mhurhangee/ep-ind-claims huggingface dataset:
Biosensor device adapted to detect fluorescing bounded analytes, said device comprises a light emitting means adapted to irradiate the fluorescing bounded analytes at an emitted wavelength, and a detector adapted to detect a fluorescence of said bound analytes at the emitted wavelength, wherein said bound analyte is bound to a fluorescently labelled ligand so as to form a fluorescent complex. Characterized in that it comprises: - a planar interference filter (201, 401) arranged at an angle orthogonal to the optical pathway or at an angle with regards to the light pathway larger than 10° and different from 90°, adapted to specifically absorb or attenuate the emitted light, - a first tilted interference filter (202, 402) and a second tilted interference filter (203, 403), said first and second titled interference filters being oriented so that the plane of the corresponding surfaces is titled with regards to the optical pathway at an angle larger than 10° and different from 90°, said first and second titled interference filters having both an orientation different from the one of said planar interference filter and adapted to absorb the emitted light at the wavelength of said emitted light, and wherein the tilted axis of said first (202, 402) and second (203, 403) tilted interference filters are rotated from each by more than 15 degrees and less than 180 degrees, and allowing to filter out a majority of the wavelengths of the emitted light so as to enrich it with wavelengths corresponding to the bound analytes. - a planar interference filter (201, 401) arranged at an angle orthogonal to the optical pathway or at an angle with regards to the light pathway larger than 10° and different from 90°, adapted to specifically absorb or attenuate the emitted light, - a first tilted interference filter (202, 402) and a second tilted interference filter (203, 403), said first and second titled interference filters being oriented so that the plane of the corresponding surfaces is titled with regards to the optical pathway at an angle larger than 10° and different from 90°, said first and second titled interference filters having both an orientation different from the one of said planar interference filter and adapted to absorb the emitted light at the wavelength of said emitted light, and wherein the tilted axis of said first (202, 402) and second (203, 403) tilted interference filters are rotated from each by more than 15 degrees and less than 180 degrees, and allowing to filter out a majority of the wavelengths of the emitted light so as to enrich it with wavelengths corresponding to the bound analytes.
Process for manufacturing autoclaved fiber cement products including ground waste obtained from air-cured fiber cement material, comprising the steps of: a) determining the total reactive CaO/total reactive SiO 2 molar ratio (known as Ra) of a fiber cement composition comprising siliceous material and hydraulic binder comprising CaO, b) measuring the content of total reactive CaO and the content of total reactive SiO 2 in said ground waste, c) replacing a total weight amount of siliceous material and hydraulic binder in the composition of step a) by an equal weight amount of said ground waste, d) adjusting the composition obtained in step c) by reducing the amount of siliceous material and/or the amount of hydraulic binder in order to recover the original molar ratio Ra of the composition of step a), e) processing and autoclaving the composition of step d). a) determining the total reactive CaO/total reactive SiO 2 molar ratio (known as Ra) of a fiber cement composition comprising siliceous material and hydraulic binder comprising CaO, b) measuring the content of total reactive CaO and the content of total reactive SiO 2 in said ground waste, c) replacing a total weight amount of siliceous material and hydraulic binder in the composition of step a) by an equal weight amount of said ground waste, d) adjusting the composition obtained in step c) by reducing the amount of siliceous material and/or the amount of hydraulic binder in order to recover the original molar ratio Ra of the composition of step a), e) processing and autoclaving the composition of step d).
