mhurhangee/ep-ind-claims huggingface dataset:
A CO 2 recovering method by using a CO 2 absorber that brings flue gas containing CO 2 into contact with CO 2 absorbent solution to reduce CO 2 contained in the flue gas, and a regenerator that reduces CO 2 contained in rich solvent having absorbed CO 2 in the CO 2 absorber to regenerate the rich solvent, so that the CO 2 absorbent that is lean solvent having CO 2 reduced in the regenerator is reused in the CO 2 absorber, the CO 2 recovering method being characterized in that it comprises: controlling to detect a concentration of absorbent in the CO 2 absorbent solution, to increase or decrease a volume of the CO 2 absorbent solution to be circulated based on a decrease or an increase in the absorbent concentration, and to adjust a volume of steam to be supplied in the regenerator based on the volume of the CO 2 absorbent solution to be circulated. controlling to detect a concentration of absorbent in the CO 2 absorbent solution, to increase or decrease a volume of the CO 2 absorbent solution to be circulated based on a decrease or an increase in the absorbent concentration, and to adjust a volume of steam to be supplied in the regenerator based on the volume of the CO 2 absorbent solution to be circulated.
A method for providing feedback to a user for adjusting sleep pattern of the user, the method comprising: - collecting a set of information related to the user; - receiving a set of measurement data related to the user from a wearable electronic device; - defining circadian rhythm and duration of sleep of the user; - determining sleep scores for a predefined number of days, the predefined number of days being a minimum of 7 days, wherein a sleep score is determined for each of the predefined number of days from the collected set of information, the set of measurement data, the circadian rhythm and the duration of sleep of the user, and associating each sleep score with a corresponding go-to-bed time or time of falling asleep of the user, wherein the go-to-bed time or time of falling asleep are determined based on the measurement data; - analysing, by a processing module, the sleep scores and associated go-to-bed time and/or time of falling asleep of the user to determine a duration of an optimum bedtime window for the user, wherein the optimum bedtime window is determined based on variation of the go-to-bed time of the user in the predefined number of days; and - providing feedback to the user based on the analysed sleep scores and the optimum bedtime window, wherein the feedback comprises instructions to the user related to adjusting the sleep pattern. - collecting a set of information related to the user; - receiving a set of measurement data related to the user from a wearable electronic device; - defining circadian rhythm and duration of sleep of the user; - determining sleep scores for a predefined number of days, the predefined number of days being a minimum of 7 days, wherein a sleep score is determined for each of the predefined number of days from the collected set of information, the set of measurement data, the circadian rhythm and the duration of sleep of the user, and associating each sleep score with a corresponding go-to-bed time or time of falling asleep of the user, wherein the go-to-bed time or time of falling asleep are determined based on the measurement data; - analysing, by a processing module, the sleep scores and associated go-to-bed time and/or time of falling asleep of the user to determine a duration of an optimum bedtime window for the user, wherein the optimum bedtime window is determined based on variation of the go-to-bed time of the user in the predefined number of days; and - providing feedback to the user based on the analysed sleep scores and the optimum bedtime window, wherein the feedback comprises instructions to the user related to adjusting the sleep pattern.
A wearable sensor module, comprising: a housing configured to be worn by a subject; an optical emitter and an optical detector; a first light guide in optical communication with the optical emitter, wherein the first light guide comprises a cylindrical distal end portion extending outwardly from the housing and having a flat or rounded exposed end surface that, when the housing is worn by a subject, engages a region of the skin of the subject and is configured to deliver light from the optical emitter into the body of the subject via the exposed end surface thereof; and a second light guide in optical communication with the optical detector, wherein the second light guide comprises a cylindrical distal end portion extending outwardly from the housing and having a flat or rounded exposed end surface that, when the housing is worn by a subject, engages the region of the skin of the subject and is configured to collect light from the body of the subject via the exposed end surface thereof and deliver collected light to the optical detector. a housing configured to be worn by a subject; an optical emitter and an optical detector; a first light guide in optical communication with the optical emitter, wherein the first light guide comprises a cylindrical distal end portion extending outwardly from the housing and having a flat or rounded exposed end surface that, when the housing is worn by a subject, engages a region of the skin of the subject and is configured to deliver light from the optical emitter into the body of the subject via the exposed end surface thereof; and a second light guide in optical communication with the optical detector, wherein the second light guide comprises a cylindrical distal end portion extending outwardly from the housing and having a flat or rounded exposed end surface that, when the housing is worn by a subject, engages the region of the skin of the subject and is configured to collect light from the body of the subject via the exposed end surface thereof and deliver collected light to the optical detector.
