mhurhangee/patent-ind-claim-en huggingface dataset:
Method for estimating a cardiac frequency of a living being comprising the following steps: a) illuminating a bodily zone of said living being with an incident light beam (12, 12 1 , 12 2 ) in a first spectral band (Δλ 1 ); b) detecting light radiation (14, 14 1 , 14 2 ) transmitted or backscattered, in said first spectral band (Δλ 1 ), by said bodily zone under the effect of said illumination; c) determining a first detection function (S 1 (t)), representing a variation as a function of time of an intensity (Si) of the light radiation thus detected; d) identifying characteristic instants (ti) from said first detection function (S 1 (t)), and calculating an occurrence frequency ( f ) of said characteristic instants, each characteristic instant corresponding to an instant at which said detection function reaches a particular value, or crosses a threshold, or reaches a local extremum; e) estimating a cardiac frequency ( hr ) from said occurrence frequency ( f ); wherein: - steps a) to b) are also implemented in a second spectral band (Δλ 2 ), such that step c) comprises determining a second detection function (S 2 (t)) representing a variation as a function of time of an intensity of the light radiation detected in the second spectral band (Δλ 2 ); - step d) comprises identifying characteristic instants from the second detection function and selecting characteristic instants (t i ), identified from each detection function, and appearing in temporal coincidence, the occurrence frequency ( f ) being calculated from the characteristic instants thus selected. a) illuminating a bodily zone of said living being with an incident light beam (12, 12 1 , 12 2 ) in a first spectral band (Δλ 1 ); b) detecting light radiation (14, 14 1 , 14 2 ) transmitted or backscattered, in said first spectral band (Δλ 1 ), by said bodily zone under the effect of said illumination; c) determining a first detection function (S 1 (t)), representing a variation as a function of time of an intensity (Si) of the light radiation thus detected; d) identifying characteristic instants (ti) from said first detection function (S 1 (t)), and calculating an occurrence frequency ( f ) of said characteristic instants, each characteristic instant corresponding to an instant at which said detection function reaches a particular value, or crosses a threshold, or reaches a local extremum; e) estimating a cardiac frequency ( hr ) from said occurrence frequency ( f ); - steps a) to b) are also implemented in a second spectral band (Δλ 2 ), such that step c) comprises determining a second detection function (S 2 (t)) representing a variation as a function of time of an intensity of the light radiation detected in the second spectral band (Δλ 2 ); - step d) comprises identifying characteristic instants from the second detection function and selecting characteristic instants (t i ), identified from each detection function, and appearing in temporal coincidence, the occurrence frequency ( f ) being calculated from the characteristic instants thus selected.
Post and crossmember construction comprising posts and crossmembers fixed to the posts , wherein an insert frame formed from profiles and having a pivotable leaf is fixed to an outer side of two posts , which insert frame is fixed in a clamping manner to the posts by means of a mounting strip , respectively, wherein a parapet securing means is fixed to the mounting strip on an outer side at least over part of the height of the insert frame and the mounting strip is fixed to the posts by means of first screws which engage in a screw groove on the post , the mounting strip additionally being fixed to the insert frame by means of second screws and the second screws being screwed into the insert frame at a distance from a plane of the screw groove .
A topical composition which when applied to the skin or mucosa produces a breathable non-occlusive protective effect, having a water vapour transmission rate and occlusivity similar to that of vernix caseosa, comprising: a) an isoparaffin with a carbon chain length of 20-60, a hydrogenated oligomer of an alpha olefin, or a combination thereof, the hydrogenated oligomer of the alpha olefin and isoparaffin each having a molecular weight and sufficiently high boiling point to remain on a subject's skin or mucosa after application; b) a glycerol fatty acid triester; c) bis-octyldodecyl dimer dilinoleate/propanediol copolymer d) a sugar alcohol with humectant benefits; and e) a small amino acid, wherein the small amino acid is selected from the group consisting of alanine, valine, leucine, isoleucine, glycine, proline, and mixtures thereof, or wherein the small amino acid is trimethylglycine. a) an isoparaffin with a carbon chain length of 20-60, a hydrogenated oligomer of an alpha olefin, or a combination thereof, the hydrogenated oligomer of the alpha olefin and isoparaffin each having a molecular weight and sufficiently high boiling point to remain on a subject's skin or mucosa after application; b) a glycerol fatty acid triester; c) bis-octyldodecyl dimer dilinoleate/propanediol copolymer d) a sugar alcohol with humectant benefits; and e) a small amino acid, wherein the small amino acid is selected from the group consisting of alanine, valine, leucine, isoleucine, glycine, proline, and mixtures thereof, or wherein the small amino acid is trimethylglycine.
