mhurhangee/ep-ind-claims huggingface dataset:
Use of at least one compound of the following formula: wherein: • R 1, R 2, R 3, and R 4 are the same or different and represent a hydrogen atom, a halogen atom, selected in particular from F, Cl, Br or I, a hydroxy group, or an alkoxy group with 1 or 2 carbon atoms; • R 5 and R 6 are the same or different and represent a hydrogen atom, an alkyl or cycloalkyl group with 1 to 6 carbon atoms, or an aryl group with 6 carbon atoms of which the aromatic ring is optionally substituted by one or more halogen atoms or one or more hydroxy groups, alkoxy groups with 1 or 2 carbon atoms, trifluoromethyl groups or nitro groups; • R 9 and R 10 are the same or different and represent a hydrogen atom, a hydroxy group, or an alkyl or hydroxyalkyl group with 1 to 3 carbon atoms; or of at least one pharmaceutically acceptable salt thereof, for the manufacture of a medicament intended for the prevention or treatment of memory disorders, in particular of amnestic disorders. • R 1, R 2, R 3, and R 4 are the same or different and represent a hydrogen atom, a halogen atom, selected in particular from F, Cl, Br or I, a hydroxy group, or an alkoxy group with 1 or 2 carbon atoms; • R 5 and R 6 are the same or different and represent a hydrogen atom, an alkyl or cycloalkyl group with 1 to 6 carbon atoms, or an aryl group with 6 carbon atoms of which the aromatic ring is optionally substituted by one or more halogen atoms or one or more hydroxy groups, alkoxy groups with 1 or 2 carbon atoms, trifluoromethyl groups or nitro groups; • R 9 and R 10 are the same or different and represent a hydrogen atom, a hydroxy group, or an alkyl or hydroxyalkyl group with 1 to 3 carbon atoms;
A rotary connector device, wherein: a rotator including an inner peripheral tube portion and a stator including an outer peripheral tube portion are formed; the stator and the rotator are integrally formed so as to be relatively rotatable with respect to each other; an accommodating space which accommodates a cable for electrically connecting the rotator and the stator in a wound state is formed inside the stator and the rotator; characterized by a guide protruding piece which protrudes toward the accommodating space above the wound cable and which guides at least the cable wound near an outer periphery of the accommodating space from above is formed on an upper portion of the outer peripheral tube portion; and a lower surface of the guide protruding piece is formed into a shape which is deformed upward gradually along a protruding direction of the guide protruding piece. a rotator including an inner peripheral tube portion and a stator including an outer peripheral tube portion are formed; the stator and the rotator are integrally formed so as to be relatively rotatable with respect to each other; an accommodating space which accommodates a cable for electrically connecting the rotator and the stator in a wound state is formed inside the stator and the rotator; characterized by a guide protruding piece which protrudes toward the accommodating space above the wound cable and which guides at least the cable wound near an outer periphery of the accommodating space from above is formed on an upper portion of the outer peripheral tube portion; and a lower surface of the guide protruding piece is formed into a shape which is deformed upward gradually along a protruding direction of the guide protruding piece.