An outer sole being disposed on the bottom face of shoes, comprising: a polymer composition with a specific gravity of 0.95 or less which contains an olefin resin and a styrene elastomer; wherein the specific gravity is measured in accordance with JIS K 7311, wherein a storage elastic modulus [E'] and a loss coefficient [tanδ] in a dynamic viscoelasticity measurement (20±3°C, 10 Hz) are 100 MPa to 500 MPa and 0.2 or less respectively, wherein the storage elastic modulus and the loss coefficient are measured in accordance with JIS K 7244, and a maximum tensile stress is 30 MPa or more, wherein the maximum tensile stress is measured in accordance with JIS K 6251. a polymer composition with a specific gravity of 0.95 or less which contains an olefin resin and a styrene elastomer; wherein the specific gravity is measured in accordance with JIS K 7311, wherein a storage elastic modulus [E'] and a loss coefficient [tanδ] in a dynamic viscoelasticity measurement (20±3°C, 10 Hz) are 100 MPa to 500 MPa and 0.2 or less respectively, wherein the storage elastic modulus and the loss coefficient are measured in accordance with JIS K 7244, and a maximum tensile stress is 30 MPa or more, wherein the maximum tensile stress is measured in accordance with JIS K 6251.
A nucleic acid molecule comprising a nucleotide sequence selected from the group consisting of: i) a nucleic acid molecule consisting of the nucleotide sequence as represented in Figure 12a and which encodes dominant leishmanial antigens; and iii) a nucleic acid molecule comprising nucleotide sequences that are degenerate as a result of the genetic code to the nucleotide sequence defined in (i) and and encodes an amino acid sequence as represented in Figure 12b. i) a nucleic acid molecule consisting of the nucleotide sequence as represented in Figure 12a and which encodes dominant leishmanial antigens; and iii) a nucleic acid molecule comprising nucleotide sequences that are degenerate as a result of the genetic code to the nucleotide sequence defined in (i) and and encodes an amino acid sequence as represented in Figure 12b.
A cable-type secondary battery, comprising: an inner electrode; and a sheet-form laminate of separation layer-outer electrode, helically wound to surround the outer surface of the inner electrode, the laminate being formed by carrying out compression for the integration of a separation layer for preventing a short circuit, and an outer electrode. an inner electrode; and a sheet-form laminate of separation layer-outer electrode, helically wound to surround the outer surface of the inner electrode, the laminate being formed by carrying out compression for the integration of a separation layer for preventing a short circuit, and an outer electrode.
A method, performed by a network node, for reducing a higher layer signaling overhead in multi antenna wireless communication systems, wherein the network node operates in a communication network, which communication network is adapted to wirelessly serve a network device via a Radio Access, RA, node, wherein the method comprises: - obtaining information from the network device, which information comprises a category of the network device and a number of layers supported by the network device, - determining a length of a codebook subset restriction based on the category of the network device and the number of layers supported by the network device comprised in the information obtained from the network device, and - sending a codebook subset restriction bit map to the network device, according to the determined length of the codebook subset restriction. - obtaining information from the network device, which information comprises a category of the network device and a number of layers supported by the network device, - determining a length of a codebook subset restriction based on the category of the network device and the number of layers supported by the network device comprised in the information obtained from the network device, and - sending a codebook subset restriction bit map to the network device, according to the determined length of the codebook subset restriction.
A pressing method for pressing ceramic slabs or tiles, wherein the pressing takes place through a press structured to press a maximum format comprising the following steps: spreading a layer of granular or powdered material on a pressing plane, wherein the layer comprises at least a first zone, made of a granular or powdered primary material, which has an area and border smaller than the maximum format, and at least a second zone. made of a granular or powdered secondary material, different from the primary material, which has an area and border and fills the differences between the maximum format and the reduced format defined by the first zone, so that the total area and border provided by the area and border of the first zone and the second zone substantially correspond to the area and border of the maximum format for which the press is structured; pressing the layer using a press; separating at least a main portion of the first zone from the second zone. spreading a layer of granular or powdered material on a pressing plane, wherein the layer comprises at least a first zone, made of a granular or powdered primary material, which has an area and border smaller than the maximum format, and at least a second zone. made of a granular or powdered secondary material, different from the primary material, which has an area and border and fills the differences between the maximum format and the reduced format defined by the first zone, so that the total area and border provided by the area and border of the first zone and the second zone substantially correspond to the area and border of the maximum format for which the press is structured; pressing the layer using a press; separating at least a main portion of the first zone from the second zone.
