mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for extracting a feature from a bio-signal, the method comprising: acquiring the bio-signal; deriving a secondary differential signal of the bio-signal; analyzing concavity and convexity of a waveform of the secondary differential signal; and extracting the feature from the bio-signal based on the analyzed concavity and the analyzed convexity, characterized in that the analyzing comprises calculating a difference between a local maximum value and a local minimum value in an interval of the secondary differential signal as a convex-to-concave difference, CCD, value, and the extracting comprises extracting a characteristic point (T1, T2, T3, P1, P2, P3) from the bio-signal based on the calculated CCD value. acquiring the bio-signal; deriving a secondary differential signal of the bio-signal; analyzing concavity and convexity of a waveform of the secondary differential signal; and extracting the feature from the bio-signal based on the analyzed concavity and the analyzed convexity, characterized in that the analyzing comprises calculating a difference between a local maximum value and a local minimum value in an interval of the secondary differential signal as a convex-to-concave difference, CCD, value, and the extracting comprises extracting a characteristic point (T1, T2, T3, P1, P2, P3) from the bio-signal based on the calculated CCD value.
A poly(arylene ether) copolymer wherein the poly(arylene ether) copolymer is a product of oxidative copolymerization of monomers comprising a first monohydric phenol; a second monohydric phenol different from the first monohydric phenol; a siloxane oligomer; and optionally, at least one terminal functional group, wherein the siloxane oligomer comprises at least one of formulas to or a combination there of, wherein: i is 0-10, or 0-4, or 0-2; k is 1-100, or 10-80, or 10-60; each occurrence of R independently comprises an unsubstituted or substituted C 1-13 alkyl, C 1-13 alkoxy, C 3-6 cycloalkyl, C 3-6 cycloalkoxy, C 6-14 aryl, C 6-10 aryloxy, C 7-13 arylalkylene, or C 7-13 alkylarylene, each optionally halogenated; p, q, r, and s are each independently 0 or 1; R 1 is a divalent C 2-8 aliphatic group, each occurrence of M independently comprises halogen, cyano, nitro, C 1-8 alkylthio, C 1-8 alkyl, C 1-8 alkoxy, C 2-8 alkenyl, C 2-8 alkenyloxy, C 3-8 cycloalkyl, C 3-8 cycloalkoxy, C 6-10 aryl, C 6-10 aryloxy, C 7-12 aralkyl, C 7-12 aralkoxy, C 7-12 alkylaryl, or C 7-12 alkylaryloxy; and each m independently comprises 0, 1, 2, 3, or 4. i is 0-10, or 0-4, or 0-2; k is 1-100, or 10-80, or 10-60; each occurrence of R independently comprises an unsubstituted or substituted C 1-13 alkyl, C 1-13 alkoxy, C 3-6 cycloalkyl, C 3-6 cycloalkoxy, C 6-14 aryl, C 6-10 aryloxy, C 7-13 arylalkylene, or C 7-13 alkylarylene, each optionally halogenated; p, q, r, and s are each independently 0 or 1; R 1 is a divalent C 2-8 aliphatic group, each occurrence of M independently comprises halogen, cyano, nitro, C 1-8 alkylthio, C 1-8 alkyl, C 1-8 alkoxy, C 2-8 alkenyl, C 2-8 alkenyloxy, C 3-8 cycloalkyl, C 3-8 cycloalkoxy, C 6-10 aryl, C 6-10 aryloxy, C 7-12 aralkyl, C 7-12 aralkoxy, C 7-12 alkylaryl, or C 7-12 alkylaryloxy; and each m independently comprises 0, 1, 2, 3, or 4.
A container for metallic scrap, particularly for safely storing and transporting scrap of titanium and alloys thereof, comprising an external container body and a lid , wherein said external container body can be closed hermetically by means of said lid , defining and delimiting a vacuum chamber, and wherein it comprises a vacuum pump , which is adapted to create vacuum in said vacuum chamber characterized in that said container comprises furthermore a perforated internal container body , which comprises a plurality of holes , and is adapted to filter said scrap and to separate a cooling liquid, and in that said external container body comprises a hopper-like bottom , with the vertex of which means for discharging said cooling liquid are associated.
