mhurhangee/ep-ind-claims huggingface dataset:
A congestion control method of a mobile communication system, the method comprising: identifying a congestion state; identifying congestion control information including required physical resource information of each of a plurality of users and in-use physical resource information of each of the plurality of users; determining at least one resource release target user based on the required physical resource information and the in-use physical resource information; and releasing resources allocated to the at least one resource release target user. identifying a congestion state; identifying congestion control information including required physical resource information of each of a plurality of users and in-use physical resource information of each of the plurality of users; determining at least one resource release target user based on the required physical resource information and the in-use physical resource information; and releasing resources allocated to the at least one resource release target user.
- Thermostatic fitting comprising three separate modules, • intake module • mixing module and • distribution module with at least two outlet connections, to divert the mixed water towards a shower column/head, or towards a bath or towards a shower hose, the said modules being connected to each other through piping sectors (22 - 23 - 24 and/or 27), characterised in that • the said thermostatic fitting (1 - 1.1 - 1.2 or 1.3) is inserted in a container used as packaging, envisaged for joint embedded installation in a horizontal or vertical position, • remaining concealed ∘ the intake module by the attachment of a covering cap (14, 14.1) ∘ the mixing module by the attachment of a control knob with a temperature indicating scale supplement or optimal usage temperature indicator, ∘ the distribution module by the attachment an actuating knob to divert the mixed water towards a shower column/head or towards a bath, or towards a shower hose. • intake module • mixing module and • distribution module with at least two outlet connections, to divert the mixed water towards a shower column/head, or towards a bath or towards a shower hose, the said modules being connected to each other through piping sectors (22 - 23 - 24 and/or 27), characterised in that • the said thermostatic fitting (1 - 1.1 - 1.2 or 1.3) is inserted in a container used as packaging, envisaged for joint embedded installation in a horizontal or vertical position, • remaining concealed ∘ the intake module by the attachment of a covering cap (14, 14.1) ∘ the mixing module by the attachment of a control knob with a temperature indicating scale supplement or optimal usage temperature indicator, ∘ the distribution module by the attachment an actuating knob to divert the mixed water towards a shower column/head or towards a bath, or towards a shower hose. ∘ the intake module by the attachment of a covering cap (14, 14.1) ∘ the mixing module by the attachment of a control knob with a temperature indicating scale supplement or optimal usage temperature indicator, ∘ the distribution module by the attachment an actuating knob to divert the mixed water towards a shower column/head or towards a bath, or towards a shower hose.
An empennage for an aircraft, the empennage comprising an aft spar and a forward spar; and an empennage attachment system, further comprising: an aft attachment mechanism configured to be coupled to a tail section of a body of an aircraft and to the empennage proximate to the aft spar of the empennage, the aft attachment mechanism defining a pitch axis arranged perpendicularly to a flight control surface of the empennage such that the aft attachment mechanism allows the empennage to rotate about the pitch axis; and a forward attachment system configured to be coupled to the tail section of the body and to the empennage proximate to the forward spar of the empennage, the forward attachment system configured to restrict rotation of the empennage about the pitch axis to an allowable range of motion, wherein the forward attachment system further comprises: an outer member; an inner member configured to slide within the outer member; and at least one pad configured to restrict the movement of the inner member relative to the outer member, and thereby restrict the rotation of the empennage about the pitch axis, wherein the at least one pad is an elastomer material bonded to both the inner member and to the outer member. an aft attachment mechanism configured to be coupled to a tail section of a body of an aircraft and to the empennage proximate to the aft spar of the empennage, the aft attachment mechanism defining a pitch axis arranged perpendicularly to a flight control surface of the empennage such that the aft attachment mechanism allows the empennage to rotate about the pitch axis; and a forward attachment system configured to be coupled to the tail section of the body and to the empennage proximate to the forward spar of the empennage, the forward attachment system configured to restrict rotation of the empennage about the pitch axis to an allowable range of motion, wherein the forward attachment system further comprises: an outer member; an inner member configured to slide within the outer member; and at least one pad configured to restrict the movement of the inner member relative to the outer member, and thereby restrict the rotation of the empennage about the pitch axis, wherein the at least one pad is an elastomer material bonded to both the inner member and to the outer member. an outer member; an inner member configured to slide within the outer member; and at least one pad configured to restrict the movement of the inner member relative to the outer member, and thereby restrict the rotation of the empennage about the pitch axis, wherein the at least one pad is an elastomer material bonded to both the inner member and to the outer member.
