mhurhangee/ep-ind-claims huggingface dataset:
A method for assembling an aircraft duct apparatus adapted to channel exhaust gases from propulsion units, the duct apparatus having a first end and a second end, comprising: positioning a first duct segment and a second duct segment within respective openings of attachment rings (204/206), the first duct segment defining first and second longitudinal edges (308/310) and the second duct segment defining third and fourth (312/314) longitudinal edges,; moving the first longitudinal edge of the first duct segment away from the third longitudinal edge of the second duct segment to form a first gap between the first and third longitudinal edges, the first gap extending between the first end and the second end of the duct apparatus; moving the second longitudinal edge of the first duct segment away from the fourth longitudinal edge of the second duct segment to form a second gap between the second and fourth longitudinal edges, the second gap extending between the first end and the second end of the duct apparatus; positioning a first splice strap to overlap the first gap; and positioning a second splice strap to overlap the second gap. positioning a first duct segment and a second duct segment within respective openings of attachment rings (204/206), the first duct segment defining first and second longitudinal edges (308/310) and the second duct segment defining third and fourth (312/314) longitudinal edges,; moving the first longitudinal edge of the first duct segment away from the third longitudinal edge of the second duct segment to form a first gap between the first and third longitudinal edges, the first gap extending between the first end and the second end of the duct apparatus; moving the second longitudinal edge of the first duct segment away from the fourth longitudinal edge of the second duct segment to form a second gap between the second and fourth longitudinal edges, the second gap extending between the first end and the second end of the duct apparatus; positioning a first splice strap to overlap the first gap; and positioning a second splice strap to overlap the second gap.
A method for a terminal to report channel state information in a wireless communication system, the method comprising: receiving control information that configures a measurement restriction and indicates a reporting of the channel state information; generating the channel state information based on the received control information and a reference signal; and transmitting the generated channel state information to a base station, characterised by: in a case that a level of overlap between a time-frequency resource for the reference signal and a time-frequency resource for a specific type of transmission is lower than or equal to a preset threshold, the control information configures the measurement restriction in terms of time and frequency and indicates reporting of a subband channel state information, and in a case that the level of overlap between the time-frequency resource for the reference signal and the time-frequency resource for the specific type of transmission is higher than the preset threshold, the control information configures the measurement restriction in terms of time and indicates reporting of a wideband channel state information. receiving control information that configures a measurement restriction and indicates a reporting of the channel state information; generating the channel state information based on the received control information and a reference signal; and transmitting the generated channel state information to a base station, characterised by: in a case that a level of overlap between a time-frequency resource for the reference signal and a time-frequency resource for a specific type of transmission is lower than or equal to a preset threshold, the control information configures the measurement restriction in terms of time and frequency and indicates reporting of a subband channel state information, and in a case that the level of overlap between the time-frequency resource for the reference signal and the time-frequency resource for the specific type of transmission is higher than the preset threshold, the control information configures the measurement restriction in terms of time and indicates reporting of a wideband channel state information. in a case that a level of overlap between a time-frequency resource for the reference signal and a time-frequency resource for a specific type of transmission is lower than or equal to a preset threshold, the control information configures the measurement restriction in terms of time and frequency and indicates reporting of a subband channel state information, and in a case that the level of overlap between the time-frequency resource for the reference signal and the time-frequency resource for the specific type of transmission is higher than the preset threshold, the control information configures the measurement restriction in terms of time and indicates reporting of a wideband channel state information.
A system for occluding a Left Atrial Appendage of a human heart, the system comprising: a catheter having a proximal end, a distal end, and a lumen extending there between; a medical device slidingly disposed within the lumen, the medical device including: an expandable sponge-like component, having a proximal end and a distal end configured to transition between a compressed configuration and an expanded configuration, wherein the expanded configuration is configured to conform to at least the entrance to the LAA, sufficient to prevent blood flow within the heart from entering the LAA; a push wire disposed within the lumen, a distal end of the push wire being in contact with the proximal end of the sponge-like component and operable to advance the sponge-like component out of the distal end of the catheter; and a connecting member configured to detachably connect the distal end of the push wire with the proximal end of the sponge-like component. a catheter having a proximal end, a distal end, and a lumen extending there between; a medical device slidingly disposed within the lumen, the medical device including: an expandable sponge-like component, having a proximal end and a distal end configured to transition between a compressed configuration and an expanded configuration, wherein the expanded configuration is configured to conform to at least the entrance to the LAA, sufficient to prevent blood flow within the heart from entering the LAA; a push wire disposed within the lumen, a distal end of the push wire being in contact with the proximal end of the sponge-like component and operable to advance the sponge-like component out of the distal end of the catheter; and a connecting member configured to detachably connect the distal end of the push wire with the proximal end of the sponge-like component. an expandable sponge-like component, having a proximal end and a distal end configured to transition between a compressed configuration and an expanded configuration, wherein the expanded configuration is configured to conform to at least the entrance to the LAA, sufficient to prevent blood flow within the heart from entering the LAA; a push wire disposed within the lumen, a distal end of the push wire being in contact with the proximal end of the sponge-like component and operable to advance the sponge-like component out of the distal end of the catheter; and a connecting member configured to detachably connect the distal end of the push wire with the proximal end of the sponge-like component.
