mhurhangee/ep-ind-claims huggingface dataset:
A support assembly for a geared architecture comprising: an engine static structure; a flex support secured to the engine static structure and including a bellow; a support structure operatively secured to the flex support; a geared architecture mounted to the support structure; and first members removably secured to one of the engine static structure and the flex support, and second members removably secured to the support structure, the first and second members (66, 68) circumferentially aligned with one another and spaced apart from one another during a normal operating condition, and characterised in that the first and second members (66, 68) are configured to be engageable with one another during an extreme event to limit forward axial movement of the geared architecture relative to the engine static structure. an engine static structure; a flex support secured to the engine static structure and including a bellow; a support structure operatively secured to the flex support; a geared architecture mounted to the support structure; and first members removably secured to one of the engine static structure and the flex support, and second members removably secured to the support structure, the first and second members (66, 68) circumferentially aligned with one another and spaced apart from one another during a normal operating condition, and characterised in that the first and second members (66, 68) are configured to be engageable with one another during an extreme event to limit forward axial movement of the geared architecture relative to the engine static structure.
A compressor comprising: a fixed scroll and a revolving scroll each having a spiral lap rising from an end plate; a compression chamber which is formed by meshing the fixed scroll and the revolving scroll; a discharge hole which is provided at a center position of the end plate of the fixed scroll, and is open to a discharge chamber; a bypass hole which is provided in the end plate of the fixed scroll, and being adapted to communicate with the compression chamber and the discharge chamber at a timing different from a timing at which the compression chamber communicates with the discharge hole; characterized in that the compressor further comprises a check valve which is provided in the bypass hole, and being adapted to allow a flow from a compression chamber side to a discharge chamber side, and the compressor uses a refrigerant containing 1,1,2-trifluoroethylene as a working fluid, and uses a polyol ester oil as a compressor lubricating oil (6, 206). a fixed scroll and a revolving scroll each having a spiral lap rising from an end plate; a compression chamber which is formed by meshing the fixed scroll and the revolving scroll; a discharge hole which is provided at a center position of the end plate of the fixed scroll, and is open to a discharge chamber; a bypass hole which is provided in the end plate of the fixed scroll, and being adapted to communicate with the compression chamber and the discharge chamber at a timing different from a timing at which the compression chamber communicates with the discharge hole; characterized in that the compressor further comprises a check valve which is provided in the bypass hole, and being adapted to allow a flow from a compression chamber side to a discharge chamber side, and the compressor uses a refrigerant containing 1,1,2-trifluoroethylene as a working fluid, and uses a polyol ester oil as a compressor lubricating oil (6, 206).
A method of transmitting and receiving, by a user equipment, UE, data in a wireless communication system supporting Machine-Type Communication, MTC, the method comprising: monitoring a first search space configured for a first MTC Physical Downlink Control Channel, MPDCCH, where the first MPDCCH includes first control information for scheduling of a first Physical Downlink shared Channel, PDSCH, for transferring a Single Cell-Multicast Control Channel, SC-MCCH; receiving the first PDSCH based on the first control information; monitoring a second search space configured for a second MPDCCH using a group identifier acquired through the SC-MCCH, wherein the second MPDCCH includes second control information for scheduling of a second PDSCH for transferring a Single Cell-Multicast Traffic Channel, SC-MTCH; and receiving the second PDSCH based on the second control information, wherein configuration information for a maximum frequency bandwidth used for the second PDSCH is transferred through the SC-MCCH. monitoring a first search space configured for a first MTC Physical Downlink Control Channel, MPDCCH, where the first MPDCCH includes first control information for scheduling of a first Physical Downlink shared Channel, PDSCH, for transferring a Single Cell-Multicast Control Channel, SC-MCCH; receiving the first PDSCH based on the first control information; monitoring a second search space configured for a second MPDCCH using a group identifier acquired through the SC-MCCH, wherein the second MPDCCH includes second control information for scheduling of a second PDSCH for transferring a Single Cell-Multicast Traffic Channel, SC-MTCH; and receiving the second PDSCH based on the second control information, wherein configuration information for a maximum frequency bandwidth used for the second PDSCH is transferred through the SC-MCCH.