Method for operating a gas burner, wherein during burner-on phases a defined gas/air mixture having a defined mixing ratio of gas and air is provided to a burner chamber of the gas burner for combusting the defined gas/air mixture within the burner chamber, wherein the defined gas/air mixture is provided by a mixing device mixing an air flow provided by an air duct with a gas flow provided by a gas duct, wherein the air flow provided by the air duct depends on a fan speed of a fan assigned to the air duct or the burner chamber, wherein the gas flow provided the gas duct depends on a position of at least one gas valve (18, 19) assigned to the gas duct, wherein during burner-on phases the defined mixing ratio of gas and air of the defined gas/air mixture can be calibrated to different gas qualities on basis of a signal provided by an ionization sensor positioned downstream of the mixing device within the burner chamber, wherein for the calibration of the gas/air mixture the gas/air mixture is made richer by increasing the gas amount of the gas/air mixture relative to the air amount of the same until a flattening or a maximum of the signal provided by the ionization sensor is detected, wherein for calibration the gas/air mixture is made richer by changing a throttle position of a throttle assigned to the gas duct or to the mixing device in order to increase the gas flow while keeping the fan speed and the air flow constant thereby increasing the gas amount of the gas/air mixture relative to the air amount of the same, and wherein the further calibration of the gas/air mixture depends on if either a flattening or a maximum of the signal provided by the ionization sensor is detected, characterized in that the calibration of the gas/air mixture depends on a reference throttle position for which a flattening or a maximum of the signal provided by the ionization sensor is detected; the calibration further depends on an offset value added to the reference throttle position for which the flattening or the maximum is detected, whereby the offset value depends on if either a flattening or a maximum of the signal provided by the ionization sensor is detected; the offset value is determined on basis on a characteristic curve or on basis of a formula, whereby a first characteristic curve or a first formula is used when a flattening of the signal provided by the ionization sensor is detected, and whereby a second characteristic curve or a second formula being different from the first characteristic curve or the first formula is used when a maximum of the signal provided by the ionization sensor is detected.
A wireless communication method for relay transmission, the method comprising: receiving, in a first time slot, a first signal from a base station,BS, and a second signal from a first wireless transmit/receive unit,WTRU; receiving, in a second time slot, a third signal from the BS and a fourth signal from a second WTRU; decoding the received signals; generating a plurality of intermediate bit sequences,IBSs, wherein the plurality of IBSs are generated based on a combination of decoded bits from the second and fourth received signals with the decoded bits from the first and third received signals respectively, and wherein the plurality of IBSs are generated by substituting a plurality of decoded bits in the received signals with a plurality of predetermined bits on the condition that any received signal is not decoded correctly; arranging the bits of each of the plurality of IBSs into a plurality of symbols, wherein each of the plurality of symbols comprises one bit from each of the plurality of IBSs; and broadcasting the plurality of symbols in a third time slot. receiving, in a first time slot, a first signal from a base station,BS, and a second signal from a first wireless transmit/receive unit,WTRU; receiving, in a second time slot, a third signal from the BS and a fourth signal from a second WTRU; decoding the received signals; generating a plurality of intermediate bit sequences,IBSs, wherein the plurality of IBSs are generated based on a combination of decoded bits from the second and fourth received signals with the decoded bits from the first and third received signals respectively, and wherein the plurality of IBSs are generated by substituting a plurality of decoded bits in the received signals with a plurality of predetermined bits on the condition that any received signal is not decoded correctly; arranging the bits of each of the plurality of IBSs into a plurality of symbols, wherein each of the plurality of symbols comprises one bit from each of the plurality of IBSs; and broadcasting the plurality of symbols in a third time slot.
