mhurhangee/patent-ind-claim-en huggingface dataset:
An image processing program that causes a computer to execute processing of: specifying a damaged portion by analyzing a captured image of a construction; and predicting, in the captured image, a range to which damage spreads based on the specified damaged portion and design data associated with the construction, wherein the construction is a pavement surface of a road, a bridge or a tunnel, wherein the image processing program causes a computer to execute processing of predicting the range to which the damage spreads according to a degree of overlap between the damaged portion and a member constituting the construction included in the design data, wherein the member is a material as a reinforcing bar or a steel frame which is susceptible to deterioration or corrosion when exposed to water or wind or rain and whose shape can be changed by the corrosion, wherein the degree of overlap is determined by superimposing the captured image with the damaged portion, with members visible at a depth within a predetermined distance from the surface of the concrete when the surface of the concrete including the damage is seen through from the image capturing direction of the input image. specifying a damaged portion by analyzing a captured image of a construction; and predicting, in the captured image, a range to which damage spreads based on the specified damaged portion and design data associated with the construction, wherein the construction is a pavement surface of a road, a bridge or a tunnel, wherein the image processing program causes a computer to execute processing of predicting the range to which the damage spreads according to a degree of overlap between the damaged portion and a member constituting the construction included in the design data, wherein the member is a material as a reinforcing bar or a steel frame which is susceptible to deterioration or corrosion when exposed to water or wind or rain and whose shape can be changed by the corrosion, wherein the degree of overlap is determined by superimposing the captured image with the damaged portion, with members visible at a depth within a predetermined distance from the surface of the concrete when the surface of the concrete including the damage is seen through from the image capturing direction of the input image.
A near-hermetically protected optical subassembly comprising - a photonic integrated circuit , PIC, having a first optical waveguide ; - an external optical system having a second optical waveguide ; and - an optical interface that is arranged between the PIC and the external optical system for optical communication between the first optical waveguide and the second optical waveguide , - a material at least partially filling said optical interface while covering at least the first optical waveguide and the second optical waveguide for establishing a protected optical path between the PIC and the external optical system ; and - a further material being in contact with at least the material for sealing at least said material ; wherein the further material comprises a conformal moisture protection barrier; that is arranged outside the optical path. - a photonic integrated circuit , PIC, having a first optical waveguide ; - an external optical system having a second optical waveguide ; and - an optical interface that is arranged between the PIC and the external optical system for optical communication between the first optical waveguide and the second optical waveguide , - a material at least partially filling said optical interface while covering at least the first optical waveguide and the second optical waveguide for establishing a protected optical path between the PIC and the external optical system ; and - a further material being in contact with at least the material for sealing at least said material ; wherein the further material comprises a conformal moisture protection barrier; that is arranged outside the optical path.
A method for adhering water soluble polymer films by applying to at least one of the films a solution comprising: (a) 70 to 90 wt% water, (b) 10 to 30 wt% isopropanol, and (c) 0 to 5 wt% polyvalent metal salts; wherein the water soluble polymer films are acrylic polymers; wherein the acrylic polymers comprise: 50 to 90 wt% polymerized units of C 1-10 alkyl (meth)acrylate monomers; 10 to 50 wt% polymerized units of C 3-8 monoethylenically unsaturated carboxylic acid monomers; and 0 to 25 wt% polymerized units of C 2-4 hydroxyalkyl (meth)acrylate monomers. 50 to 90 wt% polymerized units of C 1-10 alkyl (meth)acrylate monomers; 10 to 50 wt% polymerized units of C 3-8 monoethylenically unsaturated carboxylic acid monomers; and 0 to 25 wt% polymerized units of C 2-4 hydroxyalkyl (meth)acrylate monomers.
A method for enabling training of a machine learning, ML, model, for monitoring a person based on a data feed capable of depicting a person, the method being performed by a training data provider comprising a processor ; and a memory storing instructions to be executed by the processor , the method comprising: obtaining a data feed capable of depicting the person; selecting a level of anonymisation, from a plurality of levels of anonymisation; anonymising the data feed according to the selected level of anonymisation, resulting in a processed data feed; transmitting the processed data feed as training data for training a central ML model in a central node; and receiving an indication to increase or reduce the level of anonymisation from the central node; and wherein the method is repeated, wherein the next iteration of the selecting is based on the indication to increase or reduce the level of anonymisation. obtaining a data feed capable of depicting the person; selecting a level of anonymisation, from a plurality of levels of anonymisation; anonymising the data feed according to the selected level of anonymisation, resulting in a processed data feed; transmitting the processed data feed as training data for training a central ML model in a central node; and receiving an indication to increase or reduce the level of anonymisation from the central node; and wherein the method is repeated, wherein the next iteration of the selecting is based on the indication to increase or reduce the level of anonymisation.
