mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for estimating bio-information, the apparatus comprising: a processor configured to: obtain a pulse wave signal from a user, wherein the pulse wave signal has a waveform that is a superposition of a propagation wave (P1) and reflection waves (P2, P3); extract a first amplitude (P1) of the pulse wave signal corresponding to a point of time (T1), when a first element waveform (A1) has a maximum amplitude; extract a second amplitude (P2) of the pulse wave signal corresponding to a point of time (T2), when a second element waveform (A2) has a maximum amplitude; extract a third amplitude (P3) of the pulse wave signal corresponding to a point of time (T3), when a third element waveform (A3) that is adjacent to the second element waveform (A2) has a maximum amplitude; characterised in that the processor is further configured to: obtain a corrected amplitude of the pulse wave signal corresponding to the second element wave form (A2), based on the third amplitude (A3) by subtracting a predetermined percentage of the third amplitude (P3) of the pulse wave signal , related to the adjacent third element waveform (A3), from the second amplitude (P2) of the pulse wave signal related to the second element waveform (A2); and obtain the bio-information of the user based on the first amplitude (P1) and the corrected amplitude. obtain a pulse wave signal from a user, wherein the pulse wave signal has a waveform that is a superposition of a propagation wave (P1) and reflection waves (P2, P3); extract a first amplitude (P1) of the pulse wave signal corresponding to a point of time (T1), when a first element waveform (A1) has a maximum amplitude; extract a second amplitude (P2) of the pulse wave signal corresponding to a point of time (T2), when a second element waveform (A2) has a maximum amplitude; extract a third amplitude (P3) of the pulse wave signal corresponding to a point of time (T3), when a third element waveform (A3) that is adjacent to the second element waveform (A2) has a maximum amplitude; characterised in that the processor is further configured to: obtain a corrected amplitude of the pulse wave signal corresponding to the second element wave form (A2), based on the third amplitude (A3) by subtracting a predetermined percentage of the third amplitude (P3) of the pulse wave signal , related to the adjacent third element waveform (A3), from the second amplitude (P2) of the pulse wave signal related to the second element waveform (A2); and obtain the bio-information of the user based on the first amplitude (P1) and the corrected amplitude. obtain a corrected amplitude of the pulse wave signal corresponding to the second element wave form (A2), based on the third amplitude (A3) by subtracting a predetermined percentage of the third amplitude (P3) of the pulse wave signal , related to the adjacent third element waveform (A3), from the second amplitude (P2) of the pulse wave signal related to the second element waveform (A2); and obtain the bio-information of the user based on the first amplitude (P1) and the corrected amplitude.
A wedge looseness inspection device, of a rotary electric machine, comprising: a strike portion which strikes wedges of the rotary electric machine; a pressure portion which presses surfaces of the wedges ; a strike sound obtaining portion which obtains a strike sound which is caused when the wedges are struck; a base portion on which the strike portion , the pressure portion , and strike sound obtaining portion are mounted; and a control device which controls the strike portion , the pressure portion , and strike sound obtaining portion ; wherein the wedges are struck by the strike portion , in a state where the wedges are pressed by the pressure portion , and an amount of looseness of the wedges is judged in accordance with the strike sound which is obtained by the strike sound obtaining portion , wherein the pressure portion includes a pressure component , which presses the wedges , and an elastic body which generates a force, by which the pressure component is pressed to the wedges , and is arranged between the base portion and the pressure component , and energizes the pressure component in such a way that the pressure component is pressed to the wedges , and wherein an attenuator , by which an attenuation force is generated in parallel with the elastic body , is provided between the pressure component and the base portion . a strike portion which strikes wedges of the rotary electric machine; a pressure portion which presses surfaces of the wedges ; a strike sound obtaining portion which obtains a strike sound which is caused when the wedges are struck; a base portion on which the strike portion , the pressure portion , and strike sound obtaining portion are mounted; and a control device which controls the strike portion , the pressure portion , and strike sound obtaining portion ; wherein the wedges are struck by the strike portion , in a state where the wedges are pressed by the pressure portion , and an amount of looseness of the wedges is judged in accordance with the strike sound which is obtained by the strike sound obtaining portion , wherein the pressure portion includes a pressure component , which presses the wedges , and an elastic body which generates a force, by which the pressure component is pressed to the wedges , and is arranged between the base portion and the pressure component , and energizes the pressure component in such a way that the pressure component is pressed to the wedges , and wherein an attenuator , by which an attenuation force is generated in parallel with the elastic body , is provided between the pressure component and the base portion .