A reaction product comprising a quaternized nitrogen compound, wherein the reaction product is obtainable by quaternizing a quaternizable nitrogen compound comprising at least one quaternizable tertiary amino group with a quaternizing agent which converts the at least one quaternizable tertiary amino group to a quaternary ammonium group, wherein the quaternizing agent is a hydrocarbyl epoxide in combination with a free hydrocarbyl-substituted polycarboxylic acid, wherein the hydrocarbyl radical of the polycarboxylic acid has a number-average molecular weight (M n) of 85 to 20 000; and wherein the quaternizable nitrogen compound is selected from: at least one alkylamine of the following general formula 3 R a R b R c N in which at least one of the R a, R b and R c radicals is a straight-chain or branched, saturated or unsaturated C 8 -C 40 -hydrocarbyl radical, especially straight-chain or branched C 8 -C 40 -alkyl, and the other radicals are identical or different, straight-chain or branched, saturated or unsaturated C 1 -C 6 -hydrocarbyl radicals, especially C 1 -C 6 -alkyl; or in which all the R a, R b and R c radicals are identical or different, straight-chain or branched, saturated or unsaturated C 8 -C 40 -hydrocarbyl radicals, especially straight-chain or branched C 8 -C 40 -alkyl radicals, or the R a, R b and R c radicals are identical or different short-chain alkyl radicals, especially straight-chain or branched alkyl groups having 1 to 7, especially 1 to 4, carbon atoms. at least one of the R a, R b and R c radicals is a straight-chain or branched, saturated or unsaturated C 8 -C 40 -hydrocarbyl radical, especially straight-chain or branched C 8 -C 40 -alkyl, and the other radicals are identical or different, straight-chain or branched, saturated or unsaturated C 1 -C 6 -hydrocarbyl radicals, especially C 1 -C 6 -alkyl; or in which all the R a, R b and R c radicals are identical or different, straight-chain or branched, saturated or unsaturated C 8 -C 40 -hydrocarbyl radicals, especially straight-chain or branched C 8 -C 40 -alkyl radicals, or the R a, R b and R c radicals are identical or different short-chain alkyl radicals, especially straight-chain or branched alkyl groups having 1 to 7, especially 1 to 4, carbon atoms.
A liquid sample measurement method of attaching a biosensor (30; 700) to a measurement device (100a; 100b) and measuring the concentration of a specific component in a liquid sample that is applied to the biosensor, including the steps of: measuring the time from when the biosensor is attached to the measurement device to when the liquid sample is applied to the sensor, and performing correction for the measurement result of the concentration of the specific component in the liquid sample that is applied to the biosensor, on the basis of the measured time, wherein the amount of correction for the measurement result of the concentration of the specific component in the liquid sample that is applied to the biosensor is determined according to the ambient temperature at the measurement. measuring the time from when the biosensor is attached to the measurement device to when the liquid sample is applied to the sensor, and performing correction for the measurement result of the concentration of the specific component in the liquid sample that is applied to the biosensor, on the basis of the measured time, wherein the amount of correction for the measurement result of the concentration of the specific component in the liquid sample that is applied to the biosensor is determined according to the ambient temperature at the measurement.
A securing device for securing a glass panel to a profile, including an enveloping structural profile having an open longitudinal cavity sized for receiving a portion adjacent to an edge of a glass panel, and a securing mechanism installed in said open longitudinal cavity and operable by at least one tightening screw for catching said portion adjacent to the edge of said glass panel in said longitudinal cavity, wherein said securing mechanism comprises clamping elements (22a, 22b) formed in respective symmetrical rockers (20a, 20b) arranged inside the longitudinal cavity and articulated to said structural profile such that they can symmetrically swing about respective axes of rotation (Ea, Eb) located adjacent to two respective side walls (12a, 12b) of the structural profile through actuation of said tightening screw, characterized in that said rockers (20a, 20b) comprise respective projecting hinge elements (21 a, 21b) which are inserted into corresponding guide housings (15a, 15b) formed in the structural profile, said hinge elements (21a, 21b) and said guide housings (15a, 15b) defining hinge devices aligned with said axes of rotation (Ea, Eb), respectively.
