mhurhangee/ep-ind-claims huggingface dataset:
A cold box including: a. at least one set of a plurality of cores within a housing, each core having a front, back, top, bottom and side surface (228, 230), the cores in each set positioned in a row in front-to-back relationship along an axis; wherein b. the housing provides an enclosed structure; c. a plurality of headers within the housing are adapted to be connected to conduits outside of the housing, the headers extending parallel to the axis of the row of cores; and d. feed lines connect each of the headers to a respective core; characterised by: the cores having a plurality of manifolds on their front and back surfaces; and the headers being positioned to the top, bottom and/or rear of the cores with the space between one side of all the cores and the housing being free from the headers. a. at least one set of a plurality of cores within a housing, each core having a front, back, top, bottom and side surface (228, 230), the cores in each set positioned in a row in front-to-back relationship along an axis; wherein b. the housing provides an enclosed structure; c. a plurality of headers within the housing are adapted to be connected to conduits outside of the housing, the headers extending parallel to the axis of the row of cores; and d. feed lines connect each of the headers to a respective core; the cores having a plurality of manifolds on their front and back surfaces; and the headers being positioned to the top, bottom and/or rear of the cores with the space between one side of all the cores and the housing being free from the headers.
A data dispersing method of dispersing data in a mobile communication system having a plurality of radio network controllers (101_0, 101_1) which are connected to each other and a plurality of radio base stations (102_0, ···, 102_5) connected to each of the radio network controllers (101_0, 101_1), for sending and receiving user data between a host network and mobile stations (103_0, 103_1) via said radio network controllers (101_0, 101_1) and radio base stations (102_0,..., 102_5), comprising the steps: sending and receiving user data using a first transmission path from the host network through a serving radio network controller to a base station that is sending and receiving a radio signal to and from a mobile station; monitoring traffic conditions on said first transmission path; setting up a plurality of transmission paths (PT1, P1, P2), each of which passes through one or more radio network controllers (101_0, 101_1), between the base station (102_1), which sends and receives radio signals to and from the mobile station (103_0), and the host network; and dispersing said user data on said first transmission path and on one or more of the plurality of transmission paths transmission paths (P1, P2) separate from said first transmission path when traffic has increased. sending and receiving user data using a first transmission path from the host network through a serving radio network controller to a base station that is sending and receiving a radio signal to and from a mobile station; monitoring traffic conditions on said first transmission path; setting up a plurality of transmission paths (PT1, P1, P2), each of which passes through one or more radio network controllers (101_0, 101_1), between the base station (102_1), which sends and receives radio signals to and from the mobile station (103_0), and the host network; and dispersing said user data on said first transmission path and on one or more of the plurality of transmission paths transmission paths (P1, P2) separate from said first transmission path when traffic has increased.
A method of continuously preparing acrylic acid, comprising steps of: subjecting a feed including propane, oxygen, water vapor and carbon dioxide to partial oxidation using a catalyst, thus obtaining an acrylic acid-containing mixed gas; separating the acrylic acid-containing mixed gas into an acrylic acid-containing solution and a gas byproduct; separating an acrylic acid solution from the separated acrylic acid-containing solution; and recycling the separated gas byproduct into the feed, wherein an amount of the water vapor is 5 to 50 mol% based on a total mol% of the feed and an amount of the carbon dioxide is 40 to 80 mol% based on a total mol% of the feed, and wherein nitrogen is not included in the feed, the method further comprising oxidizing carbon monoxide present in the acrylic acid-containing mixed gas into carbon dioxide using a catalyst including at least one selected from the group consisting of rhodium (Rh), iridium (Ir), palladium (Pd), and platinum (Pt), between the steps and, the carbon dioxide is a carrier gas, and the partial oxidation is to be carried out according to scheme 1 below: [Scheme 1] CH 3 CH 2 CH 3 + 2O 2 → CH 2 CHCOOH + 2H 2 O subjecting a feed including propane, oxygen, water vapor and carbon dioxide to partial oxidation using a catalyst, thus obtaining an acrylic acid-containing mixed gas; separating the acrylic acid-containing mixed gas into an acrylic acid-containing solution and a gas byproduct; separating an acrylic acid solution from the separated acrylic acid-containing solution; and recycling the separated gas byproduct into the feed,