Analysis device for determining the concentrations of n gases of a gaseous mixture, comprising a microfluidic channel extending between a first end and a second end, at least n-1 suspended elements in the microfluidic channel, the number of suspended elements being at least equal to 2, said n-1 elements (S1, S2...Sn-1) succeeding each other from the first end of the microfluidic channel to the second end of the microfluidic channel, heating means capable of heating a zone of the gaseous mixture surrounding each suspended element (S1, S2...Sn-1), the heating means and the arrangement of the suspended elements being such that each zone of the gaseous mixture is heated to a given temperature different to those to which are heated the zones of gaseous mixture surrounding the other suspended elements (S1, S2...Sn-1), means of measuring the temperature or the variation in temperature of each suspended element (S1, S2...Sn-1), and a control and measurement system connected to the heating means and to the measuring means, in which the control system commands the heating means such that each zone of the gaseous mixture is heated to a given temperature different to those to which are heated the other zones of the gaseous mixture, and in which the control and measurement system is configured to use the temperature or the variation in temperature of n-1 suspended elements (S1, S2...Sn-1) to determine the thermal conductivities associated to the n-1 measured temperature or the variation in temperature, and determine the gas concentrations.
A process for preparing C 2 to C 3 hydrocarbons comprising: introducing a feed stream comprising hydrogen gas and a carbon-containing gas selected from the group consisting of carbon monoxide, carbon dioxide, and mixtures thereof into a reaction zone of a reactor; and converting the feed stream into a product stream comprising C 2 to C 3 hydrocarbons in the reaction zone in the presence of a hybrid catalyst, the hybrid catalyst comprising: a mixed metal oxide catalyst component; and a microporous catalyst component comprising 8-MR pore openings, wherein: the microporous catalyst component is derived from a natural mineral; and the product stream comprises a combined C 2 and C 3 selectivity greater than 40 C mol% in the product stream. introducing a feed stream comprising hydrogen gas and a carbon-containing gas selected from the group consisting of carbon monoxide, carbon dioxide, and mixtures thereof into a reaction zone of a reactor; and converting the feed stream into a product stream comprising C 2 to C 3 hydrocarbons in the reaction zone in the presence of a hybrid catalyst, the hybrid catalyst comprising: a mixed metal oxide catalyst component; and a microporous catalyst component comprising 8-MR pore openings, wherein: the microporous catalyst component is derived from a natural mineral; and the product stream comprises a combined C 2 and C 3 selectivity greater than 40 C mol% in the product stream. a mixed metal oxide catalyst component; and a microporous catalyst component comprising 8-MR pore openings, wherein: the microporous catalyst component is derived from a natural mineral; and the product stream comprises a combined C 2 and C 3 selectivity greater than 40 C mol% in the product stream. the microporous catalyst component is derived from a natural mineral; and the product stream comprises a combined C 2 and C 3 selectivity greater than 40 C mol% in the product stream.
A valve manifold for a pressure swing adsorption system having at least one pressure vessel, said valve manifold comprising: a body having a first cavity, a first passage and a first channel, said first cavity being adapted at one end to fluidly connect to the at least one pressure vessel and being closed at its opposite end, said first passage connecting said first channel to said first cavity; said first channel extending from one side of said body to another; and a first valve provided within said first passage, said first valve being configured to selectively permit and restrict flow between said first channel and said first cavity via said first passage, characterized in that said body has a second passage and a second channel, said second passage connecting said second channel to said first cavity, said second channel extending from one side of said body to another; and said valve manifold further comprises a second valve provided within said second passage, said second valve being configured to selectively permit and restrict fluid flow between said second channel and said first cavity via said second passage. a body having a first cavity, a first passage and a first channel, said first cavity being adapted at one end to fluidly connect to the at least one pressure vessel and being closed at its opposite end, said first passage connecting said first channel to said first cavity; said first channel extending from one side of said body to another; and a first valve provided within said first passage, said first valve being configured to selectively permit and restrict flow between said first channel and said first cavity via said first passage, characterized in that said body has a second passage and a second channel, said second passage connecting said second channel to said first cavity, said second channel extending from one side of said body to another; and said valve manifold further comprises a second valve provided within said second passage, said second valve being configured to selectively permit and restrict fluid flow between said second channel and said first cavity via said second passage.
A heat exchanger for exchanging heat between a refrigerant and air, comprising a plurality of fins for transferring the heat, and heat transfer pipes that are inserted into through holes formed on the fins and disposed in a plurality of columns (45aa, 45ab, 45ac), characterised in that the fins include fine pores with diameters ranging from 1 to 3.5 nm for adsorbing water contained in the air by a capillary condensation phenomenon, wherein said fine pores are formed on a surface of fin material itself such that the fin itself functions as a water absorbing unit, said diameters differ according to positions on the surface of said fin, said pores are distributed so as to have smaller pore diameters from an upwind side to a downwind side along a air flow direction when moisture is absorbed, and each column (45aa, 45ab, 45ac) of the heat transfer tubes has different diameters of said fine pores.