A compressor or vacuum pump comprising: - a casing having a cooling gas inlet and a cooling gas outlet for allowing a cooling gas to flow therethtrough; - a fan mounted at the cooling gas inlet, comprising a fan housing and configured to blow said cooling gas into said casing; - a compression or vacuum chamber comprising a first housing, a process gas inlet and a process gas outlet for allowing a process gas to flow therethrough and at least one rotating element; - a driving module comprising a second housing and at least one bearing for supporting said at least one rotating element; - a silencer comprising a cover and configured to attenuate noise generated by the compressor or vacuum pump; characterized in that said silencer comprises a recess structure on its cover, configured to deflect the cooling gas flow from the fan towards the driving module. - a casing having a cooling gas inlet and a cooling gas outlet for allowing a cooling gas to flow therethtrough; - a fan mounted at the cooling gas inlet, comprising a fan housing and configured to blow said cooling gas into said casing; - a compression or vacuum chamber comprising a first housing, a process gas inlet and a process gas outlet for allowing a process gas to flow therethrough and at least one rotating element; - a driving module comprising a second housing and at least one bearing for supporting said at least one rotating element; - a silencer comprising a cover and configured to attenuate noise generated by the compressor or vacuum pump;
A detection values determination system comprising: - an array of detection pixels, wherein each detection pixel comprises a sub detection pulse providing unit for providing a detection pulse, the detection pulses being provided to a detection values determination unit, wherein the detection pixels are clustered by using an anti-charge-sharing grid which is mounted on the array of detection pixels for suppressing charge sharing between different clusters of detection pixels of the array, wherein the detection pulses are indicative of the energy of photons incident on the detection pixels, - the detection values determination unit for determining charge-sharing-corrected detection values based on the provided detection pulses, wherein each charge-sharing-corrected detection value corresponds to a respective detection pixel and has been corrected for charge-sharing between neighboring detection pixels, wherein the detection values determination unit is adapted to, for determining a charge-sharing-corrected detection value for a detection pixel of a cluster, only consider detection pixels of the same cluster. - an array of detection pixels, wherein each detection pixel comprises a sub detection pulse providing unit for providing a detection pulse, the detection pulses being provided to a detection values determination unit, wherein the detection pixels are clustered by using an anti-charge-sharing grid which is mounted on the array of detection pixels for suppressing charge sharing between different clusters of detection pixels of the array, wherein the detection pulses are indicative of the energy of photons incident on the detection pixels, - the detection values determination unit for determining charge-sharing-corrected detection values based on the provided detection pulses, wherein each charge-sharing-corrected detection value corresponds to a respective detection pixel and has been corrected for charge-sharing between neighboring detection pixels, wherein the detection values determination unit is adapted to, for determining a charge-sharing-corrected detection value for a detection pixel of a cluster, only consider detection pixels of the same cluster.
Remote monitoring system for an area intended to accommodate at least one passenger of an aeroplane, comprising: - at least one control member, configured to generate at least one signal relating to the safety of the passenger present in the area, and - at least one interface means intended to be situated at a distance from the area and making it possible for a member of cabin crew to have access to information relating to the area and/or to the passenger present in the area on the basis of the signal, said remote monitoring system being characterized in that the control member comprises at least one sensor chosen among: - a contact sensor, and/or - a presence sensor, and/or - a force sensor, and/or - a microwave sensor, and/or - a gas flow sensor, and/or - a body sensor, notably medical, said at least one sensor being capable of generating the signal relating to the safety of the passenger present in the area, in particular, to verify the status of a belt of the passenger, to verify the use of oxygen masks by the passenger, to detect the occurrence of a threat or of a dangerous situation for the passenger and/or to monitor the health of the passenger. - at least one control member, configured to generate at least one signal relating to the safety of the passenger present in the area, and - at least one interface means intended to be situated at a distance from the area and making it possible for a member of cabin crew to have access to information relating to the area and/or to the passenger present in the area on the basis of the signal, - a contact sensor, and/or - a presence sensor, and/or - a force sensor, and/or - a microwave sensor, and/or - a gas flow sensor, and/or - a body sensor, notably medical,
A method performed by a location server for providing uncompensated barometric pressure information to a Public Safety Answering Point, PSAP, comprising: obtaining a dispatchable civic location for a user equipment, wherein the dispatchable civic location comprises a Presence Information Data Format Location Object, PIDF-LO, wherein the PIDF-LO is obtained from a National Emergency Address Database, NEAD; obtaining an uncompensated barometric pressure, UBP, from the user equipment; combining the UBP with the dispatchable civic location so that the UBP is contained in the PIDF-LO; and providing the PIDF-LO comprising the UBP to a gateway, enabling the gateway to extract and provide the UBP to the PSAP. obtaining a dispatchable civic location for a user equipment, wherein the dispatchable civic location comprises a Presence Information Data Format Location Object, PIDF-LO, wherein the PIDF-LO is obtained from a National Emergency Address Database, NEAD; obtaining an uncompensated barometric pressure, UBP, from the user equipment; combining the UBP with the dispatchable civic location so that the UBP is contained in the PIDF-LO; and providing the PIDF-LO comprising the UBP to a gateway, enabling the gateway to extract and provide the UBP to the PSAP.
