mhurhangee/patent-ind-claim-en huggingface dataset:
A method of providing a feedback data indicating quality of food processing performed by an operator, comprising: • acquiring at least one image data of a processed food product from an operator, • processing the acquired image data , the processing including: o detecting whether undesired objects are present in the processed food product, o obtaining, in case undesired objects are detected, position data of the undesired objects within the processed food product, • utilizing the position data in issuing a feedback indicator indicating a position where said detected undesired objects are present within the food product processed by said operator, characterized in that in case undesired objects are detected in a subsequent processed food product processed by said operator, where the undesired objects are positioned within the same or similar position as for said processed food product, an intensifier is triggered indicating an increase in magnitude of said feedback indicator. • acquiring at least one image data of a processed food product from an operator, • processing the acquired image data , the processing including: o detecting whether undesired objects are present in the processed food product, o obtaining, in case undesired objects are detected, position data of the undesired objects within the processed food product, o detecting whether undesired objects are present in the processed food product, o obtaining, in case undesired objects are detected, position data of the undesired objects within the processed food product, • utilizing the position data in issuing a feedback indicator indicating a position where said detected undesired objects are present within the food product processed by said operator,
A base fabric (B) for a papermaking felt wherein seam loops (L) are formed by MD yarns , which is made from MD yarns of the felt running direction (MD) and CD yarns of the felt cross-direction (CD), wherein the seam loops (L) are obtained by removing CD yarns from a part other than the CD yarn no-removal part of a woven fabric comprising a seam loop region having the CD yarn no-removal part , and by moving CD yarns of the CD yarn no-removal part and CD yarns from between the CD yarn no-removal part and the part in which the CD yarns have been removed in the direction of the part in which the CD yarns have been removed, wherein the CD yarn no-removal part comprises a part that is to become the top part of the seam loops (L), and the length of the CD yarn no-removal part in the felt running direction (MD) is equal to or shorter than the length of the seam loop region in the felt running direction (MD), and wherein the strength of the MD yarns of the part in which the CD yarns have been removed is lower than the strength of the MD yarns of the CD yarn no-removal part .
A method for analyzing a streaming media session between at least two communicating entities , wherein at least one media stream comprising at least two packets is communicated between the at least two communicating entities during the streaming media session, wherein the communicating entity sources and/or sinks the at least one media stream, the method comprising: (a) configuring at least two monitoring entities to record a plurality of observations pertaining to at least one of: the at least one media stream, the at least two packets, devices associated with at least one of the at least two communicating entities, wherein the at least two monitoring entities comprise the at least two communicating entities or at least one network entity forwarding the at least one media stream between the at least two communicating entities; (b) receiving, from the at least two monitoring entities, the plurality of observations; (c) processing the plurality of observations to obtain a plurality of pre-processed observations; (d) analyzing the plurality of pre-processed observations to determine a session quality; and (e) sending at least one notification to at least one of the at least two monitoring entities, if the session quality satisfies at least one quality criterion, wherein the at least one notification is sent during the streaming media session. (a) configuring at least two monitoring entities to record a plurality of observations pertaining to at least one of: the at least one media stream, the at least two packets, devices associated with at least one of the at least two communicating entities, wherein the at least two monitoring entities comprise the at least two communicating entities or at least one network entity forwarding the at least one media stream between the at least two communicating entities; (b) receiving, from the at least two monitoring entities, the plurality of observations; (c) processing the plurality of observations to obtain a plurality of pre-processed observations; (d) analyzing the plurality of pre-processed observations to determine a session quality; and (e) sending at least one notification to at least one of the at least two monitoring entities, if the session quality satisfies at least one quality criterion, wherein the at least one notification is sent during the streaming media session.
A radar transponder arrangement for generating emulated radar target signals, wherein the radar transponder arrangement comprises: a receiving unit for receiving a radar signal, a signal generator for generating a control signal (m'(t)) for the generation of a modulation signal for modulating the received radar signal, a transmitting unit for returning the modulated signal, wherein the modulation signal can be predetermined in a multivalued manner in its temporal signal profile, wherein the signal generator uses the modulation of a static target and in addition a frequency change ( R i ( t )) over time for a moving target ( i ), wherein this is an affine linear function for targets with constant motion and a non-linear function for accelerated targets. a receiving unit for receiving a radar signal, a signal generator for generating a control signal (m'(t)) for the generation of a modulation signal for modulating the received radar signal, a transmitting unit for returning the modulated signal, wherein the modulation signal can be predetermined in a multivalued manner in its temporal signal profile, wherein the signal generator uses the modulation of a static target and in addition a frequency change ( R i ( t )) over time for a moving target ( i ), wherein this is an affine linear function for targets with constant motion and a non-linear function for accelerated targets.
