mhurhangee/ep-ind-claims huggingface dataset:
An aerial device capable of controlled flight, the aerial device comprising: a body; a rotor arranged to rotate relative to the body; and a deployable sheet, the deployable sheet comprising a plurality or scored or perforated creases defining a tesselated surface thereof, and the sheet having an undeployed configuration in which the sheet is folded against the body and a deployed configuration in which the sheet is at least partially unfolded away from the body. a body; a rotor arranged to rotate relative to the body; and a deployable sheet, the deployable sheet comprising a plurality or scored or perforated creases defining a tesselated surface thereof, and the sheet having an undeployed configuration in which the sheet is folded against the body and a deployed configuration in which the sheet is at least partially unfolded away from the body.
A method of making charges, the method comprising: forming a combined perimeter shape having no circumferentially enclosed openings by geometrically combining primary perimeter shapes, corresponding to perimeter shapes of the charges, and secondary perimeter shapes, such that symmetry axes of the primary perimeter shapes are parallel to each other, lateral edges of the primary perimeter shapes, adjacent to each other, are at least partially contiguous, and all boundary edges of the combined perimeter shape are either parallel or perpendicular to the symmetry axes of the primary perimeter shapes; contiguously depositing prepreg tows to form prepreg composite plies and laminating the prepreg composite plies together to form a precursor sheet having a precursor combined perimeter shape that circumscribes the combined perimeter shape; and cutting the precursor sheet. forming a combined perimeter shape having no circumferentially enclosed openings by geometrically combining primary perimeter shapes, corresponding to perimeter shapes of the charges, and secondary perimeter shapes, such that symmetry axes of the primary perimeter shapes are parallel to each other, lateral edges of the primary perimeter shapes, adjacent to each other, are at least partially contiguous, and all boundary edges of the combined perimeter shape are either parallel or perpendicular to the symmetry axes of the primary perimeter shapes; contiguously depositing prepreg tows to form prepreg composite plies and laminating the prepreg composite plies together to form a precursor sheet having a precursor combined perimeter shape that circumscribes the combined perimeter shape; and cutting the precursor sheet.
Roller blind device (10a; 10b) for a rear window of a vehicle, having a main body with a fastening interface for fastening the main body in the interior of the vehicle, a winding shaft, mounted on the main body so as to be rotatable around a winding axis by means of a rotary bearing, with a roller blind that can be rolled up and unrolled thereon and two lateral guide devices, each with a guide means for guiding a blind rod of the roller blind during a winding movement, wherein the winding shaft has mounting interfaces at the two axial ends allowing a force-transmitting connection with the respective guide means of the respective guide device, wherein the winding shaft is further supported by means of a compensating bearing on the main body allowing a compensating movement of the winding axis during installation, characterised in that the mounting interfaces are mounted so as to bring about a clamping movement between a preload position and a mounting position under a clamping force, and the main body and/or the guide devices have actuators (24a; 24b) to bring about a movement of the mounting interfaces between the mounting position and the preload position.
A microphone system including: a CMOS-MEMs device layer; a first microphone diaphragm positioned to receive acoustic pressure from a first direction, wherein a positive bias voltage (+HV) is applied to the first diaphragm; a second microphone diaphragm positioned to receive acoustic pressure from the first direction at the same amplitude as the acoustic pressure received by the first microphone diaphragm, wherein a negative bias voltage (-HV) is applied to the second diaphragm; and a differential amplifier configured to receive a positively-biased output from the first microphone diaphragm and a negatively-biased output from the second microphone diaphragm, produce a differential signal based on the positively-biased output and the negatively-biased output, and cancel common-mode interference from the differential signal that is exhibited in both the positively-biased output and the negatively-biased output; characterized in that a lid is positioned above the CMOS-MEMs device layer to form an acoustic channel between the lid and the CMOS-MEMs device layer and an opening in the lid allows acoustic pressure to enter the acoustic channel and cause mechanical deflection of the first microphone diaphragm and the second microphone diaphragm, which are arranged equidistant from the acoustic port within the CMOS-MEMs device layer. a CMOS-MEMs device layer; a first microphone diaphragm positioned to receive acoustic pressure from a first direction, wherein a positive bias voltage (+HV) is applied to the first diaphragm; a second microphone diaphragm positioned to receive acoustic pressure from the first direction at the same amplitude as the acoustic pressure received by the first microphone diaphragm, wherein a negative bias voltage (-HV) is applied to the second diaphragm; and a differential amplifier configured to receive a positively-biased output from the first microphone diaphragm and a negatively-biased output from the second microphone diaphragm, produce a differential signal based on the positively-biased output and the negatively-biased output, and cancel common-mode interference from the differential signal that is exhibited in both the positively-biased output and the negatively-biased output; receive a positively-biased output from the first microphone diaphragm and a negatively-biased output from the second microphone diaphragm, produce a differential signal based on the positively-biased output and the negatively-biased output, and cancel common-mode interference from the differential signal that is exhibited in both the positively-biased output and the negatively-biased output;