Operating method for a gas turbine during partial load operation, comprising the following steps: - specifying a power output setpoint value at a predetermined temperature value; - determining two operating curves of the temperature as a function of the power output of the gas turbine, wherein the power output setpoint value is arranged between these operating curves; - determining the power output difference of these two operating curves at the essentially constant, predetermined temperature value; - determining a power output deviation of the predetermined power output setpoint value from one of the two operating curves at the essentially constant, predetermined temperature value; - calculating an interpolated operating curve deviation on the basis of the power output difference and the power output deviation, wherein the temperature is a turbine exit temperature or a computationally determined turbine inlet temperature. - specifying a power output setpoint value at a predetermined temperature value; - determining two operating curves of the temperature as a function of the power output of the gas turbine, wherein the power output setpoint value is arranged between these operating curves; - determining the power output difference of these two operating curves at the essentially constant, predetermined temperature value; - determining a power output deviation of the predetermined power output setpoint value from one of the two operating curves at the essentially constant, predetermined temperature value; - calculating an interpolated operating curve deviation on the basis of the power output difference and the power output deviation,
An observation method comprising: acquiring, from an optical coherence tomography instrument, measurement values of an object of measurement (obj) at a plurality of different positions in a plane that intersects a depth direction; calculating integrated values by integrating the measurement values in the depth direction at each of the plurality of positions; and calculating a shrinkage parameter of the object of measurement on a basis of the integrated values at each of the plurality of positions. acquiring, from an optical coherence tomography instrument, measurement values of an object of measurement (obj) at a plurality of different positions in a plane that intersects a depth direction; calculating integrated values by integrating the measurement values in the depth direction at each of the plurality of positions; and calculating a shrinkage parameter of the object of measurement on a basis of the integrated values at each of the plurality of positions.
A sensor for detecting the presence or measuring the concentration of a target analyte, the sensor comprising: (i) a first phase comprising a first crosslinked polymer; (ii) a second phase comprising a second crosslinked polymer; and (iii) a target analyte recognition agent; the first phase and second phase arranged to form an optical grating; wherein the first crosslinked polymer comprises 1 mol% or less of a crosslinking agent by mol of monomers in the first crosslinked polymer. (i) a first phase comprising a first crosslinked polymer; (ii) a second phase comprising a second crosslinked polymer; and (iii) a target analyte recognition agent; the first phase and second phase arranged to form an optical grating; wherein the first crosslinked polymer comprises 1 mol% or less of a crosslinking agent by mol of monomers in the first crosslinked polymer.
A method of operating a communication device, the method comprising: receiving an indication of whether a first key that is used for encrypting communications on a first radio link with a communication network is to be reused for encrypting communications on a second radio link with the communication network; and if the received indication indicates that the first key is to be reused, determining whether or not to operate according to the received indication and reuse the first key for encrypting communications on the second radio link. receiving an indication of whether a first key that is used for encrypting communications on a first radio link with a communication network is to be reused for encrypting communications on a second radio link with the communication network; and if the received indication indicates that the first key is to be reused, determining whether or not to operate according to the received indication and reuse the first key for encrypting communications on the second radio link.
An embryonic cell for a self-healing system architecture, said cell including at least a first input and a second input, at least one output, and at least one functional block (140, 200) configurable to set the at least one output based on at least one of the first input and the second input using either one of a plurality of functions, wherein the cell is configurable to operate in a first state or a second state different from the first state, and: if operating in the first state: use the functional block to set the at least one output based on the first input using a first function of the plurality of functions during a time period of a single clock cycle, and if operating in the second state and by using time-division multiplexing: use the functional block to set the at least one output based on the first input using the first function during only a part of the time period triggered by a clock signal slope of a first kind, and set the at least one output based on the second input using a second function of the plurality of functions during another part of the time period triggered by a clock signal slope different from the first kind, wherein the functional block is implemented using reversible logic. if operating in the first state: use the functional block to set the at least one output based on the first input using a first function of the plurality of functions during a time period of a single clock cycle, and if operating in the second state and by using time-division multiplexing: use the functional block to set the at least one output based on the first input using the first function during only a part of the time period triggered by a clock signal slope of a first kind, and set the at least one output based on the second input using a second function of the plurality of functions during another part of the time period triggered by a clock signal slope different from the first kind, wherein the functional block is implemented using reversible logic.