A halftone phase shift mask blank comprising a transparent substrate and a halftone phase shift film thereon having a phase shift of 150 to 200° and a transmittance of 3 to 12% with respect to light of wavelength up to 200 nm, wherein said halftone phase shift film is a single layer composed of a silicon base material consisting of silicon and nitrogen or a silicon base material consisting of silicon, nitrogen and oxygen, with an oxygen content being up to 6 at%, the single layer having a refractive index n of at least 2.4 and an extinction coefficient k of 0.4 to 0.7, or a multilayer film including at least one layer composed of a silicon base material consisting of silicon and nitrogen and at least one layer composed of a silicon base material consisting of silicon, nitrogen and oxygen, with an oxygen content being up to 6 at%, at least one layer having a refractive index n of at least 2.4 and an extinction coefficient k of 0.4 to 0.7, and said halftone phase shift film has a thickness of up to 67 nm.
A compound of formula I-1a wherein A is N or CH; R 1 is C 1 -C 4 alkyl; R 2a is C 1 -C 4 haloalkyl; R 3 is hydrogen, halogen, C 2 -C 6 alkenyl, C 1 -C 4 haloalkyl or C 3 -C 6 cycloalkyl; or R 3 is phenyl which can be mono- or di-substituted by substituents selected from the group consisting of cyano, halogen, C 1 -C 4 alkyl, C 1 -C 4 alkoxy, C 1 -C 4 haloalkoxy and C 1 -C 4 haloalkyl; or R 3 is pyrazolyl, which can be mono-substituted by C 1 -C 4 haloalkyl; or R 3 is pyridinyl which can be mono- or di-substituted by substituents selected from the group consisting of C 1 -C 4 alkyl, C 1 -C 4 haloalkyl and halogen; or R 3 is pyrimidinyl which can be mono-substituted by C 1 -C 4 alkoxy; R 4 is C 1 -C 6 alkyl or C 1 -C 6 haloalkyl, preferably 1,1,1-trifluoroethyl; or R 4 is C 1 -C 4 alkyl mono-substituted by cyano, C 1 -C 4 alkylsulfanyl, phenyl, C 1 -C 4 alkoxy, C 1 -C 4 alkoxy C 1 -C 4 alkoxy or C 3 -C 6 cycloalkyl; or R4 is C 2 -C 6 alkenyl or C 2 -C 6 alkynyl; or R 4 is C 2 -C 6 alkenyl substituted by phenyl; R 4 is benzyl which can be mono-substituted by C 1 -C 4 alkoxy; R 8 is methyl; and X is S or SO 2; and agrochemically acceptable salts, stereoisomers, enantiomers and N-oxides of the compounds of formula I-1a. A is N or CH; R 1 is C 1 -C 4 alkyl; R 2a is C 1 -C 4 haloalkyl; R 3 is hydrogen, halogen, C 2 -C 6 alkenyl, C 1 -C 4 haloalkyl or C 3 -C 6 cycloalkyl; or R 3 is phenyl which can be mono- or di-substituted by substituents selected from the group consisting of cyano, halogen, C 1 -C 4 alkyl, C 1 -C 4 alkoxy, C 1 -C 4 haloalkoxy and C 1 -C 4 haloalkyl; or R 3 is pyrazolyl, which can be mono-substituted by C 1 -C 4 haloalkyl; or R 3 is pyridinyl which can be mono- or di-substituted by substituents selected from the group consisting of C 1 -C 4 alkyl, C 1 -C 4 haloalkyl and halogen; or R 3 is pyrimidinyl which can be mono-substituted by C 1 -C 4 alkoxy; R 4 is C 1 -C 6 alkyl or C 1 -C 6 haloalkyl, preferably 1,1,1-trifluoroethyl; or R 4 is C 1 -C 4 alkyl mono-substituted by cyano, C 1 -C 4 alkylsulfanyl, phenyl, C 1 -C 4 alkoxy, C 1 -C 4 alkoxy C 1 -C 4 alkoxy or C 3 -C 6 cycloalkyl; or R4 is C 2 -C 6 alkenyl or C 2 -C 6 alkynyl; or R 4 is C 2 -C 6 alkenyl substituted by phenyl; R 4 is benzyl which can be mono-substituted by C 1 -C 4 alkoxy; R 8 is methyl; and X is S or SO 2; and agrochemically acceptable salts, stereoisomers, enantiomers and N-oxides of the compounds of formula I-1a.