Method for detecting faults in an electrical energy storage system including at least one battery, the method including: • a step of applying a charge or discharge setpoint to the battery, aiming for a theoretical setpoint current I cons to pass through the battery; • a step of measuring the current I Bat passing through the battery during the application of said setpoint; the method being characterized in that it includes: • a step of calculating m × n mean errors ( e T j )(t i j )) 1≤ j ≤ m ,1≤ i ≤ n between the measured current I Bat and the theoretical setpoint current I cons in m × n time intervals ([t i j ,t i j +T j ]) 1≤ j ≤ m ,1≤ i ≤ n , respectively, where m and n are integers, n ≥ 2 and m ≥ 1, where for any value of j between 1 and m and for any value of i between 1 and n, t i+l j = t i j + Δ t j where Δ t j is a predetermined sampling interval and where, for any value of j between 1 and m, T j is a predetermined duration; • a step of calculating, for any value of j between 1 and m, e j = max i = 1 , ... , n e T j t i j ; • a step of incrementing a counter C j if e j exceeds a predetermined threshold in terms of absolute value or in terms of relative share; a fault being detected if C j exceeds a predetermined threshold. • a step of applying a charge or discharge setpoint to the battery, aiming for a theoretical setpoint current I cons to pass through the battery; • a step of measuring the current I Bat passing through the battery during the application of said setpoint; • a step of calculating m × n mean errors ( e T j )(t i j )) 1≤ j ≤ m ,1≤ i ≤ n between the measured current I Bat and the theoretical setpoint current I cons in m × n time intervals ([t i j ,t i j +T j ]) 1≤ j ≤ m ,1≤ i ≤ n , respectively, where m and n are integers, n ≥ 2 and m ≥ 1, where for any value of j between 1 and m and for any value of i between 1 and n, t i+l j = t i j + Δ t j where Δ t j is a predetermined sampling interval and where, for any value of j between 1 and m, T j is a predetermined duration; • a step of calculating, for any value of j between 1 and m, e j = max i = 1 , ... , n e T j t i j ; • a step of incrementing a counter C j if e j exceeds a predetermined threshold in terms of absolute value or in terms of relative share;
A cable processing machine system , comprising a cable processing machine for processing a cable , a cable storage means for receiving cables processed by the cable processing machine , and a removal trough , wherein the cable storage means is designed so as to be pivotable such that cables from the cable storage means reach the removal trough when the cable storage means is pivoted, characterized in that the removal trough comprises a movable exit conveyor belt for conveying the cables away from the cable processing machine to one end of the removal trough along a transport direction . a cable processing machine for processing a cable , a cable storage means for receiving cables processed by the cable processing machine , and a removal trough , wherein the cable storage means is designed so as to be pivotable such that cables from the cable storage means reach the removal trough when the cable storage means is pivoted, characterized in that the removal trough comprises a movable exit conveyor belt for conveying the cables away from the cable processing machine to one end of the removal trough along a transport direction .
Lead or chalk containing graphite, in which the graphite is bound in a polymer binding agent, characterised in that the binding agent is a mixture of polyolefin and polystyrene, wherein the ratio of polystyrene to polyolefin is between 1:1 and 1:3, characterised in that the lead contains a wax in a proportion of from 1% by weight to 40% by weight, and the wax is a paraffin wax and/or a polyolefin wax.
An additive manufacturing apparatus for an additive manufacturing process , the additive manufacturing apparatus comprising: a build chamber comprising a build plate to support one or more parts built with a powder , during a build operation ; a laser assembly operable to deliver a melting laser beam , to melt and fuse the powder used to build the one or more parts ; and a part detachment assembly , separate from the laser assembly and operable for a cutting operation , the part detachment assembly comprising: one or more laser beam delivery apparatuses , each operable to deliver a cutting laser beam ; characterized in that the part detachment assembly further comprises a part holder apparatus coupled to the one or more laser beam delivery apparatuses , wherein the part detachment assembly is operable to move, after the build operation , so that the part holder apparatus and the one or more laser beam delivery apparatuses are at a position adjacent to the one or more parts , wherein the part detachment assembly is configured such that, during the cutting operation , the part holder apparatus holds the one or more parts , and each of the one or more laser beam delivery apparatuses delivers the cutting laser beam , to detach the one or more parts from the build plate within the additive manufacturing apparatus . a build chamber comprising a build plate to support one or more parts built with a powder , during a build operation ; a laser assembly operable to deliver a melting laser beam , to melt and fuse the powder used to build the one or more parts ; and a part detachment assembly , separate from the laser assembly and operable for a cutting operation , the part detachment assembly comprising: one or more laser beam delivery apparatuses , each operable to deliver a cutting laser beam ; characterized in that the part detachment assembly further comprises a part holder apparatus coupled to the one or more laser beam delivery apparatuses , wherein the part detachment assembly is operable to move, after the build operation , so that the part holder apparatus and the one or more laser beam delivery apparatuses are at a position adjacent to the one or more parts , wherein the part detachment assembly is configured such that, during the cutting operation , the part holder apparatus holds the one or more parts , and each of the one or more laser beam delivery apparatuses delivers the cutting laser beam , to detach the one or more parts from the build plate within the additive manufacturing apparatus .