Method for detecting a standstill of a vehicle , wherein the method comprises the following steps: filtering an acceleration value (ax) in a first axis (x) of the vehicle and filtering a rotational speed value (ωy) about a second axis (y) of the vehicle that is oriented orthogonally to the axis (x) using a filter specification to obtain a filtered acceleration value (axf) and a filtered rotational speed value (ωyf); normalizing the filtered acceleration value (axf) and the filtered rotational speed value (ωyf) using a normalizing specification to obtain a normalized acceleration value (axn) and a normalized rotational speed value (ωyn); and observing the normalized acceleration value (axn) and the normalized rotational speed value (ωyn) using an observation specification to detect the standstill, characterized in that the standstill is detected if a sum of the normalized acceleration value (axn) and the normalized rotational speed value (ωyn) is less than a standstill value. filtering an acceleration value (ax) in a first axis (x) of the vehicle and filtering a rotational speed value (ωy) about a second axis (y) of the vehicle that is oriented orthogonally to the axis (x) using a filter specification to obtain a filtered acceleration value (axf) and a filtered rotational speed value (ωyf); normalizing the filtered acceleration value (axf) and the filtered rotational speed value (ωyf) using a normalizing specification to obtain a normalized acceleration value (axn) and a normalized rotational speed value (ωyn); and observing the normalized acceleration value (axn) and the normalized rotational speed value (ωyn) using an observation specification to detect the standstill, characterized in that the standstill is detected if a sum of the normalized acceleration value (axn) and the normalized rotational speed value (ωyn) is less than a standstill value.
Process of manufacturing a three-dimensional object by - depositing and solidifying molten polyvinyl alcohol (PVOH) to form a support structure - depositing and solidifying a molten thermoplastic polymer on the support structure to form a three-dimensional preform characterized in that the support structure consists of a mixture of at least 50 % by weight of polyvinyl alcohol (PVOH) having a degree of hydrolysis DH of 70 to 99% and at most 50 % by weight of at least one polymer selected from the group consisting of polyvinyl butyral, polylactid acid, ethylene-vinylalcohol-vinylacetate terpolymer, vinyl acetate-vinyl pyrrolidone copolymer, acrylonitrile-butadiene-styrene terpolymer, polycaprolactone, vinyl acetate-vinyl caprolactame copolymer and polyvinyl alcohol (PVOH) having a degree of hydrolysis DH of 30-65%, and optionally up to 20% by weight of one or more plasticizers. - depositing and solidifying molten polyvinyl alcohol (PVOH) to form a support structure - depositing and solidifying a molten thermoplastic polymer on the support structure to form a three-dimensional preform
Apparatus for inspecting an object in the field of material testing, comprising: an emitter comprises a plurality of emitter units configured for emitting ultrasound waves towards a measuring area and a receiver comprises a plurality of receiver units configured for receiving ultrasound waves from the measuring area , wherein the emitter units and the receiver units are arranged relative to the measuring area according to a specific geometrical pattern enclosing the measuring area , wherein the plurality of emitter units are configured to emit ultrasound waves from different positions relative to the measuring area , and wherein the plurality of receiver units are configured to receive ultrasound waves at different positions relative to the measuring area , wherein at least some receiver units at some of the different positions are configured to receive only transmitted ultrasound waves, and an evaluator configured to receive and evaluate signals from the receiver , wherein the signals from the receiver are based on transmitted ultrasound waves received by the receiver . an emitter comprises a plurality of emitter units configured for emitting ultrasound waves towards a measuring area and a receiver comprises a plurality of receiver units configured for receiving ultrasound waves from the measuring area , wherein the emitter units and the receiver units are arranged relative to the measuring area according to a specific geometrical pattern enclosing the measuring area , wherein the plurality of emitter units are configured to emit ultrasound waves from different positions relative to the measuring area , and wherein the plurality of receiver units are configured to receive ultrasound waves at different positions relative to the measuring area , wherein at least some receiver units at some of the different positions are configured to receive only transmitted ultrasound waves, and wherein the emitter units and the receiver units are arranged relative to the measuring area according to a specific geometrical pattern enclosing the measuring area , wherein the plurality of emitter units are configured to emit ultrasound waves from different positions relative to the measuring area , and wherein the plurality of receiver units are configured to receive ultrasound waves at different positions relative to the measuring area , wherein at least some receiver units at some of the different positions are configured to receive only transmitted ultrasound waves, and an evaluator configured to receive and evaluate signals from the receiver , wherein the signals from the receiver are based on transmitted ultrasound waves received by the receiver .