A winter-services spreading tool, comprising a spreading-material container for accommodating a first spreading material, a discharge device arranged in the bottom area of said container and a distribution device fed by said discharge device, which distribution device has a rotationally driven spreading plate, wherein a secondary container furthermore is provided for accommodating a second spreading material, a ring-shaped centrifugal disc is provided above the spreading plate, which centrifugal disc is fitted with tappets on its top, rotates coaxially to the spreading plate and has a central opening, and at least one feed element of a feed device for second spreading material, which feed device is connected to the secondary container, is directed to the ring-shaped centrifugal disc, wherein the ring-shaped centrifugal disc is designed in the shape of a truncated cone, characterized in that the distance of the centrifugal disc to the spreading plate increases radially outward.
A method for supporting positioning measurements, comprising: designating a base station cell of a Long Term Evolution, LTE, system as a reference cell; and transmitting reference cell information associated with the reference cell and non-reference cell information associated with a non-reference cell to a wireless transmit/receive unit, WTRU, for use by the WTRU in performing positioning measurements with respect to the reference cell and the non-reference cell, wherein: the transmitted non-reference cell information includes: positioning reference signal, PRS, information associated with the non-reference cell indicating in which subframes PRSs of said LTE system are to be transmitted by the non-reference cell; and information indicating whether or not a PRS transmission by the non-reference cell is synchronized with a PRS transmission by the reference cell, and the transmitted reference cell information includes PRS information associated with the reference cell indicating in which subframes PRSs of said LTE system are to be transmitted by the reference cell, the PRS information of the reference cell information including a PRS configuration index and a PRS bandwidth. designating a base station cell of a Long Term Evolution, LTE, system as a reference cell; and transmitting reference cell information associated with the reference cell and non-reference cell information associated with a non-reference cell to a wireless transmit/receive unit, WTRU, for use by the WTRU in performing positioning measurements with respect to the reference cell and the non-reference cell, wherein: the transmitted non-reference cell information includes: positioning reference signal, PRS, information associated with the non-reference cell indicating in which subframes PRSs of said LTE system are to be transmitted by the non-reference cell; and information indicating whether or not a PRS transmission by the non-reference cell is synchronized with a PRS transmission by the reference cell, and the transmitted reference cell information includes PRS information associated with the reference cell indicating in which subframes PRSs of said LTE system are to be transmitted by the reference cell, the PRS information of the reference cell information including a PRS configuration index and a PRS bandwidth. the transmitted non-reference cell information includes: positioning reference signal, PRS, information associated with the non-reference cell indicating in which subframes PRSs of said LTE system are to be transmitted by the non-reference cell; and information indicating whether or not a PRS transmission by the non-reference cell is synchronized with a PRS transmission by the reference cell, and the transmitted reference cell information includes PRS information associated with the reference cell indicating in which subframes PRSs of said LTE system are to be transmitted by the reference cell, the PRS information of the reference cell information including a PRS configuration index and a PRS bandwidth.
A fuel injection device for supplying a fuel to a compressed air from a compressor for combustion, the fuel injection device comprising: a pilot fuel injector located at a radially center portion of the fuel injection device and configured to inject the fuel into a combustion chamber; a main fuel injector located at an outer periphery of the pilot combustion injector and configured to inject a premixed air-fuel mixture of the fuel and air into the combustion chamber; and an air injection unit located between an outlet end portion of the pilot fuel injector and the main fuel injector and configured to inject the compressed air into the combustion chamber, characterized in that the air injection unit includes: an annular partition wall plate that is inclined radially inwardly in an upstream direction and provided at a downstream end portion of an inner main shroud, wherein the downstream end portion of the inner main shroud is so shaped as to have a diameter increasing towards the downstream side and forms a part of the air injection unit, wherein the partition wall plate is for separating the air injection unit from the combustion chamber; a flame stabilization plate secured to an inner diameter side end portion of the partition wall plate and provided at a downstream side of the partition wall plate; a first opening provided between the flame stabilization plate and the outlet end portion of the pilot fuel injector and opened at a downstream side; and a second opening which is provided in the partition wall plate and through which the compressed air is supplied to an inflow space defined between the flame stabilization plate and the partition wall plate, and the flame stabilization plate including an inclined portion inclined in a radially outwardly and in a downstream direction with respect to an axis. a pilot fuel injector located at a radially center portion of the fuel injection device and configured to inject the fuel into a combustion chamber; a main fuel injector located at an outer periphery of the pilot combustion injector and configured to inject a premixed air-fuel mixture of the fuel and air into the combustion chamber; and an air injection unit located between an outlet end portion of the pilot fuel injector and the main fuel injector and configured to inject the compressed air into the combustion chamber,
A method of transducing and then culturing T cells comprising: adding a media, T cells, and genetic modification agents comprised of lentivirus into a device that includes walls that are rigid and a bottom comprised of gas permeable, liquid impermeable material, said T cells are at a concentration of greater than 2 million and up to 30 million cells per millilitre of media, with said gas permeable, liquid impermeable material being in contact with ambient gas, and allowing a period of time whereby said genetic modification agents act to transduce at least a portion of said cells, and adding a volume of media into the device and allowing a period of time for the T cells to be cultured when gas permeable material is in a horizontal position and ambient gas suitable for cell culture is in contact with the gas permeable, liquid impermeable material. adding a media, T cells, and genetic modification agents comprised of lentivirus into a device that includes walls that are rigid and a bottom comprised of gas permeable, liquid impermeable material, said T cells are at a concentration of greater than 2 million and up to 30 million cells per millilitre of media, with said gas permeable, liquid impermeable material being in contact with ambient gas, and allowing a period of time whereby said genetic modification agents act to transduce at least a portion of said cells, and adding a volume of media into the device and allowing a period of time for the T cells to be cultured when gas permeable material is in a horizontal position and ambient gas suitable for cell culture is in contact with the gas permeable, liquid impermeable material.