An OFDM receiver circuit, comprising: a Fast Fourier Transform circuit configured to calculate an FFT of a plurality of sample values received by the receiver circuit; a channel estimator circuit configured to receive the result of the FFT and generate an estimate of channel frequency response; and a smoothing circuit configured to: estimate channel frequency response on subchannels corresponding to null-subcarriers by selectively applying a least-square estimation matrix operation corresponding only to subchannels of null-subcarriers on the estimate of channel frequency response obtained by the channel estimator circuit; combine the generated least-square estimate on the subchannels corresponding to the null-subcarriers with the estimate of channel frequency response obtained by the channel estimator circuit; perform an inverse FFT on the combined response; truncate portions of the impulse response in results of the inverse FFT; and perform an FFT on the results of the truncation. a Fast Fourier Transform circuit configured to calculate an FFT of a plurality of sample values received by the receiver circuit; a channel estimator circuit configured to receive the result of the FFT and generate an estimate of channel frequency response; and a smoothing circuit configured to: estimate channel frequency response on subchannels corresponding to null-subcarriers by selectively applying a least-square estimation matrix operation corresponding only to subchannels of null-subcarriers on the estimate of channel frequency response obtained by the channel estimator circuit; combine the generated least-square estimate on the subchannels corresponding to the null-subcarriers with the estimate of channel frequency response obtained by the channel estimator circuit; perform an inverse FFT on the combined response; truncate portions of the impulse response in results of the inverse FFT; and perform an FFT on the results of the truncation. combine the generated least-square estimate on the subchannels corresponding to the null-subcarriers with the estimate of channel frequency response obtained by the channel estimator circuit; perform an inverse FFT on the combined response; truncate portions of the impulse response in results of the inverse FFT; and perform an FFT on the results of the truncation.
A lens assembly, comprising: a lens having an inner surface and an outer surface; a lens barrel supporting the lens and having outer and inner lens barrel ends (110, 212) separated by a longitudinal axis, the lens arranged along the longitudinal axis to span the outer lens barrel end such that the inner surface of the lens is within the lens barrel and the outer surface of the lens is outside the lens barrel; a heater element longitudinally adjacent to the inner surface of the lens and located within the lens barrel, wherein the heater element has a heater element electrical lead extending radially and longitudinally therefrom to provide power to the heater element; and a carrier ring extending circumferentially around at least a portion of an outside lens barrel surface adjacent to the inner lens barrel end, the carrier ring including at least one lead station radially aligned with the heater element electrical lead, the heater element electrical lead extending into the lead station of the carrier ring so as to be engaged by and electrically connected to an electrical component subsequently inserted into the lead station. a lens having an inner surface and an outer surface; a lens barrel supporting the lens and having outer and inner lens barrel ends (110, 212) separated by a longitudinal axis, the lens arranged along the longitudinal axis to span the outer lens barrel end such that the inner surface of the lens is within the lens barrel and the outer surface of the lens is outside the lens barrel; a heater element longitudinally adjacent to the inner surface of the lens and located within the lens barrel, wherein the heater element has a heater element electrical lead extending radially and longitudinally therefrom to provide power to the heater element; and a carrier ring extending circumferentially around at least a portion of an outside lens barrel surface adjacent to the inner lens barrel end, the carrier ring including at least one lead station radially aligned with the heater element electrical lead, the heater element electrical lead extending into the lead station of the carrier ring so as to be engaged by and electrically connected to an electrical component subsequently inserted into the lead station.