A method for providing a public land mobile network PLMN list by a mobility management entity MME, the method comprising: receiving a request including information on a user equipment UE preference for voice over long term evolution VoLTE from the UE; determining whether the UE prefers VoLTE according to the request; and generating an equivalent PLMN list or a VoLTE-support PLMN list based on the UE preference for VoLTE and VoLTE support of an evolved Node B eNB serving the UE, wherein the equivalent PLMN list includes information indicating whether VoLTE is supported by each PLMN and the VoLTE-support PLMN list includes only PLMNs supporting VoLTE; sending, when the UE prefers VoLTE and the eNB serving the UE supports VoLTE, the equivalent PLMN list or the VoLTE-support PLMN list. receiving a request including information on a user equipment UE preference for voice over long term evolution VoLTE from the UE; determining whether the UE prefers VoLTE according to the request; and generating an equivalent PLMN list or a VoLTE-support PLMN list based on the UE preference for VoLTE and VoLTE support of an evolved Node B eNB serving the UE, wherein the equivalent PLMN list includes information indicating whether VoLTE is supported by each PLMN and the VoLTE-support PLMN list includes only PLMNs supporting VoLTE; sending, when the UE prefers VoLTE and the eNB serving the UE supports VoLTE, the equivalent PLMN list or the VoLTE-support PLMN list.
A laminated glazing comprising a first ply of glazing material and a second ply of glazing material joined by at least one ply of adhesive interlayer material, the first ply of glazing material comprising a sheet of glass having a first composition and the second ply of glazing material is a sheet of glass that has been chemically strengthened and having a second composition different to the first composition, wherein the laminated glazing has (i) a peripheral region extending around the periphery of the laminated glazing, the laminated glazing having a surface compression stress in the peripheral region and (ii) an edge compression, wherein the magnitude of edge compression is greater than the magnitude of the surface compression stress in the peripheral region, wherein the first ply of the laminated glazing has an edge region having a residual edge stress with a net tension and wherein the residual edge stress of the first ply in the edge region has a net tension less than 15MPa, preferably less than 14MPa, more preferably less than 13MPa, more preferably less than 12MPa, most preferably less than 11MPa.
A cell product for use in prevention and/or treatment of organ fibrosis, comprising a SSEA-3-positive pluripotent stem cell derived from mesenchymal tissue in a living body or a cultured mesenchymal cell, wherein said pluripotent stem cell shows negative expression for CD117, CD146, NG2, CD34, vWF and CD271, and wherein said organ fibrosis is a fibrosis occurring in at least one organ selected from the group consisting of a digestive organ, a respiratory organ, or on skin.
A method for estimating at least one combustion characteristic of a fuel gas belonging to a family of fuel gases, said at least one characteristic being the Wobbe index or the higher heating value, the method comprising: a measurement of at least two flow properties of said fuel gas, the flow properties of the fuel gas being properties measured in a flow member and chosen from the group comprising the flow rate, the temperature, and the pressure, a measurement of the dihydrogen rate X H 2 contained in said fuel gas, the method being characterized in that said at least one characteristic Ξ GN/H2 is estimated by means of the following empirical affine law: Ξ GN / H 2 = α + β ⋅ Y + γ ⋅ X H 2 with α, β and γ predetermined coefficients for the family of fuel gases, and Y a variable representative of physical properties of said fuel gas developed from said measured values of said at least two flow properties of said fuel gas, Y being a variable representative of physical properties of the fuel gas such as viscosity, specific heat capacity or density, and expressible as a function of the measured values of the flow properties of the fuel gas. a measurement of at least two flow properties of said fuel gas, the flow properties of the fuel gas being properties measured in a flow member and chosen from the group comprising the flow rate, the temperature, and the pressure, a measurement of the dihydrogen rate X H 2 contained in said fuel gas, the method being characterized in that said at least one characteristic Ξ GN/H2 is estimated by means of the following empirical affine law: Ξ GN / H 2 = α + β ⋅ Y + γ ⋅ X H 2 with α, β and γ predetermined coefficients for the family of fuel gases, and Y a variable representative of physical properties of said fuel gas developed from said measured values of said at least two flow properties of said fuel gas, Y being a variable representative of physical properties of the fuel gas such as viscosity, specific heat capacity or density, and expressible as a function of the measured values of the flow properties of the fuel gas.