A decoration member comprising: a substrate layer including a convex structure or a concave structure arranged two-dimensionally; and an inorganic material layer provided on the substrate layer , wherein the two-dimensionally-arranged structure is arranged in a first axis direction and a second axis direction forming an angle of greater than or equal to 1 degree and less than or equal to 175 degrees in a clockwise direction with the first axis direction, characterised in that each of a cross-section cutting the convex structure or the concave structure in a first plane (Z1), and a cross-section cutting the convex structure or the concave structure in a second plane (Z2) has an asymmetric structure, wherein the first plane (Z1) includes a straight line parallel to the first axis direction, wherein the second plane (Z2) includes a straight line parallel to the second axis direction, and wherein the first plane (Z1) and the second plane (Z2) include a straight line passing through a highest point of the convex structure or a lowest point of the concave structure among normal lines on one surface of the substrate layer . a substrate layer including a convex structure or a concave structure arranged two-dimensionally; and an inorganic material layer provided on the substrate layer , wherein the two-dimensionally-arranged structure is arranged in a first axis direction and a second axis direction forming an angle of greater than or equal to 1 degree and less than or equal to 175 degrees in a clockwise direction with the first axis direction, characterised in that each of a cross-section cutting the convex structure or the concave structure in a first plane (Z1), and a cross-section cutting the convex structure or the concave structure in a second plane (Z2) has an asymmetric structure, wherein the first plane (Z1) includes a straight line parallel to the first axis direction, wherein the second plane (Z2) includes a straight line parallel to the second axis direction, and wherein the first plane (Z1) and the second plane (Z2) include a straight line passing through a highest point of the convex structure or a lowest point of the concave structure among normal lines on one surface of the substrate layer .
A method for optimizing the updating of connected objects (IoT1, loT2, loT3) in a connected object infrastructure comprising a plurality of connection gateways (GW1, GW2) for connecting to data transport sub-networks that may have different communication standards, said connected object infrastructure comprising at least one requesting connected object (IoT1, loT2, loT3) configured to access at least one gateway of the plurality of connection gateways and at least one application module installed on said requesting connected object; characterized in that the method for optimizing the updating of connected objects comprises the following steps implemented by the application module of said requesting connected object: - a step of monitoring network data, comprising the establishment of a communication repository, - a step of monitoring user usage data, comprising the establishment of a user usage repository of the requesting connected object, - a step of monitoring third-party usage data, comprising the establishment of a third-party usage repository of the requesting connected object, - a step of analyzing the network data, said analysis comprising the identification of available communication time periods based on the communication repository, - a step of analyzing the user usage data, said analysis comprising the identification of available user usage time periods of the requesting connected object based on the user usage repository, - a step of analyzing the third-party usage data, said analysis comprising the identification of available third-party usage time periods of the requesting connected object based on the third-party usage repository, and - a step of determining at least one update schedule for the requesting connected object based on the available communication time periods, the available user usage time periods, the available third-party usage time periods. - a step of monitoring network data, comprising the establishment of a communication repository, - a step of monitoring user usage data, comprising the establishment of a user usage repository of the requesting connected object, - a step of monitoring third-party usage data, comprising the establishment of a third-party usage repository of the requesting connected object, - a step of analyzing the network data, said analysis comprising the identification of available communication time periods based on the communication repository, - a step of analyzing the user usage data, said analysis comprising the identification of available user usage time periods of the requesting connected object based on the user usage repository, - a step of analyzing the third-party usage data, said analysis comprising the identification of available third-party usage time periods of the requesting connected object based on the third-party usage repository, and - a step of determining at least one update schedule for the requesting connected object based on the available communication time periods, the available user usage time periods, the available third-party usage time periods.
A method for adjusting an ejection position of an auxiliary nozzle in an air jet loom which includes a plurality of auxiliary nozzles including a plurality of sub-nozzles arranged along a weft insertion path and which performs a weaving operation that involves a change in a weaving condition, during a weaving operation, based on a plurality of preset weaving conditions, the method including the step of setting at least one of the auxiliary nozzles as an adjustment target and allowing an ejection position of the auxiliary nozzle set as the adjustment target to be adjusted by an actuator (M1, M2), the method characterized by comprising the steps of: setting a database in advance, the database including a set value of the ejection position corresponding to each of the preset weaving conditions, the set value being set in association with each of the set_weaving conditions; and selecting, in response to the change in the weaving condition during the weaving operation, the set value corresponding to the weaving condition after the change from the database and driving the actuator (M1, M2) in accordance with the selected set value, and adjusting the ejection position of the auxiliary nozzle set as the adjustment target. setting a database in advance, the database including a set value of the ejection position corresponding to each of the preset weaving conditions, the set value being set in association with each of the set_weaving conditions; and selecting, in response to the change in the weaving condition during the weaving operation, the set value corresponding to the weaving condition after the change from the database and driving the actuator (M1, M2) in accordance with the selected set value, and adjusting the ejection position of the auxiliary nozzle set as the adjustment target.