Signalling method, intended to be implemented by a cellular telecommunication network comprising a base station which controls at least one first transmission point which serves a first terminal with activatable interference cancellation receiver, the first terminal being liable to suffer interference from a so-called interfering signal intended for a second terminal, the signalling method comprising: - a step of indicators feedback from the first terminal and the second terminal to the network comprising for a terminal an indicator of maximum bitrate with reception without cancellation of interference CQI 1 1, IaN CQI 2 2, IaN due to the interfering signal and furthermore comprising for the first terminal an indicator of maximum bitrate of reception with cancellation of interference due to the interfering signal CQI 1 1, SIC and an indicator of maximum bitrate of reception of the interfering signal CQI 1 2, Agr - a step of determination by the network of the activation or the non activation of the cancellation of interference by the first terminal and of the respective bitrates to be allocated to the first terminal and to the second terminal as a function of the indicators feedback, - a step of notification by the network of the activation or the non activation of the cancellation of interference to the first terminal and of the respective bitrates allocated to the first terminal and to the second terminal, - a step of signalling of the network to the first terminal of the bitrate allocated to the second terminal. - a step of indicators feedback from the first terminal and the second terminal to the network comprising for a terminal an indicator of maximum bitrate with reception without cancellation of interference CQI 1 1, IaN CQI 2 2, IaN due to the interfering signal and furthermore comprising for the first terminal an indicator of maximum bitrate of reception with cancellation of interference due to the interfering signal CQI 1 1, SIC and an indicator of maximum bitrate of reception of the interfering signal CQI 1 2, Agr - a step of determination by the network of the activation or the non activation of the cancellation of interference by the first terminal and of the respective bitrates to be allocated to the first terminal and to the second terminal as a function of the indicators feedback, - a step of notification by the network of the activation or the non activation of the cancellation of interference to the first terminal and of the respective bitrates allocated to the first terminal and to the second terminal, - a step of signalling of the network to the first terminal of the bitrate allocated to the second terminal.
One or more SGLT2 inhibitors or pharmaceutically acceptable forms and/or salts thereof in combination with one or more dopamine receptor agonists or pharmaceutically acceptable forms and/or salts thereof for use in the treatment and/or prevention of a metabolic disorder of an equine animal, wherein the metabolic disorder is one or more disorders selected from Equine Metabolic Syndrome, Equine Pituitary Pars Intermedia Dysfunction (PPID), and laminitis, wherein the one or more SGLT2 inhibitor is 1-cyano-2-(4-cyclopropyl-benzyl)-4-(β-D-glucopyranos-1-yl)-benzene, represented by formula: or a pharmaceutically acceptable form and/or salt thereof, wherein preferably the pharmaceutically acceptable form is a crystalline complex between the SGLT2 inhibitor and one or more amino acids, preferably wherein the one or more amino acids is proline, more preferably L-proline, and wherein the one or more dopamine receptor agonist is (8β)-8-[(methylthio)methyl]-6-propylergoline (pergolide), represented by formula:
A wellbore-servicing method comprising: contacting at least a portion of a filter cake in a wellbore with an emulsion-reversing fluid; allowing the emulsion-reversing fluid to remain in contact with the filter cake for a soak period of at least 8 hours; and removing the filter cake from the wellbore; wherein the filter cake comprises an invert emulsion fluid comprising an oleaginous fluid, a non-oleaginous fluid, and an acid-sensitive surfactant which comprises one of the following: a hydrolyzable mixed alkyldiethanol amide, an alkyl glucoside, a polyalkylglucoside, an alkylalkoxypolydimethylsiloxane, a polyalkyldimethylsiloxane, or a combination thereof; an amine represented by the following formula (i): wherein R is a C 12 to C 22 group, each R' is independently H or a C 1 to C 3 alkyl group, A is NH or O, and the sum of x and y is from 1 to 3; and an amine represented by the following formula (ii): wherein R" is a cycloaliphatic hydrocarbon group or an aromatic hydrocarbon group, each R' is independently H or a C 1 to C 3 alkyl group, each A is independently NH or O, and the sum of x and y is from 1 to 20; and wherein the emulsion-reversing fluid comprises an acid precursor which is not an acid and is selected from glucono-delta-lactone and glucoheptonic lactone. contacting at least a portion of a filter cake in a wellbore with an emulsion-reversing