A filter comprising: (a) at least one filter arm comprising a plurality of hollow elements in fluid communication with each other, the hollow elements having porous walls, the at least one filter arm having a first end and a second end; (b) a hollow transition element comprising a collector having a porous side wall, a central cavity, an upper closed end and a lower open end; and at least one hollow transition element arm having a first transition arm end, a second transition arm end, and a porous side wall; wherein the first transition arm end is connected to, and in fluid communication with, the second end of the at least one filter arm; and the second transition arm end is connected to the side wall of the collector, and is in fluid communication with the central cavity of the collector via at least one aperture in the side wall of the collector; and, (c) a hollow base having a side wall, and a base outlet port, wherein the hollow base is connected to, and in fluid communication with, the collector of the hollow transition element. (a) at least one filter arm comprising a plurality of hollow elements in fluid communication with each other, the hollow elements having porous walls, the at least one filter arm having a first end and a second end; (b) a hollow transition element comprising a collector having a porous side wall, a central cavity, an upper closed end and a lower open end; and at least one hollow transition element arm having a first transition arm end, a second transition arm end, and a porous side wall; wherein the first transition arm end is connected to, and in fluid communication with, the second end of the at least one filter arm; and the second transition arm end is connected to the side wall of the collector, and is in fluid communication with the central cavity of the collector via at least one aperture in the side wall of the collector; and, (c) a hollow base having a side wall, and a base outlet port, wherein the hollow base is connected to, and in fluid communication with, the collector of the hollow transition element.
An operating machine comprising: a lower propelling body; and a machine body mounted on the lower propelling body, wherein the machine body includes an upper frame supported by the lower propelling body, and at least one line member for mutually connecting a plurality of devices installed to the upper frame, the upper frame has a bottom plate; a pair of longitudinal plates each provided to stand on the bottom plate and extend in a front-rear direction, while being disposed in spaced-apart relation to each other in a right-left direction; and a transverse plate provided to stand on the bottom plate and extend in the right-left direction, while being joined to each of the longitudinal plates, wherein a specific plate consisting of at least one of the pair of longitudinal plates and the transverse plate has an upper edge on which a pair of protrusions are provided in opposed relation to each other, and the line member is set to pass through between the pair of protrusions, characterized in that the operating machine further comprises a holding member adapted to be detachably fitted between the pair of protrusions, wherein the holding member has at least one through-hole, and the holding member is adapted to hold the line member in a state in which the line member is penetratingly inserted into the through-hole. a lower propelling body; and a machine body mounted on the lower propelling body, wherein the machine body includes an upper frame supported by the lower propelling body, and at least one line member for mutually connecting a plurality of devices installed to the upper frame, the upper frame has a bottom plate; a pair of longitudinal plates each provided to stand on the bottom plate and extend in a front-rear direction, while being disposed in spaced-apart relation to each other in a right-left direction; and a transverse plate provided to stand on the bottom plate and extend in the right-left direction, while being joined to each of the longitudinal plates, wherein a specific plate consisting of at least one of the pair of longitudinal plates and the transverse plate has an upper edge on which a pair of protrusions are provided in opposed relation to each other, and the line member is set to pass through between the pair of protrusions, characterized in that the operating machine further comprises a holding member adapted to be detachably fitted between the pair of protrusions, wherein the holding member has at least one through-hole, and the holding member is adapted to hold the line member in a state in which the line member is penetratingly inserted into the through-hole.
