range thanks to measurements by said sensor; and - adjusting a frequency, or a rate, of access to the external time or frequency reference so as to obtain said time or respectively frequency information for adjusting the oscillation frequency of said oscillator, according to the determined variation in temperature. - determining a variation in ambient temperature of said oscillator over a predetermined time range thanks to measurements by said sensor; and - adjusting a frequency, or a rate, of access to the external time or frequency reference so as to obtain said time or respectively frequency information for adjusting the oscillation frequency of said oscillator, according to the determined variation in temperature.
A method of slicing and printing multi-colour 3D objects, comprising: a) loading coordinate information of a multi-colour 3D object and executing a path-slicing process to the coordinate information for generating a plurality of path data of a plurality of printing slices (S1-S3); b) loading a colour information of the multi-colour 3D object and generating a plurality of continuous-tone images respectively corresponding to the plurality of the printing slices (S1-S3) according to the colour information; c) calculating a plurality of dithering masks respectively corresponding to the plurality of the printing slices (S1-S3) by shifting an initial mask by a plurality of displacement values, wherein each of the displacement values is defining a shift of each of the dithering masks from layer to layer by an amount of pixels; d) generating a plurality of halftone images respectively corresponding to the plurality of the printing slices (S1-S3) according to each dithering mask of a same layer and each continuous tone image of a same layer; and e) controlling a modeling nozzle of a multi-colour 3D printer to print the plurality of the printing slices (S1-S3) according to the plurality of the path data layer by layer and controlling a coloring nozzle of the multi-colour 3D printer to color each printed printing slice (S1-S3) according to the corresponding halftone image. a) loading coordinate information of a multi-colour 3D object and executing a path-slicing process to the coordinate information for generating a plurality of path data of a plurality of printing slices (S1-S3); b) loading a colour information of the multi-colour 3D object and generating a plurality of continuous-tone images respectively corresponding to the plurality of the printing slices (S1-S3) according to the colour information; c) calculating a plurality of dithering masks respectively corresponding to the plurality of the printing slices (S1-S3) by shifting an initial mask by a plurality of displacement values, wherein each of the displacement values is defining a shift of each of the dithering masks from layer to layer by an amount of pixels; d) generating a plurality of halftone images respectively corresponding to the plurality of the printing slices (S1-S3) according to each dithering mask of a same layer and each continuous tone image of a same layer; and e) controlling a modeling nozzle of a multi-colour 3D printer to print the plurality of the printing slices (S1-S3) according to the plurality of the path data layer by layer and controlling a coloring nozzle of the multi-colour 3D printer to color each printed printing slice (S1-S3) according to the corresponding halftone image.
Pressing pliers comprising a first and second pressing jaws (7,8), wherein the pressing jaws (7, 8) being configured to move relative to each other in a traversing direction (r), each pressing jaw (7, 8) having ribs thereon, each rib being defined by a longitudinal extension transverse to the traversing direction (r), wherein entry openings are formed between adjacent ribs, wherein the ribs of the first pressing jaw are configured to move into the entry openings of the second pressing jaw during a pressing operation, and the ribs of the second pressing jaw are configured to move into the entry openings of the first pressing jaw during the pressing operation, wherein the first and second pressing jaws (7, 8) form a pressing mouth with an opening contour formed by free marginal edges of the ribs, and wherein the ribs form an intersection therebetween that moves in the direction of the longitudinal extension during the pressing operation, wherein a supplemental pressing part is provided between the ribs of the first pressing jaw and the ribs of the second pressing jaw, wherein the supplemental pressing part forms a part of the opening contour, wherein the supplemental pressing part has an extension transverse relative to the longitudinal extension of the ribs, and wherein the supplemental pressing part is overlapping at least two of the rips of the first pressing jaw and the second pressing jaw, characterized in that the intersection is outside of the opening contour.
Roof antenna with a base plate and an outer cover for arranging on a roof of a vehicle, the roof antenna comprising a fastening mechanism which comprises a fastening screw and a fastening claw which interacts with it, the base plate forming a counterholder, on which the fastening claw is fixed, and the fastening claw forming a receiving region for the fastening screw, characterized in that the receiving region is free before the insertion of the fastening screw, with the result that it is possible for the fastening claw to be compressed, and the receiving region being filled by the fastening screw after the insertion of the latter, with the result that the fastening claw cannot be compressed.
Flavour modifying composition comprising one or more flavour modifying compound(s) selected from the group consisting of 4-hydroxy-2-pyrrolidinone, N-methylcaprolactam, 5-methoxy-2-pyrrolidinone or mixtures thereof.
Digester, comprising a container for containing biomass and/or sludge and/or a digestate thereof up to an intended level of said container, characterized by: - a first pressure sensor for measuring a first pressure of gas present in said container, said first pressure sensor being in medium through flow connection with a first, upper part of said container, and - a second pressure sensor for measuring a second pressure of gas or foam present in said container, said second pressure sensor being in medium through flow connection with a second part of said container above said intended level and below said first, upper part, wherein the digester comprises a tube connecting said second pressure sensor with said second part of said container, said tube having an inlet opening arranged just above said intended level. - a first pressure sensor for measuring a first pressure of gas present in said container, said first pressure sensor being in medium through flow connection with a first, upper part of said container, and - a second pressure sensor for measuring a second pressure of gas or foam present in said container, said second pressure sensor being in medium through flow connection with a second part of said container above said intended level and below said first, upper part, wherein