Ophthalmological implant having a main body and at least one ligand (L) immobilized on the main body , by means of which at least one fibrogen and/or cytokine is to be bound and/or deactivated when the ophthalmological implant has been implanted, wherein at least part of a surface of the main body has been coated with a layer system which comprises the immobilized ligand (L), wherein the layer system comprises at least two layers and wherein at least one of the layers comprises the immobilized ligand (L) and at least one of the other layers comprises a polymer from the group consisting of polyethylenimines, polyamines and polyallylamines.
A multichannel-based signal transmission apparatus , comprising: a processing unit , configured to: obtain N groups of lower-order modulation symbols; where each group of lower-order modulation symbols comprises M lower-order modulation symbols, M being a positive integer greater than 1; obtain N groups of higher-order modulation symbols, wherein an an i th high-order modulation symbol in an s th group of higher-order modulation symbols in the N groups of higher-order modulation symbols is a product of a row vector of an s th row in a matrix Q and an i th column vector, wherein s=1, 2, ..., N; wherein the i th column vector comprising an i th lower-order modulation symbol in each of the N groups of lower-order modulation symbols; wherein the value of N is 2, and the lower order modulation is a binary phase shift keying BPSK, and the higher-order modulation is a quadrature phase shift keying QPSK, wherein the matrix Q is Q = 1 2 1 j 1 − j ; determine N to-be-sent signals based on the N groups of higher-order modulation symbols; and a transmission unit , configured to send a k th to-be-sent signal in the N to-be-sent signals by using a k th channel in N channels, wherein k=1, 2, ..., N. obtain N groups of lower-order modulation symbols; where each group of lower-order modulation symbols comprises M lower-order modulation symbols, M being a positive integer greater than 1; obtain N groups of higher-order modulation symbols, wherein an an i th high-order modulation symbol in an s th group of higher-order modulation symbols in the N groups of higher-order modulation symbols is a product of a row vector of an s th row in a matrix Q and an i th column vector, wherein s=1, 2, ..., N; wherein the i th column vector comprising an i th lower-order modulation symbol in each of the N groups of lower-order modulation symbols; wherein the value of N is 2, and the lower order modulation is a binary phase shift keying BPSK, and the higher-order modulation is a quadrature phase shift keying QPSK, wherein the matrix Q is Q = 1 2 1 j 1 − j ; determine N to-be-sent signals based on the N groups of higher-order modulation symbols; and a transmission unit , configured to send a k th to-be-sent signal in the N to-be-sent signals by using a k th channel in N channels, wherein k=1, 2, ..., N.
An earbud for insertion into an ear canal , comprising: an elongated body comprising a first end , a second end , and a cavity that extends along a body axis between the first end and the second end of the elongated body ; a first flange connected to the elongated body and comprising a first end adjacent the first end of the elongated body , a second end , and a sound hole disposed in the first end of the first flange that is acoustically connected to the cavity of the elongated body , wherein the first flange further comprises a vent disposed through the first flange ; and a second flange connected to the second end of the elongated body and comprising a first end adjacent the second end of the elongated body and a second end , wherein the second flange is a continuous flange. an elongated body comprising a first end , a second end , and a cavity that extends along a body axis between the first end and the second end of the elongated body ; a first flange connected to the elongated body and comprising a first end adjacent the first end of the elongated body , a second end , and a sound hole disposed in the first end of the first flange that is acoustically connected to the cavity of the elongated body , wherein the first flange further comprises a vent disposed through the first flange ; and a second flange connected to the second end of the elongated body and comprising a first end adjacent the second end of the elongated body and a second end , wherein the second flange is a continuous flange.