A recovery method of a nitrile-based monomer, the method comprising: (S10) supplying a feed stream including a nitrile-based monomer, a nitrogen compound, and water to a first distillation tower to separate the stream into a lower discharge stream including water and an upper discharge stream including the nitrile-based monomer, the nitrogen compound, and water; (S20) condensing the upper discharge stream from the first distillation tower and supplying the condensed stream to a decanter to separate the stream into a water layer and an organic layer including the nitrile-based monomer and the nitrogen compound; (S30) supplying an organic layer stream discharged from the decanter to a second distillation tower to separate the stream into a lower discharge stream including the nitrogen compound and an upper discharge stream including the nitrile-based monomer and the nitrogen compound; and (S40) splitting a part of the upper discharge stream from the second distillation tower and refluxing the split stream to the second distillation tower, wherein the feed stream is discharged from a reactor in which a nitrile-based monomer and a conjugated diene-based monomer are polymerized, and the feed stream is produced after recovering the conjugated diene-based monomer and a nitrile-based monomer-conjugated diene-based monomer copolymer from a discharge stream from the reactor including the nitrile-based monomer, the conjugated diene-based monomer, a nitrogen compound, water, and the nitrile-based monomer-conjugated diene-based monomer copolymer. (S10) supplying a feed stream including a nitrile-based monomer, a nitrogen compound, and water to a first distillation tower to separate the stream into a lower discharge stream including water and an upper discharge stream including the nitrile-based monomer, the nitrogen compound, and water; (S20) condensing the upper discharge stream from the first distillation tower and supplying the condensed stream to a decanter to separate the stream into a water layer and an organic layer including the nitrile-based monomer and the nitrogen compound; (S30) supplying an organic layer stream discharged from the decanter to a second distillation tower to separate the stream into a lower discharge stream including the nitrogen compound and an upper discharge stream including the nitrile-based monomer and the nitrogen compound; and (S40) splitting a part of the upper discharge stream from the second distillation tower and refluxing the split stream to the second distillation tower, wherein the feed stream is discharged from a reactor in which a nitrile-based monomer and a conjugated diene-based monomer are polymerized, and the feed stream is produced after recovering the conjugated diene-based monomer and a nitrile-based monomer-conjugated diene-based monomer copolymer from a discharge stream from the reactor including the nitrile-based monomer, the conjugated diene-based monomer, a nitrogen compound, water, and the nitrile-based monomer-conjugated diene-based monomer copolymer.
Hydrostatic axial piston machine of bent axis design, having a drive shaft which is arranged so as to be rotatable about an axis of rotation and which is provided with a drive flange , and having a cylinder drum which is arranged so as to be rotatable about an axis of rotation , wherein the cylinder drum is provided with a plurality of piston recesses which are arranged concentrically with respect to the axis of rotation of the cylinder drum and in which in each case one piston which is connected to the drive flange is arranged in longitudinally displaceable fashion, wherein the cylinder drum lies on a control bottom which is provided with a control surface , and wherein the axial piston machine is configured as a variable displacement machine with a variable displacement volume, wherein the control bottom is arranged with a pivoting surface , which is opposite the control surface , in a control bottom receptacle of the housing so as to be pivotable about a pivot axis (S), wherein a plain bearing is formed between the pivoting surface of the control bottom and the control bottom receptacle of the housing , characterized in that a wear-reducing hard material layer is applied to the pivoting surface of the control bottom , wherein a receiving surface of the control bottom receptacle receives the pivoting surface of the control bottom , wherein the control bottom receptacle is composed of metal or cast iron, and the receiving surface of the control bottom receptacle does not have any surface hardening.