A method of preparing an extract, the method comprising: loading an extraction material into an extraction cell (100, 200) having a first portion (103, 203) and a second portion (106, 206); introducing a first aliquot of an extraction medium through the first portion (103, 203) of the extraction cell (100, 200); expelling gas from the extraction cell (100, 200) through the second portion (106, 206) of the extraction cell (100, 200); closing the second portion (106, 206) of the extraction cell (100, 200) and increasing a pressure in the extraction cell (100, 200) as the extraction medium flows into the first portion (103, 203) of the extraction cell (100, 200); stopping the flow of the extraction medium into the extraction cell (100, 200); steeping the extraction material in the extraction medium under pressure to produce an extract; and introducing a second aliquot of the extraction medium through the first portion (103, 203) of the extraction cell (100, 200) to push the extract through the second portion (106, 206) of the extraction cell (100, 200), wherein introducing the second aliquot of the extraction medium through the first portion (103, 203) of the extraction cell (100, 200) comprises introducing the second aliquot of the extraction medium at a flow rate that achieves plug flow. loading an extraction material into an extraction cell (100, 200) having a first portion (103, 203) and a second portion (106, 206); introducing a first aliquot of an extraction medium through the first portion (103, 203) of the extraction cell (100, 200); expelling gas from the extraction cell (100, 200) through the second portion (106, 206) of the extraction cell (100, 200); closing the second portion (106, 206) of the extraction cell (100, 200) and increasing a pressure in the extraction cell (100, 200) as the extraction medium flows into the first portion (103, 203) of the extraction cell (100, 200); stopping the flow of the extraction medium into the extraction cell (100, 200); steeping the extraction material in the extraction medium under pressure to produce an extract; and introducing a second aliquot of the extraction medium through the first portion (103, 203) of the extraction cell (100, 200) to push the extract through the second portion (106, 206) of the extraction cell (100, 200), wherein introducing the second aliquot of the extraction medium through the first portion (103, 203) of the extraction cell (100, 200) comprises introducing the second aliquot of the extraction medium at a flow rate that achieves plug flow.
A method for a wireless device comprising: receiving configuration parameters of each cell of one or more cells, indicating a maximum number of time domain resource allocations for physical downlink shared channels, PDSCHs, for a respective cell of the one or more cells; and transmitting, via a physical uplink control channel, PUCCH, feedback information with a transmission power determined based on a maximum value of the maximum number of time domain resource allocations of a cell scaled by a corresponding number of codewords of the cell, across the one or more cells. receiving configuration parameters of each cell of one or more cells, indicating a maximum number of time domain resource allocations for physical downlink shared channels, PDSCHs, for a respective cell of the one or more cells; and transmitting, via a physical uplink control channel, PUCCH, feedback information with a transmission power determined based on a maximum value of the maximum number of time domain resource allocations of a cell scaled by a corresponding number of codewords of the cell, across the one or more cells.
A control circuit connected to a control device configured to control a motor connected to a rotation shaft that is convertible into a turning angle of a turning wheel, the motor being configured to generate an assisting force for assisting a driver's steering operation on a steering mechanism that turns the turning wheel, the control circuit comprising: a main circuit configured to calculate a rotation number indicating a rotational state of the rotation shaft based on a detection signal from a rotation angle sensor configured to detect a rotation angle of the motor as a relative angle; and a detection result communication unit configured to detect whether or not there is an abnormality in the main circuit and output a detection result to the control device; the control circuit being characterized by comprising a pseudo abnormality generating unit (150; 180) configured to set the detection result to be abnormal based on a pseudo abnormal signal (Sp) from the control device, wherein in a case where the pseudo abnormality generating unit accepts the pseudo abnormal signal from the control device, the pseudo abnormality generating unit sets the detection result output from the detection result communication unit to be abnormal and outputs the detection result to the control device. the control circuit comprising: a main circuit configured to calculate a rotation number indicating a rotational state of the rotation shaft based on a detection signal from a rotation angle sensor configured to detect a rotation angle of the motor as a relative angle; and a detection result communication unit configured to detect whether or not there is an abnormality in the main circuit and output a detection result to the control device; a main circuit configured to calculate a rotation number indicating a rotational state of the rotation shaft based on a detection signal from a rotation angle sensor configured to detect a rotation angle of the motor as a relative angle; and a detection result communication unit configured to detect whether or not there is an abnormality in the main circuit and output a detection result to the control device; the control circuit being characterized by comprising a pseudo abnormality generating unit (150; 180) configured to set the detection result to be abnormal based on a pseudo abnormal signal (Sp) from the control device, wherein in a case where the pseudo abnormality generating unit accepts the pseudo abnormal signal from the control device, the pseudo abnormality generating unit sets the detection result output from the detection result communication unit to be abnormal and outputs the detection result to the control device. a pseudo abnormality generating unit (150; 180) configured to set the detection result to be abnormal based on a pseudo abnormal signal (Sp) from the control device, wherein in a case where the pseudo abnormality generating unit accepts the pseudo abnormal signal from the control device, the pseudo abnormality generating unit sets the detection result output from the detection result communication unit to be abnormal and outputs the detection result to the control device.