An X-ray generator comprising: a line X-ray source ; a multilayer film mirror for reflecting the X-ray; and a side-by-side reflecting mirror including two concave mirrors joined together so as to share a join line , wherein: a cross section of a reflecting surface of the multilayer film mirror has a parabolic shape and a focus of the parabolic shape is located at the line X-ray source ; and cross sections of reflecting surfaces of the two concave mirrors of the side-by-side reflecting mirror each have a parabolic shape and each of focuses of the parabolic shapes is located on a side opposite to the multilayer film mirror , and wherein both focuses substantially coincide with each other. a line X-ray source ; a multilayer film mirror for reflecting the X-ray; and a side-by-side reflecting mirror including two concave mirrors joined together so as to share a join line , wherein: a cross section of a reflecting surface of the multilayer film mirror has a parabolic shape and a focus of the parabolic shape is located at the line X-ray source ; and cross sections of reflecting surfaces of the two concave mirrors of the side-by-side reflecting mirror each have a parabolic shape and each of focuses of the parabolic shapes is located on a side opposite to the multilayer film mirror , and wherein both focuses substantially coincide with each other. a cross section of a reflecting surface of the multilayer film mirror has a parabolic shape and a focus of the parabolic shape is located at the line X-ray source ; and cross sections of reflecting surfaces of the two concave mirrors of the side-by-side reflecting mirror each have a parabolic shape and each of focuses of the parabolic shapes is located on a side opposite to the multilayer film mirror , and wherein both focuses substantially coincide with each other.
Use of a composition comprising a thermoresistant polyphosphate-dependent glucokinase derived from the genus Anaerolinea, glucose, and polyphosphate for the production of glucose 6-phosphate at a temperature of 55°C to 80°C, wherein the thermoresistant polyphosphate-dependent glucokinase derived from the genus Anaerolinea has amino acid sequence set forth in SEQ ID NO. 2 or is expressed from DNA sequence set forth in SEQ ID NO. 1, and wherein the glucokinase has a maximum activity at 65-70°C and has activities of 95% or more relative to the maximum activity in the whole range of 60-80°C. wherein the thermoresistant polyphosphate-dependent glucokinase derived from the genus Anaerolinea has amino acid sequence set forth in SEQ ID NO. 2 or is expressed from DNA sequence set forth in SEQ ID NO. 1, and wherein the glucokinase has a maximum activity at 65-70°C and has activities of 95% or more relative to the maximum activity in the whole range of 60-80°C.
AC charger comprising a housing and a cable guide positioned in the housing , characterized in that the cable guide comprises a base , an input region and an output region , wherein the input region and the output region are respectively arranged at the base and respectively comprise a plurality of input and output conductor receivers , with at least ends of the respective plurality of conductor receivers being arranged at least generally in parallel to one another and such that the ends extend at least substantially perpendicular to the base , and in that the cable guide comprises alignment means (46 1 ) configured to ensure a correct alignment of the cable guide relative to a bottom part of the housing of the AC charger in its installed state.
An apparatus for oxygenation and/or CO2 clearance of a patient, comprising: a flow source or a connection for a flow source for providing a gas flow, a gas flow modulator, a controller to control the gas flow wherein the controller is operable to: control the gas flow modulator to provide a varying gas flow with at least two oscillating components, wherein at least one oscillating component is based on a physiological parameter, and wherein one oscillating component has a frequency higher than a heart rate and/or trachea flow of the patient to promote mixing, one oscillating component has a frequency lower than a heart rate and/or trachea flow of the patient to promote bulk gas flow movement. a flow source or a connection for a flow source for providing a gas flow, a gas flow modulator, a controller to control the gas flow wherein the controller is operable to: control the gas flow modulator to provide a varying gas flow with at least two oscillating components, wherein at least one oscillating component is based on a physiological parameter, and wherein one oscillating component has a frequency higher than a heart rate and/or trachea flow of the patient to promote mixing, one oscillating component has a frequency lower than a heart rate and/or trachea flow of the patient to promote bulk gas flow movement. control the gas flow modulator to provide a varying gas flow with at least two oscillating components, wherein at least one oscillating component is based on a physiological parameter, and wherein one oscillating component has a frequency higher than a heart rate and/or trachea flow of the patient to promote mixing, one oscillating component has a frequency lower than a heart rate and/or trachea flow of the patient to promote bulk gas flow movement.
A node for an OpenFlow communication system, the node for forwarding a packet and comprising: a receiver to receive a packet, the packet having appended thereto an action header containing an array of plurality of processing operations to be performed by the individual nodes on the forwarding nodes of a data forwarding network; the node further comprising an action table containing identifiers which correspond to a packet processing operation stored in the packet processing operation list of a node; and a packet handler to execute the packet processing operation selected from the list stored in the node based on a identifier corresponding to the node . a receiver to receive a packet, the packet having appended thereto an action header containing an array of plurality of processing operations to be performed by the individual nodes on the forwarding nodes of a data forwarding network; the node further comprising an action table containing identifiers which correspond to a packet processing operation stored in the packet processing operation list of a node; and a packet handler to execute the packet processing operation selected from the list stored in the node based on a identifier corresponding to the node .