System for detecting short circuits and overloads in at least one of several electrothermal valves having a low-voltage DC power supply and means for commanding the valves, the system comprising: - means for reading the overall constant current flowing through the valves; - means (5, 6) for detecting a maximum admissible overall current; - means for limiting the overall transient current; - means for cutting off/restoring the power supply; and - a central processing unit able to command the means for cutting off the power supply in response to the detection of the maximum admissible current, the means for commanding the valves being managed by the central processing unit, and characterized in the means for commanding the electrothermal valves consisting of a MOS transistor (T1, T2...) whose gate is commanded by the central unit and whose load is formed by at least one valve, and the means for cutting off/restoring the power supply consisting of at least one MOS transistor biased so as to be in the on state during normal operation, whose gate is commanded by a signal at the output of the means (5, 6) for detecting the maximum admissible current, and who is connected to the outputs of the transistors (T1, T2...) for commanding the valves. - means for reading the overall constant current flowing through the valves; - means (5, 6) for detecting a maximum admissible overall current; - means for limiting the overall transient current; - means for cutting off/restoring the power supply; and - a central processing unit able to command the means for cutting off the power supply in response to the detection of the maximum admissible current,
A process for forming cyclohexylbenzyl and/or biphenyl compounds, the process comprising: (a) contacting a first cyclohexylbenzyl compound with a substituted or unsubstituted benzene in the presence of a transalkylation catalyst, thereby obtaining a transalkylated cyclohexylbenzyl compound, wherein the transalkylation catalyst comprises a solid acid catalyst; wherein the first cyclohexylbenzyl compound has the structural formula where each R 1 - R 10 is independently H or a C 1 - C 10 alkyl group; wherein the substituted or unsubstituted benzene has the structural formula where each R 6* - R 10* is independently H or a C 1 - C 10 alkyl group, and further provided that one or more of the following is true: R 6* is different from R 6, R 7* is different from R 7, R 8* is different from R 8, R 9* is different from R 9, and R 10* is different from R 10; and wherein the transalkylated cyclohexylbenzyl compound has the structural formula or a positional isomer thereof in which the cyclohexyl ring has each R 1 - R 5 covalently bonded thereto, and the phenyl ring has each R 6* - R 10* covalently bonded thereto. (a) contacting a first cyclohexylbenzyl compound with a substituted or unsubstituted benzene in the presence of a transalkylation catalyst, thereby obtaining a transalkylated cyclohexylbenzyl compound, wherein the transalkylation catalyst comprises a solid acid catalyst; wherein the first cyclohexylbenzyl compound has the structural formula where each R 1 - R 10 is independently H or a C 1 - C 10 alkyl group; wherein the substituted or unsubstituted benzene has the structural formula where each R 6* - R 10* is independently H or a C 1 - C 10 alkyl group, and further provided that one or more of the following is true: R 6* is different from R 6, R 7* is different from R 7, R 8* is different from R 8, R 9* is different from R 9, and R 10* is different from R 10; and wherein the transalkylated cyclohexylbenzyl compound has the structural formula or a positional isomer thereof in which the cyclohexyl ring has each R 1 - R 5 covalently bonded thereto, and the phenyl ring has each R 6* - R 10* covalently bonded thereto.