Gathering and stitching machine for printed products, which has at least the subassemblies of gathering chain , stitching machine , control device , ejector and deliverer , wherein the deliverer has at least a lower transport belt and an upper transport belt and at least one deflection roller for the lower transport belt , wherein the at least one deflection roller is arranged in a radius, characterized in that the lower transport belt has an individual controllable drive and the upper transport belt has an individual controllable drive , and the control device at least controls the individual drives separately, wherein the control, which is accurate to a cycle, is tunable primarily to the thickness or the format of the respective printed product in the product flow.
A set of primers and probes for the detection of mutations c.-124 C>T and c.-146 C>T in the promoter of the gene hTERT characterized by comprising the primers with SEQ ID NO: 1 and SEQ ID NO: 2 and the probes with SEQ ID NO: 3, SEQ ID NO: 4, SEQ ID NO: 5 and SEQ ID NO: 6.
Corded tool, in particular vacuum cleaner, having an electrical connection part that can be switched between a locking position and a release position, wherein the tool forms an undercut for a plug connector that is connected to the connection part in the locking position, and the connection part is mounted such that it can rotate about an axis of rotation (R), and characterized in that the connection part executes a pivoting movement between the release position and the locking position.
A semiconductor device , comprising: a substrate layer ; an epitaxial layer adjacent to the substrate layer; a first trench structure having a bottom and sidewalls, the first trench structure formed in the epitaxial layer, wherein the first trench structure further comprises filler material in electrical contact with and connecting to a source electrode ; and an oxide layer that lines the bottom and the sidewalls, the oxide layer having a non-uniform thickness along the sidewalls, wherein the thickness (x1) of the oxide layer at a first distance (d1) from the bottom is less than the thickness of the oxide layer at the bottom, wherein the thickness (x2) of the oxide layer at a second distance (d2) from the bottom, greater than the first distance, is less than the thickness of the oxide layer at the first distance, wherein the epitaxial layer has a non-uniform dopant concentration, wherein the non-uniform dopant concentration varies according to the thickness of the oxide layer adjacent thereto, whereby a region of the epitaxial layer at the bottom has a first dopant concentration, wherein a region of the epitaxial layer at a depth corresponding to the first distance has a second dopant concentration, and wherein a region of the epitaxial layer at a depth corresponding to the second distance has a third dopant concentration, and wherein the third dopant concentration is greater than the second dopant concentration, and the second dopant concentration is greater than the first dopant concentration. a substrate layer ; an epitaxial layer adjacent to the substrate layer; a first trench structure having a bottom and sidewalls, the first trench structure formed in the epitaxial layer, wherein the first trench structure further comprises filler material in electrical contact with and connecting to a source electrode ; and an oxide layer that lines the bottom and the sidewalls, the oxide layer having a non-uniform thickness along the sidewalls, wherein the thickness (x1) of the oxide layer at a first distance (d1) from the bottom is less than the thickness of the oxide layer at the bottom, wherein the thickness (x2) of the oxide layer at a second distance (d2) from the bottom, greater than the first distance, is less than the thickness of the oxide layer at the first distance, wherein the epitaxial layer has a non-uniform dopant concentration, wherein the non-uniform dopant concentration varies according to the thickness of the oxide layer adjacent thereto, whereby a region of the epitaxial layer at the bottom has a first dopant concentration, wherein a region of the epitaxial layer at a depth corresponding to the first distance has a second dopant concentration, and wherein a region of the epitaxial layer at a depth corresponding to the second distance has a third dopant concentration, and wherein the third dopant concentration is greater than the second dopant concentration, and the second dopant concentration is greater than the first dopant concentration.
A nucleotide composition for use in a method of promoting reparation of enterocytes after damage caused by oxidation, wherein on the weight basis, the composition consists of CMP, AMP, UMP and GMP, and the proportions of the components are CMP: 58-72%, AMP: 6-14%, UMP: 10-18% and GMP: 8-14%, provided that sum of the components is 100%, wherein the method involves administering the nucleotide composition to a subject.