Method for breeding and collecting larvae, preferably neonate larvae, comprising the following steps: a) placing insects in a cage, provided with material for the female insects to deposit eggs; b) ushering larvae, hatched from the deposited eggs, by means of a guiding device, placed under the cage, under the influence of gravity to a conveyor belt placed under the guiding device; c) moving the larvae by means of the conveyor belt to a recipient placed at the end of the conveyor belt; d) counting the number of larvae on the conveyor belt before collection in the recipient; e) collecting the larvae of the conveyor belt in the recipient until a predetermined number of larvae has been reached. a) placing insects in a cage, provided with material for the female insects to deposit eggs; b) ushering larvae, hatched from the deposited eggs, by means of a guiding device, placed under the cage, under the influence of gravity to a conveyor belt placed under the guiding device; c) moving the larvae by means of the conveyor belt to a recipient placed at the end of the conveyor belt; d) counting the number of larvae on the conveyor belt before collection in the recipient; e) collecting the larvae of the conveyor belt in the recipient until a predetermined number of larvae has been reached.
A method for determining surface related drag of a surface, the method comprising: i) analysing at least a portion of a surface by: a) generating a light beam of at least one predetermined wavelength, b) directing the light beam on to a portion of the surface to form an illuminated area, c) detecting the intensity of the reflected light across the illuminated area, wherein detecting the intensity of the reflected light comprises identifying a location of the illuminated area, and acquiring an image of the illuminated area, d) comparing the intensity of the reflected light at positions across the illuminated area, thereby analysing the surface; ii) determining the surface structure on the portion of the surface; iii) selecting a drag value model; iv) applying the drag value model to the surface structure; and v) generating a drag factor associated with the surface. i) analysing at least a portion of a surface by: a) generating a light beam of at least one predetermined wavelength, b) directing the light beam on to a portion of the surface to form an illuminated area, c) detecting the intensity of the reflected light across the illuminated area, wherein detecting the intensity of the reflected light comprises identifying a location of the illuminated area, and acquiring an image of the illuminated area, d) comparing the intensity of the reflected light at positions across the illuminated area, thereby analysing the surface; a) generating a light beam of at least one predetermined wavelength, b) directing the light beam on to a portion of the surface to form an illuminated area, c) detecting the intensity of the reflected light across the illuminated area, wherein detecting the intensity of the reflected light comprises identifying a location of the illuminated area, and acquiring an image of the illuminated area, d) comparing the intensity of the reflected light at positions across the illuminated area, thereby analysing the surface; ii) determining the surface structure on the portion of the surface; iii) selecting a drag value model; iv) applying the drag value model to the surface structure; and v) generating a drag factor associated with the surface.
A high flow nasal therapy system comprising: a gas supply , a humidifier , a nebulizer , a flow line , a sensor for detecting flow conditions, said sensor comprising a flow meter in the flow line, a nasal interface or a coupler for connection to an external interface, and a controller configured to control the system in real time to vary the aerosol delivery to the nasal interface on a temporal basis, wherein the controller is configured to: provide an increased aerosol delivery during patient inhalation and reduced aerosol delivery during patient exhalation, characterized in that , the controller is also configured to: vary the aerosol output at least partly in response to sensed flow conditions, control aerosol delivery to remove any rainout building up in a breathing circuit by means of temporally varying aerosol output, receive a signal from a gas flow generator control unit and/or the flow meter and if there is no flow, or backward flow coming from the patient side towards the flow generator, preventing the nebuliser and/or the humidifier from generating aerosol and/or humidity, and to detect patient activity and control aerosol delivery according to detected periods of altered activity. a gas supply , a humidifier , a nebulizer , a flow line , a sensor for detecting flow conditions, said sensor comprising a flow meter in the flow line, a nasal interface or a coupler for connection to an external interface, and a controller configured to control the system in real time to vary the aerosol delivery to the nasal interface on a temporal basis, wherein the controller is configured to: provide an increased aerosol delivery during patient inhalation and reduced aerosol delivery during patient exhalation, characterized in that , the controller is also configured to: vary the aerosol output at least partly in response to sensed flow conditions, control aerosol delivery to remove any rainout building up in a breathing circuit by means of temporally varying aerosol output, receive a signal from a gas flow generator control unit and/or the flow meter and if there is no flow, or backward flow coming from the patient side towards the flow generator, preventing the nebuliser and/or the humidifier from generating aerosol and/or humidity, and to detect patient activity and control aerosol delivery according to detected periods of altered activity. vary the aerosol output at least partly in response to sensed flow conditions, control aerosol delivery to remove any rainout building up in a breathing circuit by means of temporally varying aerosol output, receive a signal from a gas flow generator control unit and/or the flow meter and if there is no flow, or backward flow coming from the patient side towards the flow generator, preventing the nebuliser and/or the humidifier from generating aerosol and/or humidity, and to detect patient activity and control aerosol delivery according to detected periods of altered activity.