A pressure sensor comprising: a sensitive element comprising a mounting substrate, said mounting substrate comprising a top surface and a bottom surface, the sensitive element further comprising a deformable diaphragm connected to the top surface of the mounting substrate; a housing in which the sensitive element is placed, with the housing comprising a base; an intermediate structure placed between the base of the housing and the mounting substrate, said intermediate structure comprising a base (41, 41d), with the base (41, 41d) comprising a top surface and a bottom surface connected to the base of the housing; an adhesive layer extending over the top surface of the base (41, 41d), the sensitive element further comprises an insulating layer placed above the deformable diaphragm on which are formed elements for measuring pressure (12a, 12b, 12c), characterized in that said intermediate structure further comprises a plurality of wedges (42, 43, 44, 45) arranged to keep the mounting substrate at a predetermined distance (d) from the top surface of the base (41, 41d), the wedges (42, 43, 44, 45) being protuberances protruding from the intermediate structure, the wedges (42, 43, 44, 45) defining a free space between the mounting substrate and the intermediate structure, in that the wedges (42, 43, 44, 45) are placed around the adhesive layer, said adhesive layer extending in said free space and being of a thickness (e) controlled by the predetermined distance (d) at which the mounting substrate is kept from the top surface of the base (41, 41d). a sensitive element comprising a mounting substrate, said mounting substrate comprising a top surface and a bottom surface, the sensitive element further comprising a deformable diaphragm connected to the top surface of the mounting substrate; a housing in which the sensitive element is placed, with the housing comprising a base; an intermediate structure placed between the base of the housing and the mounting substrate, said intermediate structure comprising a base (41, 41d), with the base (41, 41d) comprising a top surface and a bottom surface connected to the base of the housing; an adhesive layer extending over the top surface of the base (41, 41d), the sensitive element further comprises an insulating layer placed above the deformable diaphragm on which are formed elements for measuring pressure (12a, 12b, 12c), characterized in that said intermediate structure further comprises a plurality of wedges (42, 43, 44, 45) arranged to keep the mounting substrate at a predetermined distance (d) from the top surface of the base (41, 41d), the wedges (42, 43, 44, 45) being protuberances protruding from the intermediate structure, the wedges (42, 43, 44, 45) defining a free space between the mounting substrate and the intermediate structure, in that the wedges (42, 43, 44, 45) are placed around the adhesive layer, said adhesive layer extending in said free space and being of a thickness (e) controlled by the predetermined distance (d) at which the mounting substrate is kept from the top surface of the base (41, 41d).
A composite polymer electrolyte membrane, comprising: a composite layer of an aromatic hydrocarbon-based polymer electrolyte and a fluorine-containing polymer porous membrane, wherein a ratio (O/F ratio) of an atomic composition percentage of oxygen O (at%) to an atomic composition percentage of fluorine F (at%) on an outermost surface of the fluorine-containing polymer porous membrane as measured by X-ray photoelectron spectroscopy is 0.20 or more to 2.0 or less, and further the aromatic hydrocarbon-based polymer electrolyte in the composite layer forms a phase separation structure, wherein the aromatic hydrocarbon-based polymer electrolyte is a block or graft copolymer in which a segment containing an ionic group and a segment not containing an ionic group are bound to each other, and wherein the phase separation structure is observed by transmission electron microscope tomography. a composite layer of an aromatic hydrocarbon-based polymer electrolyte and a fluorine-containing polymer porous membrane, wherein a ratio (O/F ratio) of an atomic composition percentage of oxygen O (at%) to an atomic composition percentage of fluorine F (at%) on an outermost surface of the fluorine-containing polymer porous membrane as measured by X-ray photoelectron spectroscopy is 0.20 or more to 2.0 or less, and further the aromatic hydrocarbon-based polymer electrolyte in the composite layer forms a phase separation structure, wherein the aromatic hydrocarbon-based polymer electrolyte is a block or graft copolymer in which a segment containing an ionic group and a segment not containing an ionic group are bound to each other, and wherein the phase separation structure is observed by transmission electron microscope tomography.
An image forming apparatus comprising: a printing unit to print images on a recording medium; an installation member having an accommodation space (401, 402); and an adaptor, on which two or more option kits (510, 520) are loaded, detachably attached to the accommodation space of the installation member; a main control unit to control operations of the image forming apparatus; and an option interface unit to connect to the adaptor when the adaptor is installed in the installation member, so as to connect the two or more option kits to the main control unit, wherein the option interface unit comprises two or more connecting portions (221, 222) that are respectively connected to the two or more option kits when the adaptor is installed in the installation member. a printing unit to print images on a recording medium; an installation member having an accommodation space (401, 402); and an adaptor, on which two or more option kits (510, 520) are loaded, detachably attached to the accommodation space of the installation member; a main control unit to control operations of the image forming apparatus; and an option interface unit to connect to the adaptor when the adaptor is installed in the installation member, so as to connect the two or more option kits to the main control unit, wherein the option interface unit comprises two or more connecting portions (221, 222) that are respectively connected to the two or more option kits when the adaptor is installed in the installation member.