fluid; allowing the emulsion-reversing fluid to remain in contact with the filter cake for a soak period of at least 8 hours; and removing the filter cake from the wellbore; wherein the filter cake comprises an invert emulsion fluid comprising an oleaginous fluid, a non-oleaginous fluid, and an acid-sensitive surfactant which comprises one of the following: a hydrolyzable mixed alkyldiethanol amide, an alkyl glucoside, a polyalkylglucoside, an alkylalkoxypolydimethylsiloxane, a polyalkyldimethylsiloxane, or a combination thereof; an amine represented by the following formula (i): wherein R is a C 12 to C 22 group, each R' is independently H or a C 1 to C 3 alkyl group, A is NH or O, and the sum of x and y is from 1 to 3; and an amine represented by the following formula (ii): wherein R" is a cycloaliphatic hydrocarbon group or an aromatic hydrocarbon group, each R' is independently H or a C 1 to C 3 alkyl group, each A is independently NH or O, and the sum of x and y is from 1 to 20; and a hydrolyzable mixed alkyldiethanol amide, an alkyl glucoside, a polyalkylglucoside, an alkylalkoxypolydimethylsiloxane, a polyalkyldimethylsiloxane, or a combination thereof; an amine represented by the following formula (i): wherein R is a C 12 to C 22 group, each R' is independently H or a C 1 to C 3 alkyl group, A is NH or O, and the sum of x and y is from 1 to 3; and an amine represented by the following formula (ii): wherein R" is a cycloaliphatic hydrocarbon group or an aromatic hydrocarbon group, each R' is independently H or a C 1 to C 3 alkyl group, each A is independently NH or O, and the sum of x and y is from 1 to 20; and wherein the emulsion-reversing fluid comprises an acid precursor which is not an acid and is selected from glucono-delta-lactone and glucoheptonic lactone.
A method performed by a base station for transmitting control information in a wireless communication system, the method comprising: generating control information for a terminal; determining control channel elements, CCEs, corresponding to physical downlink control channel, PDCCH, candidates based on a maximum number of PDCCH candidates for an aggregation level L across the values of a carrier indicator indicating a carrier for cross carrier scheduling; and transmitting, to the terminal, the control information based on the CCEs. generating control information for a terminal; determining control channel elements, CCEs, corresponding to physical downlink control channel, PDCCH, candidates based on a maximum number of PDCCH candidates for an aggregation level L across the values of a carrier indicator indicating a carrier for cross carrier scheduling; and transmitting, to the terminal, the control information based on the CCEs.
An X-ray data processing apparatus arranged to estimate true values from X-ray count values detected by a pixel array X-ray detector of a photon counting system, the apparatus comprising: a management unit arranged to receive and manage a count value for each detection part of the pixel array X-ray detector, wherein an X-ray detection pixel is a detection part; an effective area ratio calculation unit arranged to calculate a ratio of a detection ability under influence of charge share to an original detection ability in the detection part as an effective area ratio of the detection part, the effective area ratio calculation unit being arranged to calculate a plurality of effective area ratios for each detection part using data regarding the detection part and data regarding a respective one of a plurality of X-ray sources having different wavelengths and a respective one of a plurality of detection energy threshold values; and a correction unit arranged to correct the managed count values using the calculated effective area ratios to estimate the true values, wherein the correction unit is arranged to perform linear transformation of count values for the detection energy threshold values to the true count values for the X-ray sources by solving simultaneous equations, wherein each of the equations expresses that the true numbers of photons from the X-ray sources having different wavelengths, which numbers are weighted by respective ones of the effective area ratios, are equal to a count value observed using a respective one of the detection energy threshold values. a management unit arranged to receive and manage a count value for each detection part of the pixel array X-ray detector, wherein an X-ray detection pixel is a detection part; an effective area ratio calculation unit arranged to calculate a ratio of a detection ability under influence of charge share to an original detection ability in the detection part as an effective area ratio of the detection part, the effective area ratio calculation unit being arranged to calculate a plurality of effective area ratios for each detection part using data regarding the detection part and data regarding a respective one of a plurality of X-ray sources having different wavelengths and a respective one of a plurality of detection energy threshold values; and a correction unit arranged to correct the managed count values using the calculated effective area ratios to estimate the true values, wherein the correction unit is arranged to perform linear transformation of count values for the detection energy threshold values to the true count values for the X-ray sources by solving simultaneous equations, wherein each of the equations expresses that the true numbers of photons from the X-ray sources having different wavelengths, which numbers are weighted by respective ones of the effective area ratios, are equal to a count value observed using a respective one of the detection energy threshold values.