A process for the production of light olefins and aromatics from a hydrocarbon feedstock, comprising the following steps of: (a) feeding a hydrocarbon feedstock into a FCC unit (b) separating reaction products, which are generated from the FCC reaction, into a bottom stream, and middle stream and a top stream; (c) feeding the middle stream from (b) to a gasoline hydrocracker unit, wherein the process conditions prevailing in said gasoline hydrocracker unit are a temperature of 300-450 °C, a pressure of 300-5000 kPa gauge and a Weight Hourly Space Velocity of 0.1-10 h-1; (d) separating reaction products of said GHC of step (c) into an overhead gas stream comprising hydrogen, methane and C2-C4 paraffins, a stream rich in BTX and a heavy cycle oil stream; (e) separating C2-C4 paraffins from said overhead gas stream coming from the gasoline hydrocracker unit, and feeding only said C2-C4 paraffins from said overhead gas stream from the gasoline hydrocracker unit directly to the furnace section of a steam cracker unit; (f) combining the FCC bottom stream from (b) and the GHC heavy cycle oil stream from (d); (g) separating reaction products of said steam cracking unit in a separation section into an overhead stream, which contains C2-C6 alkanes, a middle stream, which contains C2-olefins, C3-olefins and C4-olefins, a first bottom stream comprising C9+ hydrocarbons, and a second bottom stream comprising aromatic hydrocarbon compounds and non-aromatic hydrocarbon compounds; (h) combining the top stream from (b) with the reaction products of said steam cracking unit and sending the combined stream to the separation section from (g). (a) feeding a hydrocarbon feedstock into a FCC unit (b) separating reaction products, which are generated from the FCC reaction, into a bottom stream, and middle stream and a top stream; (c) feeding the middle stream from (b) to a gasoline hydrocracker unit, wherein the process conditions prevailing in said gasoline hydrocracker unit are a temperature of 300-450 °C, a pressure of 300-5000 kPa gauge and a Weight Hourly Space Velocity of 0.1-10 h-1; (d) separating reaction products of said GHC of step (c) into an overhead gas stream comprising hydrogen, methane and C2-C4 paraffins, a stream rich in BTX and a heavy cycle oil stream; (e) separating C2-C4 paraffins from said overhead gas stream coming from the gasoline hydrocracker unit, and feeding only said C2-C4 paraffins from said overhead gas stream from the gasoline hydrocracker unit directly to the furnace section of a steam cracker unit; (f) combining the FCC bottom stream from (b) and the GHC heavy cycle oil stream from (d); (g) separating reaction products of said steam cracking unit in a separation section into an overhead stream, which contains C2-C6 alkanes, a middle stream, which contains C2-olefins, C3-olefins and C4-olefins, a first bottom stream comprising C9+ hydrocarbons, and a second bottom stream comprising aromatic hydrocarbon compounds and non-aromatic hydrocarbon compounds; (h) combining the top stream from (b) with the reaction products of said steam cracking unit and sending the combined stream to the separation section from (g).
A non-aqueous electrolyte comprising: a lithium salt, a solvent including either or both of at least one cyclic ester selected from ethylene carbonate, propylene carbonate and gamma-butyrolactone, and at least one linear carbonate selected from diethyl carbonate, dimethyl carbonate, ethyl methyl carbonate and methyl propyl carbonate, and as additives, 1-5 wt%, based on the weight of the electrolyte, of fluoroethylene carbonate or its decomposition product, and 1-10 wt%, based on the weight of the electrolyte, of an aliphatic mono-nitrile compound selected from butyronitrile, valeronitrile, propionitrile and a mixture thereof. a lithium salt, a solvent including either or both of at least one cyclic ester selected from ethylene carbonate, propylene carbonate and gamma-butyrolactone, and at least one linear carbonate selected from diethyl carbonate, dimethyl carbonate, ethyl methyl carbonate and methyl propyl carbonate, and as additives, 1-5 wt%, based on the weight of the electrolyte, of fluoroethylene carbonate or its decomposition product, and 1-10 wt%, based on the weight of the electrolyte, of an aliphatic mono-nitrile compound selected from butyronitrile, valeronitrile, propionitrile and a mixture thereof.
A water heater (2; 4), comprising a water tank, top mounted valves and tube connections and a number of passageways for connection of valves and water tubes wherein an integrated channel leads into an outlet (23; 41) to a drain, said channel extending from a top of the water heater and down along a side of the water heater, characterized in said channel being formed in an insulation shell surrounding said water tank, the channel further extending below the water tank, and in that, at the top of the water heater, the channel is delimited by a lid, and that said top mounted valves and tube connections are accommodated in a void within the lid.
Machine for making hollow articles comprising at least one mould, inside which hollow articles (V, F) may be made by means of applying a medium under pressure, at least one valve unit, which is operatively connected with the mould in such a way that the medium may be conducted to or from a material to be moulded in the mould by at least two valves (1, 2), in which the valves (1, 2) each have at least one outlet in the direction of the material to be moulded and at least one inlet in the direction of a pressure accumulator, in which the medium under pressure is stored, in which the outlet of a first valve is connected with the hollow article to be moulded through a first cavity that may be sealed and the outlet of a second valve through a second cavity that may be sealed (301, 302) and in which the inlet of the first valve is connected with a first pressure accumulator under a first pressure and the inlet of the second valve is connected with a second pressure accumulator, in which the second pressure accumulator is under a second, smaller pressure than the first pressure accumulator, characterised in that the first cavity has a smaller volume than the second cavity (301, 302) in at least one operating state.