Prepreg comprising a sheet-like fiber layer saturated with polyurethane (matrix material) that has not been fully hardened and that has an NCO value of from 3% by weight to 17% by weight (DIN EN ISO 14896:2009-07 - method A: method A = NCO value determined by titration), and that has a T g -value below 40°C (glass transition temperature T g measured in accordance with DIN EN ISO 53765-A-20), where the polyurethane is obtainable from a reaction mixture composed of an isocyanate component made of A) one or more organic isocyanates from the group consisting of unblocked aliphatic or cycloaliphatic di- and polyisocyanates, polymeric homologs of these, isocyanurates of these and also blends thereof, and a polyol formulation of B) a polyol component made of one or more polyols with a number-average OH number of from 30 to 1000 mg KOH/g, with a number-average functionality of from 1.9 to 2.5, C) one or more dianhydrohexitols, D) one or more latent catalysts which are catalytically active at temperatures of from 50° to 100°C, E) optionally auxiliaries and/or additives, other than polyepoxides, where the initial viscosity of the reaction mixture at 40°C is from 2300 to 3200 mPas (measured in accordance with DIN EN ISO 53019), and the ratio of the number of the NCO groups in component A) to the number of the OH groups in component B) is from 1.3:1 to 10:1. A) one or more organic isocyanates from the group consisting of unblocked aliphatic or cycloaliphatic di- and polyisocyanates, polymeric homologs of these, isocyanurates of these and also blends thereof, and a polyol formulation of B) a polyol component made of one or more polyols with a number-average OH number of from 30 to 1000 mg KOH/g, with a number-average functionality of from 1.9 to 2.5, C) one or more dianhydrohexitols, D) one or more latent catalysts which are catalytically active at temperatures of from 50° to 100°C, E) optionally auxiliaries and/or additives, other than polyepoxides,
A single-use filtration device for use in the pharmaceutical production of high-quality active ingredients, comprising a plurality of single-use filter capsules connected to each other by lines, which are carried by a rigid holder such that the filter capsules are held upright in their position of use, wherein the single-use filtration device has a central air filter for venting the entire unit of the filter capsules and a central collection device for draining the entire unit of the filter capsules, wherein the holder protrudes in all directions above the filter capsules and the lines and forms a framework for film wrapping the device, wherein the holder comprises at least two opposing lateral walls, which are connected to each other by transverse struts, at which holding means are provided for the individual filter capsules, and wherein the single-use filtration device comprises a sterilizable package. wherein the single-use filtration device has a central air filter for venting the entire unit of the filter capsules and a central collection device for draining the entire unit of the filter capsules, wherein the holder protrudes in all directions above the filter capsules and the lines and forms a framework for film wrapping the device, wherein the holder comprises at least two opposing lateral walls, which are connected to each other by transverse struts, at which holding means are provided for the individual filter capsules, and wherein the single-use filtration device comprises a sterilizable package.
Process for comminuting alkali metal-containing energy storage devices where the energy storage devices are cooled with liquid nitrogen which undergoes at least partial evaporation upon thermal contact with the energy storage devices and the energy storage devices are subsequently broken down into constituent fractions in a comminution means, wherein downstream of the cooling of the energy storage devices the comminution means is supplied with argon to form an atmosphere in the comminution means which is substantially composed of argon, characterized in that the comminution means is supplied with liquid or cold gaseous argon which undergoes heating upon thermal contact with the energy storage devices and/or the constituent fractions thereof and is subsequently discharged from the comminution means, wherein at least a substream of the heated argon discharged from the comminution means is cooled in a cooler and reused for cooling the energy storage devices in the comminution means. downstream of the cooling of the energy storage devices the comminution means is supplied with argon to form an atmosphere in the comminution means which is substantially composed of argon, characterized in that the comminution means is supplied with liquid or cold gaseous argon which undergoes heating upon thermal contact with the energy storage devices and/or the constituent fractions thereof and is subsequently discharged from the comminution means, wherein at least a substream of the heated argon discharged from the comminution means is cooled in a cooler and reused for cooling the energy storage devices in the comminution means.