Optical sensor arrangement comprising - an optoelectronic device (E, D) and a cover arrangement (C, CL) covering the optoelectronic device (E, D), wherein the optoelectronic device (E, D) is configured to emit or detect at least electromagnetic radiation with a first wavelength through an aperture (A, AF) of the cover arrangement; and - a mirror arrangement arranged between the optoelectronic device and the aperture, wherein - the mirror arrangement comprises a wavelength selective mirror (HM, HMF, CM, CMF) with a passband and a stopband, - the passband includes a first wavelength range containing the first wavelength and the stopband includes a second wavelength range corresponding to visible light or vice versa, - the optoelectronic device (E, D) has an active surface extending along a first principal plane and the wavelength selective mirror extends along a second principal plane, characterised in that : - the mirror arrangement comprises an optically opaque element (OE, OEF), opaque for visible light and for a range of infrared radiation, extending along a fourth principal plane being perpendicular to the first principal plane. - an optoelectronic device (E, D) and a cover arrangement (C, CL) covering the optoelectronic device (E, D), wherein the optoelectronic device (E, D) is configured to emit or detect at least electromagnetic radiation with a first wavelength through an aperture (A, AF) of the cover arrangement; and - a mirror arrangement arranged between the optoelectronic device and the aperture, wherein - the mirror arrangement comprises a wavelength selective mirror (HM, HMF, CM, CMF) with a passband and a stopband, - the passband includes a first wavelength range containing the first wavelength and the stopband includes a second wavelength range corresponding to visible light or vice versa, - the mirror arrangement comprises a wavelength selective mirror (HM, HMF, CM, CMF) with a passband and a stopband, - the passband includes a first wavelength range containing the first wavelength and the stopband includes a second wavelength range corresponding to visible light or vice versa, - the optoelectronic device (E, D) has an active surface extending along a first principal plane and the wavelength selective mirror extends along a second principal plane, characterised in that : - the mirror arrangement comprises an optically opaque element (OE, OEF), opaque for visible light and for a range of infrared radiation, extending along a fourth principal plane being perpendicular to the first principal plane. - the mirror arrangement comprises an optically opaque element (OE, OEF), opaque for visible light and for a range of infrared radiation, extending along a fourth principal plane being perpendicular to the first principal plane.
Drain (20; 40; 50; 70; 80; 100) and a surrounding floor , which drain (20; 40; 50; 70; 80; 100) comprises a housing with a longitudinal direction, a bottom surface (21; 41; 52; 71; 81; 101) in which a discharge opening is arranged, an upright peripheral edge(22; 42; 53; 72; 82; 102, 103) along the edge of the bottom surface (21; 41; 52; 71; 81; 101), and an elongate opening (26; 46; 57; 76; 86; 110), which elongate opening (26; 46; 57; 76; 86; 110) extends parallel to the longitudinal direction of the housing, the tubular housing being integrated into the surrounding floor ; and - a siphon (60, 61; 90) arranged on the discharge opening in the bottom surface (21; 41; 52; 71; 81; 101), characterized in that the housing is tubular having an upper surface (25; 44; 54; 74; 84; 104), wherein the elongate opening (26; 46; 57; 76; 86; 110) is arranged in the upper surface (25; 44; 54; 74; 84; 104); wherein the upper edge of the peripheral wall comprises an inward directed horizontal flange (24; 43; 55; 73; 83; 104), which horizontal flange (24; 43; 55; 73; 83; 104) forms together with a separate sheet part (25; 44; 54; 74; 84; 106, 109) the upper wall of the housing; and wherein the upper layer (14; 88) of the surrounding floor (13, 14; 87, 88) is laid over the tubular housing up to the elongate opening (7; 26; 46; 57; 76; 86; 110). - a siphon (60, 61; 90) arranged on the discharge opening in the bottom surface (21; 41; 52; 71; 81; 101), characterized in that the housing is tubular having an upper surface (25; 44; 54; 74; 84; 104), wherein the elongate opening (26; 46; 57; 76; 86; 110) is arranged in the upper surface (25; 44; 54; 74; 84; 104); wherein the upper edge of the peripheral wall comprises an inward directed horizontal flange (24; 43; 55; 73; 83; 104), which horizontal flange (24; 43; 55; 73; 83; 104) forms together with a separate sheet part (25; 44; 54; 74; 84; 106, 109) the upper wall of the housing; and wherein the upper layer (14; 88) of the surrounding floor (13, 14; 87, 88) is laid over the tubular housing up to the elongate opening (7; 26; 46; 57; 76; 86; 110).