An insert for use in a sandwich-type structure , the sandwich-type structure including face sheets attached to a core , the insert comprising: an upper element comprising: an outer flange ; a central portion having a wall extending from the outer flange , the wall defining an exterior surface and an interior surface; and an aperture extending through the outer flange and the central portion ; and a lower element configured for sliding engagement with the upper element, the lower element comprising: an outer flange ; a central portion ; and an aperture extending through the outer flange and the central portion , the aperture of the lower element being in communication with the aperture of the upper element in an axial direction (A), the insert being characterized in that the central portion of the lower element defining an extension having a plurality of resilient beams , wherein when the lower element is slid into engagement with the upper element within the sandwich-type structure, the plurality of resilient beams are elastically deflected by at least one of the exterior surface and the interior surface of the wall of the upper element such that the insert can be positioned properly in the axial direction to accommodate sandwich-type structures of varying thickness. an upper element comprising: an outer flange ; a central portion having a wall extending from the outer flange , the wall defining an exterior surface and an interior surface; and an aperture extending through the outer flange and the central portion ; and an outer flange ; a central portion having a wall extending from the outer flange , the wall defining an exterior surface and an interior surface; and an aperture extending through the outer flange and the central portion ; and a lower element configured for sliding engagement with the upper element, the lower element comprising: an outer flange ; a central portion ; and an aperture extending through the outer flange and the central portion , the aperture of the lower element being in communication with the aperture of the upper element in an axial direction (A), an outer flange ; a central portion ; and an aperture extending through the outer flange and the central portion , the aperture of the lower element being in communication with the aperture of the upper element in an axial direction (A),
A method for wireless communication performed by a node B', NB, comprising: transmitting a first one or more directional beams to enable a user equipment', UE, to select a first beam from the first one or more directional beams; receiving a message via the first beam from the UE as part of a random access channel, RACH, procedure; and characterized by transmitting a second one or more directional beams for beam refinement during the RACH procedure, wherein the second one or more directional beams are configured to enable the UE to make a determination for switching to a second beam, which is arranged to be a narrower beam within the first beam. transmitting a first one or more directional beams to enable a user equipment', UE, to select a first beam from the first one or more directional beams; receiving a message via the first beam from the UE as part of a random access channel, RACH, procedure; and characterized by transmitting a second one or more directional beams for beam refinement during the RACH procedure, wherein the second one or more directional beams are configured to enable the UE to make a determination for switching to a second beam, which is arranged to be a narrower beam within the first beam.
A fluid processing system comprising: a disposable fluid circuit comprising: a separation chamber; and a flow control cassette comprising a housing containing a plurality of separate channels connected to a plurality of selectable junctions (320-329), at least one interface sensor chamber (330-334) in fluid communication with at least one of the plurality of separate channels, the at least one interface sensor chamber defined at least in part by a wall , and at least one capacitive sensor disposed on the wall of the at least one interface sensor chamber; and reusable hardware configured to accept the disposable fluid circuit and comprising: a separator connected to the separation chamber; a control cassette interface having at least one actuator for each of the selectable junctions and a coupling connected to the at least one capacitive sensor ; and at least one controller coupled to the separator , the at least one actuator and the capacitive sensor via the coupling, the controller configured to selectively operate the separator and the at least one actuator to provide a procedure according to a protocol. a disposable fluid circuit comprising: a separation chamber; and a flow control cassette comprising a housing containing a plurality of separate channels connected to a plurality of selectable junctions (320-329), at least one interface sensor chamber (330-334) in fluid communication with at least one of the plurality of separate channels, the at least one interface sensor chamber defined at least in part by a wall , and at least one capacitive sensor disposed on the wall of the at least one interface sensor chamber; and a separation chamber; and a flow control cassette comprising a housing containing a plurality of separate channels connected to a plurality of selectable junctions (320-329), at least one interface sensor chamber (330-334) in fluid communication with at least one of the plurality of separate channels, the at least one interface sensor chamber defined at least in part by a wall , and at least one capacitive sensor disposed on the wall of the at least one interface sensor chamber; and reusable hardware configured to accept the disposable fluid circuit and comprising: a separator connected to the separation chamber; a control cassette interface having at least one actuator for each of the selectable junctions and a coupling connected to the at least one capacitive sensor ; and at least one controller coupled to the separator , the at least one actuator and the capacitive sensor via the coupling, the controller configured to selectively operate the separator and the at least one actuator to provide a procedure according to a protocol. a separator connected to the separation chamber; a control cassette interface having at least one actuator for each of the selectable junctions and a coupling connected to the at least one capacitive sensor ; and at least one controller coupled to the separator , the at least one actuator and the capacitive sensor via the coupling, the controller configured to selectively operate the separator and the at least one actuator to provide a procedure according to a protocol.