Method for manufacturing a sandwich element comprising the steps of i) inserting a layer of a fibre material, which is provided with a heat-curing adhesive composition, into the cavity of a lower mould part as a first step, ii) covering the fibre material layer with a layer of a foamable material and placing a second layer of a fibre material, which is provided with a heat-curing adhesive composition, onto the layer of the foamable material; iii)closing the mould with the upper mould part and subsequently iv) heating up the mould, the foamable material being foamed by the effect of the temperature; v) curing the sandwich element in the interior of the mould by further exposure to the effect of temperature; vi) opening the mould and ejecting the sandwich element. i) inserting a layer of a fibre material, which is provided with a heat-curing adhesive composition, into the cavity of a lower mould part as a first step, ii) covering the fibre material layer with a layer of a foamable material and placing a second layer of a fibre material, which is provided with a heat-curing adhesive composition, onto the layer of the foamable material; iii)closing the mould with the upper mould part and subsequently iv) heating up the mould, the foamable material being foamed by the effect of the temperature; v) curing the sandwich element in the interior of the mould by further exposure to the effect of temperature; vi) opening the mould and ejecting the sandwich element.
Illumination device for a camera comprising a light-emitting semiconductor chip, which contains a plurality of emission regions (2, 2A, 2B, 2B') and an optical element, which is configured to shape light (210, 220) emitted by the emission regions (2, 2A, 2B, 2B') to form a beam bundle, wherein the illumination device is configured in such a way that different beam profiles of the beam bundle can be set by means of the emission regions (2, 2A, 2B, 2B'), characterized in that - the emission regions are individually drivable, and - the semiconductor chip has a semiconductor layer sequence having an active zone provided for generating light, wherein - the active zone is severed for the purpose of forming the individual emission regions (2, 2A, 2B, 2B'), or - the active zone extends laterally through all the emission regions (2, 2A, 2B, 2B') and, for the purpose of electrical decoupling of the emission regions, a structured contact is formed between the emission regions. - the emission regions are individually drivable, and - the semiconductor chip has a semiconductor layer sequence having an active zone provided for generating light, wherein - the active zone is severed for the purpose of forming the individual emission regions (2, 2A, 2B, 2B'), or - the active zone extends laterally through all the emission regions (2, 2A, 2B, 2B') and, for the purpose of electrical decoupling of the emission regions, a structured contact is formed between the emission regions. - the active zone is severed for the purpose of forming the individual emission regions (2, 2A, 2B, 2B'), or - the active zone extends laterally through all the emission regions (2, 2A, 2B, 2B') and, for the purpose of electrical decoupling of the emission regions, a structured contact is formed between the emission regions.
A gel composition consisting of; an organosiloxane derivative represented by the following formula, a monohydric aliphatic alcohol having 10 to 30 carbon atoms, and water; wherein a molar ratio of the organosiloxane derivative: the monohydric aliphatic alcohol is in the range of 1:3 to 1:30, an amount of water is in the range of 100 to 10000 parts by mass with respect to 100 parts by mass of the mixture of the organosiloxane derivative and the monohydric aliphatic alcohol, and the gel composition contains crystal structure characterized in that bilayer membranes of the organosiloxane derivative and the monohydric aliphatic alcohol are arranged in a layer form in a long-period structure and the hydrophobic groups of the organosiloxane derivative and the monohydric aliphatic alcohol are arranged in a hexagonal form on the short-plane side; in the formula, at least one of R 1 to R 3 is a functional group represented by -O-Si(R 4) 3 in which R 4 is an alkyl group having 1 to 6 carbon atoms or a phenyl group, or a functional group represented by -O-Si(R 5) 2 -X 1 in which R 5 is an alkyl group having 1 to 6 carbon atoms or a phenyl group, and X 1 is a functional group represented by the following formula when i=1; and the remaining R 1 to R 3 may be the same or different and each may be a substituted or unsubstituted monovalent hydrocarbon group; M is a hydrogen atom, a metal atom, or an organic cation; A is a linear or branched alkylene group represented by C q H 2q in which q is any integer of 0 to 20; and the organosiloxane derivative represented by the formula contains a total of 2 to 20 silicon atoms (Si) on average per molecule; in the formula, R 6 is a hydrogen atom, an alkyl group having 1 to 6 carbon atoms, or a phenyl group; R 7 and R 8 are respectively an alkyl group having 1 to 6 carbon atoms or a phenyl group; B is a linear or branched alkylene group represented by C r H 2r which may be partially branched in which r is any integer of 2 to 20; and i specifies the generation of a silylalkyl group represented by X i and is any integer of 1 to n when the generation number is n, wherein the generation number n is any integer of 1 to 10; ai is any integer of 0 to 2 when i is 1, and is an integer smaller than 3 when i is 2 or larger; and X i+1 is the silylalkyl group when i is smaller than n, and is a methyl group when i=n.