A fastener including: a first and a second load receiving portion ; a strainable portion between the first and second load receiving portions; an elongate portion including a reference datum ; a strain portion datum located on the strainable portion; axial displacement of the strain portion datum relative to the reference datum being proportional to a load on the fastener; and a hole from a measuring access end of the fastener towards the reference and strain portion datums to enable a measuring tool to access the reference and strain portion datums to check the load; characterised in that : when the load is zero, the axial distance from the highest point of the reference datum to the highest point of the strain portion datum is less than 1/1000th of an axial distance from the reference datum to a root of the elongate portion ; the hole includes a bore having a cross sectional area and a tolerance of no more than H9; and including one or more tool engaging portion(s) to form an engagement to align the tool; the tool engaging portion(s) being configured to engage the tool at at least two locations spaced by an axial length at least equal to the square root of the cross-sectional area. a first and a second load receiving portion ; a strainable portion between the first and second load receiving portions; an elongate portion including a reference datum ; a strain portion datum located on the strainable portion; axial displacement of the strain portion datum relative to the reference datum being proportional to a load on the fastener; and a hole from a measuring access end of the fastener towards the reference and strain portion datums to enable a measuring tool to access the reference and strain portion datums to check the load; characterised in that : when the load is zero, the axial distance from the highest point of the reference datum to the highest point of the strain portion datum is less than 1/1000th of an axial distance from the reference datum to a root of the elongate portion ; the hole includes a bore having a cross sectional area and a tolerance of no more than H9; and including one or more tool engaging portion(s) to form an engagement to align the tool; the tool engaging portion(s) being configured to engage the tool at at least two locations spaced by an axial length at least equal to the square root of the cross-sectional area. when the load is zero, the axial distance from the highest point of the reference datum to the highest point of the strain portion datum is less than 1/1000th of an axial distance from the reference datum to a root of the elongate portion ; the hole includes a bore having a cross sectional area and a tolerance of no more than H9; and including one or more tool engaging portion(s) to form an engagement to align the tool; the tool engaging portion(s) being configured to engage the tool at at least two locations spaced by an axial length at least equal to the square root of the cross-sectional area.
A compound that is d 4 -domperidone 2, d 6 -domperidone 3, or d 10 -domperidone 5, or a pharmaceutically acceptable salt thereof:
A hearing prosthesis system comprising: a first stimulator located in a first hearing prosthesis ; a first transducer located in a second hearing prosthesis ; and a processor arranged to: generate a first stimulation signal with the processor ; communicate the first stimulation signal to the first stimulator ; receive an indication of a first input signal measured by the first transducer associated with the first stimulation signal; calculate a first bilateral feedback associated with first stimulation signal based on the measured input signal ; and adjust a first stimulation parameter based on the calculated first bilateral feedback, wherein bilateral feedback occurs when sound vibrations produced by one prosthesis are captured by an opposing prosthesis. a first stimulator located in a first hearing prosthesis ; a first transducer located in a second hearing prosthesis ; and a processor arranged to: generate a first stimulation signal with the processor ; communicate the first stimulation signal to the first stimulator ; receive an indication of a first input signal measured by the first transducer associated with the first stimulation signal; calculate a first bilateral feedback associated with first stimulation signal based on the measured input signal ; and adjust a first stimulation parameter based on the calculated first bilateral feedback, generate a first stimulation signal with the processor ; communicate the first stimulation signal to the first stimulator ; receive an indication of a first input signal measured by the first transducer associated with the first stimulation signal; calculate a first bilateral feedback associated with first stimulation signal based on the measured input signal ; and adjust a first stimulation parameter based on the calculated first bilateral feedback, wherein bilateral feedback occurs when sound vibrations produced by one prosthesis are captured by an opposing prosthesis.