An electric appliance for personal care, in particular electric shaver, comprising a magnetic linear drive unit having first and second drive components connected to each other by a spring device for linear oscillation relative to each other and adapted to magnetically interact with each other, wherein said spring device includes at least one leaf spring having a constricted section in a central region of the leaf spring , wherein surfaces of said at least one leaf spring neighboring said constricted section are shaped convex, characterized in that said convex shape of said convex surfaces is a parabolic shape.
A fragrance composition comprising or consisting of (a1) 1 to 15 % b.w. 3,6-dimethyl-3H-1-benzofuran-2-one, (a2) 1 to 15 % b.w. of at least one additional fragrance compound, and (b) a cosmetically acceptable carrier, on condition that the amounts add to 100 % b.w. (a1) 1 to 15 % b.w. 3,6-dimethyl-3H-1-benzofuran-2-one, (a2) 1 to 15 % b.w. of at least one additional fragrance compound, and (b) a cosmetically acceptable carrier,
A system, comprising: a heart sound sensor configured to detect first heart sound information of a heart of a patient in a first, low-power operational mode and to detect second heart sound information of the heart in a separate second, high-power operational mode; and a heart sound control circuit configured to receive physiologic information from the patient, and to control the operational mode of the heart sound sensor using the received physiologic information; wherein the control circuit is configured to receive heart sound information from the heart sound sensor , and to control the operational mode of the heart sound sensor using the received heart sound information, and wherein the heart sound control circuit is configured to transition the heart sound sensor from the first mode to the second mode when the first heart sound information exceeds a threshold. a heart sound sensor configured to detect first heart sound information of a heart of a patient in a first, low-power operational mode and to detect second heart sound information of the heart in a separate second, high-power operational mode; and a heart sound control circuit configured to receive physiologic information from the patient, and to control the operational mode of the heart sound sensor using the received physiologic information; wherein the control circuit is configured to receive heart sound information from the heart sound sensor , and to control the operational mode of the heart sound sensor using the received heart sound information, and wherein the heart sound control circuit is configured to transition the heart sound sensor from the first mode to the second mode when the first heart sound information exceeds a threshold.
Suspension arm for a vehicle, having a base structure formed from a metal plate, said base structure comprising: - a first portion designed to be attached to a wheel of a vehicle, - a second portion designed to be attached to the chassis of the vehicle, characterized in that the thickness of the metal plate in said first portion is greater than the thickness of the metal plate in said second portion. - a first portion designed to be attached to a wheel of a vehicle, - a second portion designed to be attached to the chassis of the vehicle,
A light-emitting device comprising: a first electrode ; a first layer ; a first light-emitting layer over the first layer ; a second layer over the first light-emitting layer , wherein the second layer is a layer including a hole transporting material and a material which exhibits an electron accepting property to the hole transporting material; a second light-emitting layer over the second layer ; and a second electrode over the second light-emitting layer (112G, 112b, wherein the first electrode is a reflective electrode; characterized in that the first layer is in contact with the first electrode , and comprises indium tin oxide containing silicon oxide. a first electrode ; a first layer ; a first light-emitting layer over the first layer ; a second layer over the first light-emitting layer , wherein the second layer is a layer including a hole transporting material and a material which exhibits an electron accepting property to the hole transporting material; a second light-emitting layer over the second layer ; and a second electrode over the second light-emitting layer (112G, 112b, wherein the first electrode is a reflective electrode; characterized in that the first layer is in contact with the first electrode , and comprises indium tin oxide containing silicon oxide.
Device for moving a tongue rail of a switch, comprising a retaining element attached to a stock rail and at least one roller attached thereto, the axis of rotation of which is substantially parallel to the course of the rail, and which is arranged in such a way that the tongue rail can roll up from a lower contact position on the stock rail onto the roller to a remote position, and comprising a spring element , characterised in that the spring element is arranged in the interior of the roller and in that the roller is fastened by at least one screw connection and is fixed adjustably in a slide rail on the retaining element .
Method for operating a front camera of a motor vehicle , by means of which images (B1, B2) of an environmental region in the direction of travel in front of the motor vehicle are captured, wherein at least one light source of a frontal headlight of the motor vehicle is operated in pulsed manner and herein it is alternately switched between an active state ("1"), in which the at least one light source is turned on, and a further state ("0"), in which the at least one light source has lower light intensity than in the active state ("1"), and wherein a shutter disposed in front of an image sensor of the front camera is moved between a closed position (S1), in which the shutter covers the image sensor against the environmental region , and an open position (S0), in which the image sensor is exposed to light of the environmental region , characterized in that for at least a preset first time interval (T1), the movement of the shutter is controlled synchronously to the pulsed operation of the at least one light source , such that the closed position (S1) of the shutter completely coincides with the active state ("1") of the light source and the open position (S0) of the shutter completely coincides with the further state ("0") of the light source , wherein at least one first image (B1) is captured by means of the image sensor within the first time interval (T1).