A method for providing a lithographic printing plate comprising: A) imagewise exposing a positive-working lithographic printing plate precursor having a substrate and an imageable layer comprising an infrared radiation absorbing compound, to infrared radiation to provide exposed and non-exposed regions in the imageable layer, and B) processing the exposed lithographic printing plate precursor with a developer composition to remove the exposed regions in the imageable layer, wherein the developer composition is a silicate-free alkaline aqueous developer composition having a pH of at least 12 and comprises: a metal cation M 2+ selected from barium, calcium, strontium, and zinc cations, and a chelating agent that has a complex formation constant (log K) for the metal cation of at least 3.5 and less than or equal to 4.5, and a log K for aluminum ion that is 7 or less. A) imagewise exposing a positive-working lithographic printing plate precursor having a substrate and an imageable layer comprising an infrared radiation absorbing compound, to infrared radiation to provide exposed and non-exposed regions in the imageable layer, and B) processing the exposed lithographic printing plate precursor with a developer composition to remove the exposed regions in the imageable layer, wherein the developer composition is a silicate-free alkaline aqueous developer composition having a pH of at least 12 and comprises: a metal cation M 2+ selected from barium, calcium, strontium, and zinc cations, and a chelating agent that has a complex formation constant (log K) for the metal cation of at least 3.5 and less than or equal to 4.5, and a log K for aluminum ion that is 7 or less. a metal cation M 2+ selected from barium, calcium, strontium, and zinc cations, and a chelating agent that has a complex formation constant (log K) for the metal cation of at least 3.5 and less than or equal to 4.5, and a log K for aluminum ion that is 7 or less.
A physiologic signal processing method comprising: emitting light from a light emitting element on a sensor assembly; detecting light with a light detecting element on the sensor assembly; storing information on a memory on the sensor assembly, whereby said information includes coefficients for use to determine physiologic quantities based upon light signals received from the light detecting element, said coefficients being derivable as a combination of different sensor-specific characteristics, application-specific characteristics and patient-specific characteristics, said information also including an equation for use to compute a physiologic parameter; and the method further comprising: determining a preprocessed signal at a remote monitor said preprocessed signal being derived from an electrical signal from the light detecting element; and with a processor on said sensor assembly determining said physiologic quantities based upon the coefficients and the equation information, characterized in the method further comprises communicating said preprocessed signal from said monitor to said sensor assembly and in that the step of determining the physiologic quantities is further based upon the preprocessed signal. emitting light from a light emitting element on a sensor assembly; detecting light with a light detecting element on the sensor assembly; storing information on a memory on the sensor assembly, whereby said information includes coefficients for use to determine physiologic quantities based upon light signals received from the light detecting element, said coefficients being derivable as a combination of different sensor-specific characteristics, application-specific characteristics and patient-specific characteristics, said information also including an equation for use to compute a physiologic parameter; and the method further comprising: determining a preprocessed signal at a remote monitor said preprocessed signal being derived from an electrical signal from the light detecting element; and with a processor on said sensor assembly determining said physiologic quantities based upon the coefficients and the equation information, characterized in the method further comprises communicating said preprocessed signal from said monitor to said sensor assembly and in that the step of determining the physiologic quantities is further based upon the preprocessed signal.