A polymerizable composition comprising: a continuous phase comprising at least one of water or carbon dioxide; an amount of un-aggregated inorganic nanoparticles wherein the inorganic nanoparticles comprise a surface modification with organic moieties; a polymerizable monomer, wherein the polymerizable monomer contains 0 to less than 1 weight percent of a polar, water soluble monomer; and an initiator, wherein the polymerizable composition comprises less than 0.1% by weight of an organic emulsifier and wherein the inorganic nanoparticles comprise less than 1% of groups that will copolymerize with the polymerizable monomer. a continuous phase comprising at least one of water or carbon dioxide; an amount of un-aggregated inorganic nanoparticles wherein the inorganic nanoparticles comprise a surface modification with organic moieties; a polymerizable monomer, wherein the polymerizable monomer contains 0 to less than 1 weight percent of a polar, water soluble monomer; and an initiator,
A method of determining a quality value of a video stream transmitted to a media player, comprising the steps of, for a measuring interval (ΔT) of the video stream: identifying at least two lost data packets (3, 4, 7, 8,9) of the video stream, identifying intra coded frames (I1, I2, I3, I4) of the video stream, and characterized by the steps of: determining, for each of the intra coded frames (I1, I2, I4) identified, that the intra coded frame has a maintained image quality if none of the lost data packets identified are associated with the intra coded frame, estimating, for each of the lost packets (3; 4; 7; 8; 9) identified, a distance (D1; D2; D3; D4; D5) between the lost data packet and a next intra coded frame (12; 14) that occurs subsequently to the lost data packet in the video stream and that has a maintained image quality, wherein said distance is defined by the difference between the sequence number of the lost data packet and the sequence number of a last data packet of the intra coded frame, and generating the quality value, based on the distances (D1, D2, D3, D4, D5). identifying at least two lost data packets (3, 4, 7, 8,9) of the video stream, identifying intra coded frames (I1, I2, I3, I4) of the video stream, and characterized by the steps of: determining, for each of the intra coded frames (I1, I2, I4) identified, that the intra coded frame has a maintained image quality if none of the lost data packets identified are associated with the intra coded frame, estimating, for each of the lost packets (3; 4; 7; 8; 9) identified, a distance (D1; D2; D3; D4; D5) between the lost data packet and a next intra coded frame (12; 14) that occurs subsequently to the lost data packet in the video stream and that has a maintained image quality, wherein said distance is defined by the difference between the sequence number of the lost data packet and the sequence number of a last data packet of the intra coded frame, and generating the quality value, based on the distances (D1, D2, D3, D4, D5). determining, for each of the intra coded frames (I1, I2, I4) identified, that the intra coded frame has a maintained image quality if none of the lost data packets identified are associated with the intra coded frame, estimating, for each of the lost packets (3; 4; 7; 8; 9) identified, a distance (D1; D2; D3; D4; D5) between the lost data packet and a next intra coded frame (12; 14) that occurs subsequently to the lost data packet in the video stream and that has a maintained image quality, wherein said distance is defined by the difference between the sequence number of the lost data packet and the sequence number of a last data packet of the intra coded frame, and generating the quality value, based on the distances (D1, D2, D3, D4, D5).
Centrifugal separator comprising a stationary part forming a base configured to be located on a ground, a non-rotating part, which is elastically connected to the stationary part by means of an elastic connection, a rotating part, which is configured to rotate around an axis (x) of rotation and comprises a centrifuge rotor, which comprises a rotor casing forming an inner separation space, and a rotating bearing-receiving element, wherein the centrifuge rotor comprises a disk package having a plurality of separating disks and wherein the rotating part is journalled in the non-rotating part in such a way that the rotating part and the non-rotating part are commonly pivotable in relation to the stationary part by means of the elastic connection, a drive arrangement for driving the rotating part to rotate around the axis (x) of rotation within a range of revolutions, which is from zero to a highest number of revolutions per minute and which comprises at least an operating number of revolutions, an inlet channel, which extends into the inner separation space for feeding of a medium to be separated, at least an outlet channel, which extends out from the inner separation space for discharge of a separated product, wherein the bearing-receiving element is tubular and at least one of the inlet channel and the outlet channel extends through the bearing-receiving element, characterized in that the drive arrangement comprises an electric motor which comprises a rotor and a stator, wherein the stator is comprised by the non-rotating part and the rotor is comprised by and provided on the rotating part.