A system comprising: a remote controller; and a broadcasting signal receiving apparatus configured to bidirectionally communicate with the remote controller, wherein, in response to a key input corresponding to an instruction for turning on the broadcast signal receiving apparatus, the remote controller is configured to transmit a broadcasting signal, including a control instruction to power on the broadcasting signal receiving apparatus and first identification information of the remote controller to the broadcasting signal receiving apparatus, and the broadcasting signal receiving apparatus is configured to monitor whether the broadcasting signal is received by periodically measuring a power of a signal from a plurality of transmission channels by using standby power if the broadcasting signal receiving apparatus is in a power-off state, to perform a function based on the control instruction included in the broadcasting signal if the broadcasting signal is received, to store first identification information received from the remote controller in a storage unit, and to transmit second identification information of the broadcasting signal receiving apparatus to the remote controller, wherein the remote controller is configured to store the second identification information received from the broadcasting signal receiving apparatus. a remote controller; and a broadcasting signal receiving apparatus configured to bidirectionally communicate with the remote controller,
A method of producing a plurality of fibers, the method comprising: providing a dual-terminated polyamide; and spinning the dual-terminated polyamide at a speed of 3500 m/min to 8000 m/min to form the fibers, wherein the polyamide is polyamide-6 (PA-6), and wherein the polyamide-6 has an amine endgroup concentration of 25 mmol/kg to 40 mmol/kg, and has a carboxyl endgroup concentration of 18 mmol/kg to 50 mmol/kg, and wherein the polyamide-6 has a relative viscosity of 2.6 RV to 3.0 RV, where the parameter values are measured according to the methods specified in present description. providing a dual-terminated polyamide; and spinning the dual-terminated polyamide at a speed of 3500 m/min to 8000 m/min to form the fibers, wherein the polyamide is polyamide-6 (PA-6), and wherein the polyamide-6 has an amine endgroup concentration of 25 mmol/kg to 40 mmol/kg, and has a carboxyl endgroup concentration of 18 mmol/kg to 50 mmol/kg, and wherein the polyamide-6 has a relative viscosity of 2.6 RV to 3.0 RV, where the parameter values are measured according to the methods specified in present description.
An air-conditioning unit, the air-conditioning unit being configured for installation on a roof, the air-conditioning unit including a plurality of functional components (2, 3, 4, 5, 6), the functional components (2, 3, 4, 5, 6) being arranged in a housing, the housing having an attachment side for installation on the roof, the air-conditioning unit including two support arms, the two support arms supporting at least one functional component of the plurality of functional components (2, 3, 4, 5, 6) such that the at least one functional component is arranged higher with respect to the attachment side than other functional components (2, 4, 5, 6) of the plurality of functional components (2, 3, 4, 5, 6), the two support arms laterally encompassing the at least one functional component so that each support arm supports a different side of the at least one functional component, the two support arms each supporting the at least one functional component in the area of a face side, the two support arms each having the shape of the capital letter "S" in that each support arm has two face side portions which are positioned at different heights, and one portion connecting these two portions, characterized in that the two support arms each have a C-profile, wherein the C-profiles of the support arms each open toward the at least one functional component, and wherein the at least one functional component is partly arranged in areas encompassed by the C-profiles. the air-conditioning unit being configured for installation on a roof, the air-conditioning unit including a plurality of functional components (2, 3, 4, 5, 6), the functional components (2, 3, 4, 5, 6) being arranged in a housing, the housing having an attachment side for installation on the roof, the air-conditioning unit including two support arms, the two support arms supporting at least one functional component of the plurality of functional components (2, 3, 4, 5, 6) such that the at least one functional component is arranged higher with respect to the attachment side than other functional components (2, 4, 5, 6) of the plurality of functional components (2, 3, 4, 5, 6), the two support arms laterally encompassing the at least one functional component so that each support arm supports a different side of the at least one functional component, the two support arms each supporting the at least one functional component in the area of a face side, the two support arms each having the shape of the capital letter "S" in that each support arm has two face side portions which are positioned at different heights, and one portion connecting these two portions, characterized in that the two support arms each have a C-profile, wherein the C-profiles of the support arms each open toward the at least one functional component, and wherein the at least one functional component is partly arranged in areas encompassed by the C-profiles.
Method for producing a component having a coating, wherein the component comprises a component main body and a coating applied to the component main body and wherein, in the method, initially at least part of a surface layer of the component main body is treated by heat treatment, in particular hardened, such that a surface region is created that has an altered property profile, and the coating is subsequently deposited on the surface region having an altered property profile, wherein the surface layer is treated such that the modulus of elasticity and/or the hardness of the altered surface region approximates the modulus of elasticity or the hardness of the coating, wherein the moduli of elasticity and/or the hardnesses are used at the operating temperature of the component, wherein the component main body is made of a TiAl material, wherein the heat treatment structure has a smaller proportion of y - TiAl in the treated surface region of the component main body than the remaining component main body, and wherein the coating is a corrosion-protection layer and/or an oxidation-protection layer and/or a wear-protection layer, made of a ceramic material.