A system (100; 200; 300) comprising: a power input line; a first current transformer (120; 220) having a primary winding inductively coupled to the power input line; and an uninterruptible power supply device (210, 310) having an input coupled to the power input line, the uninterruptible power supply device (210, 310) comprising: a plurality of uninterruptible power supply modules (212, 312, 400), each having a current sense input; and a plurality of second current transformers (214, 324, 450) each having a primary winding configured to be inductively coupled to a secondary winding the first current transformer, and a secondary winding coupled to a respective one of the current sense inputs of the uninterruptible power supply modules (212, 312, 400). a power input line; a first current transformer (120; 220) having a primary winding inductively coupled to the power input line; and an uninterruptible power supply device (210, 310) having an input coupled to the power input line, the uninterruptible power supply device (210, 310) comprising: a plurality of uninterruptible power supply modules (212, 312, 400), each having a current sense input; and a plurality of second current transformers (214, 324, 450) each having a primary winding configured to be inductively coupled to a secondary winding the first current transformer, and a plurality of uninterruptible power supply modules (212, 312, 400), each having a current sense input; and a plurality of second current transformers (214, 324, 450) each having a primary winding configured to be inductively coupled to a secondary winding the first current transformer, and
A power plant analyzer for analyzing a plurality of power plants, comprising: analyzing means for analyzing a first parameter indicative of fuel flow to a first power plant, a second parameter indicative of fuel burned in the first power plant, a third parameter indicative of fuel flow to a second power plant and a fourth parameter indicative of fuel burned in the second power plant; and alert generation means, responsive to the analyzing means, for generating an alert for the first or the second power plant (42,45), and wherein the analyzing means is configured to carry out a differential analysis between the first and third parameters (38,46) to produce a first result, and to carry out a differential analysis between the second and fourth parameters (44,48) to produce a second result, and to compare the first and second results. analyzing means for analyzing a first parameter indicative of fuel flow to a first power plant, a second parameter indicative of fuel burned in the first power plant, a third parameter indicative of fuel flow to a second power plant and a fourth parameter indicative of fuel burned in the second power plant; and alert generation means, responsive to the analyzing means, for generating an alert for the first or the second power plant (42,45), and wherein the analyzing means is configured to carry out a differential analysis between the first and third parameters (38,46) to produce a first result, and to carry out a differential analysis between the second and fourth parameters (44,48) to produce a second result, and to compare the first and second results.
A method of printing, with a printer, an image on a substrate, the printer comprising a substrate support, the method comprising: obtaining an image to be printed; producing image data representing a visual representation of at least a portion of a grid of alignment features disposed on the substrate support and the substrate; determining, by visually identifying image data elements of the grid on the substrate support, the position of the substrate when positioned on the substrate support and an amount of skew or rotation of the substrate relative to a predetermined reference axis of the substrate; electronically compensating for any distortion in the image data using known characteristics of the grid of alignment features; performing a computational geometric rotation of the image based on the determined amount of skew or rotation, to produce a rotated image; and controlling the printer to print the rotated image on the substrate such that at least some of the edges of the printed image are aligned substantially parallel to at least some of the edges of the substrate. obtaining an image to be printed; producing image data representing a visual representation of at least a portion of a grid of alignment features disposed on the substrate support and the substrate; determining, by visually identifying image data elements of the grid on the substrate support, the position of the substrate when positioned on the substrate support and an amount of skew or rotation of the substrate relative to a predetermined reference axis of the substrate; electronically compensating for any distortion in the image data using known characteristics of the grid of alignment features; performing a computational geometric rotation of the image based on the determined amount of skew or rotation, to produce a rotated image; and controlling the printer to print the rotated image on the substrate such that at least some of the edges of the printed image are aligned substantially parallel to at least some of the edges of the substrate.