A communication apparatus (201, 401) comprising: storage means for storing first communication parameters to wirelessly communicate in a first wireless network and second communication parameters to wirelessly communicate in a second wireless network; identification means for identifying that a communication parameter setting scheme used by an acceptor apparatus (301, 402, 403) of the communication parameters is either an authentication code scheme or a non-authentication code scheme, wherein for said authentication code scheme an authentication code is to be input by a user and for said non-authentication code scheme no authentication code is to be input by a user; selection means for selecting, from the communication parameters stored in said storage means, any one of the first communication parameters and the second communication parameters in accordance with the setting scheme identified by said identification means; and providing means for providing the acceptor apparatus with the communication parameters selected by said selection means in accordance with the setting scheme identified by said identification means, wherein said identification means is adapted to identify the setting scheme on the basis of information contained in a start message of communication parameter setting received from the acceptor apparatus, said information representing that the authentication code scheme or the non-authentication code scheme is used as the setting scheme by the acceptor apparatus. storage means for storing first communication parameters to wirelessly communicate in a first wireless network and second communication parameters to wirelessly communicate in a second wireless network; identification means for identifying that a communication parameter setting scheme used by an acceptor apparatus (301, 402, 403) of the communication parameters is either an authentication code scheme or a non-authentication code scheme, wherein for said authentication code scheme an authentication code is to be input by a user and for said non-authentication code scheme no authentication code is to be input by a user; selection means for selecting, from the communication parameters stored in said storage means, any one of the first communication parameters and the second communication parameters in accordance with the setting scheme identified by said identification means; and providing means for providing the acceptor apparatus with the communication parameters selected by said selection means in accordance with the setting scheme identified by said identification means, wherein said identification means is adapted to identify the setting scheme on the basis of information contained in a start message of communication parameter setting received from the acceptor apparatus, said information representing that the authentication code scheme or the non-authentication code scheme is used as the setting scheme by the acceptor apparatus.
An electrospun composite scaffold comprising a polyester, a hydrophilic polymer, and a growth factor or a protein, and further a bioceramic and a cationic surfactant, wherein the growth factor or protein is electrostatically attracted to the bioceramic due to the net positive surface charge exhibited by the growth factor or protein.
A computer-implemented method for determination of noise in a sampled cardiac electrical signal, said sampled cardiac electrical signal comprising a consecutive sequence of samples, each sample having an amplitude, the amplitudes in general being positive or negative, the method comprising the steps of - providing a signal quality check window that comprises a number of consecutive samples - providing at least one upper threshold for a signal amplitude - providing at least one lower threshold for a signal amplitude said at least one upper threshold and said at least one lower threshold defining at least three amplitude ranges, a high range for signal amplitude exceeding said upper threshold, a medium range for amplitudes between said upper threshold and said lower threshold and a low range for amplitude below said lower threshold - comparing each sample within said quality check window with said upper threshold and with said lower threshold; and - performing a signal quality analysis for said signal sample by: a) analyzing the changes in amplitude of successive samples within said quality check window, said change in amplitude being determined for any two adjacent sample pairs within said quality check window by comparing to which amplitude ranges the amplitudes of the signal samples of the respective sample pair belong to, and by b) determining a threshold crossing number reflecting the number of thresholds between each two adjacent signal samples of each sample pair. - providing a signal quality check window that comprises a number of consecutive samples - providing at least one upper threshold for a signal amplitude - providing at least one lower threshold for a signal amplitude said at least one upper threshold and said at least one lower threshold defining at least three amplitude ranges, a high range for signal amplitude exceeding said upper threshold, a medium range for amplitudes between said upper threshold and said lower threshold and a low range for amplitude below said lower threshold - comparing each sample within said quality check window with said upper threshold and with said lower threshold; and - performing a signal quality analysis for said signal sample by: a) analyzing the changes in amplitude of successive samples within said quality check window, said change in amplitude being determined for any two adjacent sample pairs within said quality check window by comparing to which amplitude ranges the amplitudes of the signal samples of the respective sample pair belong to, and by b) determining a threshold crossing number reflecting the number of thresholds between each two adjacent signal samples of each sample pair.