A method implemented at a cloud service provider, the method comprising: in response to a request from a third authorized party, obtaining from a plurality of data providers cipher texts of their respective data, based on the request, wherein each data provider is able to homomorphically encrypt its data; analyzing the cipher texts; and sending the analyzing result to the third authorized party, wherein the third authorized party is able to re-encrypt the analyzing result with at least the third authorized party's secret key, such that a data requestor can decrypt the re-encrypted analyzing result with the data requestor's secret key. in response to a request from a third authorized party, obtaining from a plurality of data providers cipher texts of their respective data, based on the request, wherein each data provider is able to homomorphically encrypt its data; analyzing the cipher texts; and sending the analyzing result to the third authorized party, wherein the third authorized party is able to re-encrypt the analyzing result with at least the third authorized party's secret key, such that a data requestor can decrypt the re-encrypted analyzing result with the data requestor's secret key.
A keyboard musical instrument playing apparatus comprising: a key for operation by a user, a movable member configured to be displaced responsive to a playing operation of a user; a detection part formed from a magnetic or conductive body and disposed on the movable member; and a filter that includes a coil (61, 61A, 61B) and is configured to generate a detection signal from a reference signal having a frequency, the filter having a frequency response that changes depending on a distance between the detection part and the coil (61, 61A, 61B), in response to the playing operation, characterized in that said movable member is a hammer configured to be displaced by the playing operation performed on the key. a key for operation by a user, a movable member configured to be displaced responsive to a playing operation of a user; a detection part formed from a magnetic or conductive body and disposed on the movable member; and a filter that includes a coil (61, 61A, 61B) and is configured to generate a detection signal from a reference signal having a frequency, the filter having a frequency response that changes depending on a distance between the detection part and the coil (61, 61A, 61B), in response to the playing operation, characterized in that said movable member is a hammer configured to be displaced by the playing operation performed on the key.
An air separator system to separate lightweight waste from product conveyed on a foraminous conveyor, the air separator system comprising: a foraminous conveyor and an air separator comprising: a first duct having an exit adapted to be positioned below the underside of the foraminous conveyor conveying product in a conveying direction; a blower creating an air flow in the first duct; a pair of vanes spanning the first duct; and means for cyclically rotating the vanes by counter-rotating the vanes back and forth on parallel axes between a closed position blocking air flow through the first duct and an open position forming between the vanes a centrally disposed gap across the first duct to direct a pulsating air flow centrally through the first duct and upward through the exit and wherein the air separator further comprises: a waste conveyor duct disposed above the exit in alignment with the first duct. a foraminous conveyor and an air separator comprising: a first duct having an exit adapted to be positioned below the underside of the foraminous conveyor conveying product in a conveying direction; a blower creating an air flow in the first duct; a pair of vanes spanning the first duct; and means for cyclically rotating the vanes by counter-rotating the vanes back and forth on parallel axes between a closed position blocking air flow through the first duct and an open position forming between the vanes a centrally disposed gap across the first duct to direct a pulsating air flow centrally through the first duct and upward through the exit and wherein the air separator further comprises: a waste conveyor duct disposed above the exit in alignment with the first duct. a first duct having an exit adapted to be positioned below the underside of the foraminous conveyor conveying product in a conveying direction; a blower creating an air flow in the first duct; a pair of vanes spanning the first duct; and means for cyclically rotating the vanes by counter-rotating the vanes back and forth on parallel axes between a closed position blocking air flow through the first duct and an open position forming between the vanes a centrally disposed gap across the first duct to direct a pulsating air flow centrally through the first duct and upward through the exit and wherein the air separator further comprises: a waste conveyor duct disposed above the exit in alignment with the first duct.
A method of previewing images photographed by an electronic device comprising a plurality of cameras (160; 170) and a display unit, the method comprising: displaying a main preview image of a first one of the cameras, and displaying a sub preview image of a second one of the cameras in the main preview image; changing a property of the sub preview image in response to recognizing a movement of the electronic device in a direction to a side of the electronic device, wherein changing the property of the sub preview image comprises changing the transparency of the sub preview image, and maintaining the transparency of the sub preview image while the movement is recognized; and when the movement of the electronic device stops, restoring the changed property to an original property before the changing. displaying a main preview image of a first one of the cameras, and displaying a sub preview image of a second one of the cameras in the main preview image; changing a property of the sub preview image in response to recognizing a movement of the electronic device in a direction to a side of the electronic device, wherein changing the property of the sub preview image comprises changing the transparency of the sub preview image, and maintaining the transparency of the sub preview image while the movement is recognized; and when the movement of the electronic device stops, restoring the changed property to an original property before the changing.