A method for repairing a tip portion of a turbine blade having a structural defect, comprising: providing a turbine blade with a structural defect in a tip portion of the turbine blade; removing the damaged section by machining or cutting the tip portion of the turbine blade; providing a pre-sintered preform configured to mate with an upper surface of a remaining portion of the turbine blade; applying the pre-sintered preform to the upper surface, wherein the pre-sintered preform comprises a superalloy material and a braze material; and subjecting the pre-sintered preform and the remaining portion of the turbine blade to a brazing process to melt the braze material and fill in the structural defect, wherein the pre-sintered preform comprises a first portion having a first composition and a second portion having a second composition, and wherein the first portion corresponds to a shelf portion of the tip and the second portion corresponds to a squealer portion of the tip, and wherein the first composition and the second composition are different. providing a turbine blade with a structural defect in a tip portion of the turbine blade; removing the damaged section by machining or cutting the tip portion of the turbine blade; providing a pre-sintered preform configured to mate with an upper surface of a remaining portion of the turbine blade; applying the pre-sintered preform to the upper surface, wherein the pre-sintered preform comprises a superalloy material and a braze material; and subjecting the pre-sintered preform and the remaining portion of the turbine blade to a brazing process to melt the braze material and fill in the structural defect, wherein the pre-sintered preform comprises a first portion having a first composition and a second portion having a second composition, and wherein the first portion corresponds to a shelf portion of the tip and the second portion corresponds to a squealer portion of the tip, and wherein the first composition and the second composition are different.
Audio decoder for decoding an audio signal from a data stream, the audio decoder comprising a set of different loss concealment tools and configured to determine a first measure measuring a spectral position of a spectral centroid of a spectrum of the audio signal, determine a second measure measuring a temporal predictability of the audio signal, wherein the second measure is a measure for self-similarity or autocorrelation or is a long term prediction gain, assign one loss concealment tool of the set of different loss concealment tools to a portion of the audio signal affected by loss based on the first and second measures, and recover the portion of the audio signal using the one loss concealment tool assigned to the portion, wherein the set of different loss concealment tools comprises a first loss concealment tool (PLC#1) for audio signal recovery of monophonic portions, and a second loss concealment tool (PLC#2) for audio signal recovery of polyphonic portions, wherein the audio decoder is configured to, in assigning the one loss concealment tool to the portion of the audio signal based on the first and second measures, assign the first loss concealment tool to the portion the more likely the lower the spectral position of the spectral centroid is and the higher the temporal predictability is, and assign the second loss concealment tool to the portion the more likely the higher the spectral position of the spectral centroid is and the lower the temporal predictability is. determine a first measure measuring a spectral position of a spectral centroid of a spectrum of the audio signal, determine a second measure measuring a temporal predictability of the audio signal, wherein the second measure is a measure for self-similarity or autocorrelation or is a long term prediction gain, assign one loss concealment tool of the set of different loss concealment tools to a portion of the audio signal affected by loss based on the first and second measures, and recover the portion of the audio signal using the one loss concealment tool assigned to the portion, wherein the set of different loss concealment tools comprises a first loss concealment tool (PLC#1) for audio signal recovery of monophonic portions, and a second loss concealment tool (PLC#2) for audio signal recovery of polyphonic portions, wherein the audio decoder is configured to, in assigning the one loss concealment tool to the portion of the audio signal based on the first and second measures, assign the first loss concealment tool to the portion the more likely the lower the spectral position of the spectral centroid is and the higher the temporal predictability is, and assign the second loss concealment tool to the portion the more likely the higher the spectral position of the spectral centroid is and the lower the temporal predictability is.