Multilayer foil sheet , in particular for the usage in the construction industry having a laminar foil-like first layer which extends in a first extending direction (E) and is made from a plastic and having a laminar second layer which is arranged on this foil-like support layer , wherein this compound has a first surface which extends in the extending direction (E) and a second surface which extends in the extending direction (E) and this second surface lies opposite to the first surface , characterized in that a particle material is applied to at least one of these surfaces at least in sections and laminarly, wherein the particle material is a flocking , wherein the particle material is perpendicularly aligned with a longitudinal direction to the surface to be flocked.
Radar sensor for detecting the level of a product or the topology of the surface of a product, comprising: a permanently operated clock an energy storage ; a computing circuit ; a radar chip ; a first switching arrangement ; wherein the clock is configured to drive the first switching arrangement at a predetermined time to close a power supply line to supply power from the energy storage to the computing circuit to activate the computing circuit; characterized in that the computing circuit is configured to drive the first switching arrangement after its activation to close a further power supply line in order to supply the radar chip with the power from the energy storage necessary for detecting the level or the topology. a permanently operated clock an energy storage ; a computing circuit ; a radar chip ; a first switching arrangement ; wherein the clock is configured to drive the first switching arrangement at a predetermined time to close a power supply line to supply power from the energy storage to the computing circuit to activate the computing circuit; characterized in that the computing circuit is configured to drive the first switching arrangement after its activation to close a further power supply line in order to supply the radar chip with the power from the energy storage necessary for detecting the level or the topology.
A polymerizable liquid crystal material comprising a polymerizable liquid crystal compound, wherein an amount of a salt represented by the following formula (I) is less than 0.01 parts by mass per 100 parts by mass of the polymerizable liquid crystal compound, and an amount of a nitrogen-containing compound represented by the following formula (II) is 0.01 parts by mass or less per 100 parts by mass of the polymerizable liquid crystal compound, where R 1 to R 4 each independently represent a hydrogen atom or a C1-C7 alkyl group, and X represents F - , Br - , Cl - , I - , HSO 4 - , 1/2(HPO 4 2- ), H 2 PO 4 - , R-C(=O)-O - , 1/2( - O-(C=O)-R'-(C=O)-O - ) or R-SO 3 - , where R represents a hydrogen atom or a monovalent hydrocarbon group, and R' represents a single bond or a divalent hydrocarbon group, where R 5 represents a hydrogen atom or a C1-C7 alkyl group, and R 6 and R 7 represent a hydrogen atom. an amount of a salt represented by the following formula (I) is less than 0.01 parts by mass per 100 parts by mass of the polymerizable liquid crystal compound, and an amount of a nitrogen-containing compound represented by the following formula (II) is 0.01 parts by mass or less per 100 parts by mass of the polymerizable liquid crystal compound, where R 1 to R 4 each independently represent a hydrogen atom or a C1-C7 alkyl group, and X represents F - , Br - , Cl - , I - , HSO 4 - , 1/2(HPO 4 2- ), H 2 PO 4 - , R-C(=O)-O - , 1/2( - O-(C=O)-R'-(C=O)-O - ) or R-SO 3 - , where R represents a hydrogen atom or a monovalent hydrocarbon group, and R' represents a single bond or a divalent hydrocarbon group, where R 5 represents a hydrogen atom or a C1-C7 alkyl group, and R 6 and R 7 represent a hydrogen atom.