A blood treatment machine, preferably of the dialysis machine type, comprising: a machine-internal hosing for the fluidic interconnection of a number of machine elements which are fixed to a machine housing and/or to racks supported in the machine housing; and at least one hose mount comprising a hose connection element as an inherent component of the machine-internal hosing, via which two hoses are fluidically firmly connected to each other and/or one hose is branched into two or more further hoses, wherein the hose connection element comprises at least two rigid sleeve portions integrally combined to form one rigid component and which are adapted to put a flexible hose radially outside over the free end of the at least two sleeve portions , wherein an axial stop is formed or arranged on the outer circumference of at least one of the sleeve portions at a distance from the free end thereof, characterized by a collar which is flexible as compared to the rigid sleeve portion and is arranged or formed on the sleeve portion toward the free end with an axial distance from the axial stop in order to define an external circumferential groove between itself and the axial stop , wherein the collar has a dowel shape such that the sleeve portion of the hose connection element equipped with the collar can be plugged from one side into a receiving hole of a housing wall or of a holding bracket mounted thereto, and the collar automatically and in resilient fashion spreads on the other side and in this way axially holds the housing wall or the holding bracket between itself and the axial stop .
An inspection system comprising an inspection object (W) and an inspection lighting device , wherein the inspection lighting device comprising an imaging device (C) for capturing an image of an inspection surface of the inspection object (W) based on an observation solid angle (OS) formed at each point of the inspection surface of the inspection object (W), comprising: a surface light source emitting an inspection light; a lens forming an irradiation solid angle (IS) for the inspection surface of the inspection object (W) from the inspection light; and a first shielding mask (M1) disposed between the surface light source and the lens to set a position thereof according to a focus position of the lens so that the irradiation solid angles (IS) formed at the plurality of points of the inspection surface of the inspection object (W) are identical, wherein the lighting device and the inspection surface of the inspection object (W) are disposed so that the irradiation solid angles (IS) formed by the inspection light emitted from the surface light source are formed at the inspection surface of the inspection object and at a different position where the surface light source is imaged through the lens , wherein the inspection surface of the inspection object is disposed at a different position where the surface light source is imaged through the lens . a surface light source emitting an inspection light; a lens forming an irradiation solid angle (IS) for the inspection surface of the inspection object (W) from the inspection light; and a first shielding mask (M1) disposed between the surface light source and the lens to set a position thereof according to a focus position of the lens so that the irradiation solid angles (IS) formed at the plurality of points of the inspection surface of the inspection object (W) are identical, wherein the lighting device and the inspection surface of the inspection object (W) are disposed so that the irradiation solid angles (IS) formed by the inspection light emitted from the surface light source are formed at the inspection surface of the inspection object and at a different position where the surface light source is imaged through the lens , wherein the inspection surface of the inspection object is disposed at a different position where the surface light source is imaged through the lens .
A SiC ceramic material, comprising a bundle of SiC continuous fibers in a porous SiC ceramic matrix, wherein a porosity of the porous SiC ceramic matrix is within a range from 15 to 80 %.
A method, comprising: receiving a trigger frame indicating an allocated resource unit, in the following also referred to as RU, of a first size ; and performing channel sensing responsive to receiving the trigger frame ; characterized by performing a trigger-based, in the following also referred to as TB, transmission with a downsized RU or multi-RU, in the following also referred to as MRU, of a second size smaller than the first size responsive to detecting at least one subchannel being busy from the channel sensing, wherein the performing of the TB transmission comprises: utilizing information of the downsized RU or MRU instead of RU allocation information indicated in the trigger frame in an encoding process to perform the TB transmission while maintaining a value of each of one or more parameters indicated in a common field or a user-specific field of the trigger frame unchanged in the encoding process , and wherein the utilizing of the information of the downsized RU or MRU comprises calculating a packet size of the TB transmission based on the second size of the downsized RU or MRU instead of using RU allocation information in a user field of the trigger frame, and the maintaining of the value of each of one or more parameters unchanged comprises maintaining a number of symbols (N sym ) and a packet extension unchanged in the encoding process. receiving a trigger frame indicating an allocated resource unit, in the following also referred to as RU, of a first size ; and performing channel sensing responsive to receiving the trigger frame ; characterized by performing a trigger-based, in the following also referred to as TB, transmission with a downsized RU or multi-RU, in the following also referred to as MRU, of a second size smaller than the first size responsive to detecting at least one subchannel being busy from the channel sensing, wherein the performing of the TB transmission comprises: utilizing information of the downsized RU or MRU instead of RU allocation information indicated in the trigger frame in an encoding process to perform the TB transmission while maintaining a value of each of one or more parameters indicated in a common field or a user-specific field of the trigger frame unchanged in the encoding process , and wherein the utilizing of the information of the downsized RU or MRU comprises calculating a packet size of the TB transmission based on the second size of the downsized RU or MRU instead of using RU allocation information in a user field of the trigger frame, and the maintaining of the value of each of one or more parameters unchanged comprises maintaining a number of symbols (N sym ) and a packet extension unchanged in the encoding process.