A Parkinson's disease diagnosing apparatus , comprising: an image acquiring unit which acquires a multi-echo magnitude and phase image from an MRI obtained by capturing a brain of a patient; an image processing unit which post-processes the acquired image so as to observe only a substantia nigra and a nigrosome-1 region proposed as imaging biomarkers of the Parkinson's disease; an image analyzing unit which analyzes the processed image to classify an image including the nigrosome-1 region and detects the nigrosome-1 region from the classified image; and a diagnosing unit which diagnoses whether the patient has the Parkinson's disease by determining whether the nigrosome-1 region is normal in each of the classified images, wherein the image processing unit applies a quantitative susceptibility map mask to the image acquired in the image acquiring unit based on a quantitative susceptibility mapping algorithm for visualizing the nigrosome-1 region, and wherein the diagnosing unit diagnoses whether the patient has the Parkinson's disease by analyzing whether the nigrosome-1 region detected in the analyzing unit is normal through machine learning. an image acquiring unit which acquires a multi-echo magnitude and phase image from an MRI obtained by capturing a brain of a patient; an image processing unit which post-processes the acquired image so as to observe only a substantia nigra and a nigrosome-1 region proposed as imaging biomarkers of the Parkinson's disease; an image analyzing unit which analyzes the processed image to classify an image including the nigrosome-1 region and detects the nigrosome-1 region from the classified image; and a diagnosing unit which diagnoses whether the patient has the Parkinson's disease by determining whether the nigrosome-1 region is normal in each of the classified images, wherein the image processing unit applies a quantitative susceptibility map mask to the image acquired in the image acquiring unit based on a quantitative susceptibility mapping algorithm for visualizing the nigrosome-1 region, and wherein the diagnosing unit diagnoses whether the patient has the Parkinson's disease by analyzing whether the nigrosome-1 region detected in the analyzing unit is normal through machine learning.
A ventilation assembly for use in ventilation of a subject (P) using a laryngeal mask , the assembly comprising a head-wearable harness and a pusher , wherein the harness is wearable on a subject's head (H) for supporting the pusher to press against the floor of the mouth of the subject (P), characterised in that the pusher is arranged, in use and operably supported by the harness on the subject (P), to provide local elevated pressure in cranial direction between lateral sides of the mandible to soft tissue of the floor of the mouth and to displace soft tissue of the floor of the mouth in cranial direction relative to the mandible of the subject for, when the laryngeal mask is installed in the airway of the subject, urging internal soft tissue of the subject against the laryngeal mask in the airway of the subject as a seal to the mask. wherein the harness is wearable on a subject's head (H) for supporting the pusher to press against the floor of the mouth of the subject (P), characterised in that the pusher is arranged, in use and operably supported by the harness on the subject (P), to provide local elevated pressure in cranial direction between lateral sides of the mandible to soft tissue of the floor of the mouth and to displace soft tissue of the floor of the mouth in cranial direction relative to the mandible of the subject for, when the laryngeal mask is installed in the airway of the subject, urging internal soft tissue of the subject against the laryngeal mask in the airway of the subject as a seal to the mask.
Pressure regulation valve (A) for an air treatment system of a utility vehicle, with a housing , with at least one compressed-air connection and with at least one first pressure regulation chamber into which the pressure connection opens, wherein the pressure regulation chamber has a variable volume delimited by at least one wall section of the housing and by a first pneumatically effective surface of a pressure regulation piston that is guided and can move in the housing , and furthermore wherein a first regulation channel is provided, which in at least one first position of the pressure regulation piston is not connected to the pressure regulation chamber and in at least one second position of the pressure regulation piston is connected to the pressure regulation chamber , wherein the pressure regulation piston also comprises a peg which protrudes out of the said first pneumatically effective surface of the pressure regulation piston and at the end of which there is a second pneumatically effective surface , such that the peg extends through the said wall section in a pneumatically sealed manner .
Method for the machining of a threaded hole in a workpiece with a threaded bore tool which has on its drill tip a main cutting edge and a threaded profile pursuing in a threaded bore direction (I) having at least one threaded cutting tooth , wherein in a threaded bore stroke (G) the main cutting edge machines a core drill hole and simultaneously the threaded profile forms an inner threading on the inner wall of the core drill hole until it reaches a target threading depth (t G ), specifically with a threaded bore feed (f G ) in the threaded bore direction (I) and a threaded bore rotational speed (n G ), synchronised therewith, of the threaded bore tool , wherein after the threaded bore (G) there takes place a reverse (R) in the opposite direction, in which the threaded bore tool is guided in a reverse direction (II) out of the threaded bore, specifically with a reverse feed (f R ) in the opposite direction, characterised in that the threaded profile has at least one broach cutting edge and that when the reverse stroke (R) is carried out a broach groove (R1 to R4) is produced by means of the broach cutting edge , through which the threaded cutting tooth is guided out of the threaded bore in a load-free manner, i.e. without removing material, that between the threaded bore stroke (G) and the reverse stroke (R) is carried out a groove forming step in which the threaded bore stroke (G) is extended in the threaded bore direction (I) by a groove forming stroke (N), specifically in order to form a circumferential groove abutting on the inner threading without thread pitch, in which the threaded profile can turn without feed in a load-free manner, and that in the groove forming step the threaded bore tool is moved in the threaded bore direction (I) beyond the target threading depth (t G ) until it reaches a target bore depth (t B ), specifically with a groove forming feed (f N ) and a groove forming rotational speed (n N ) which are not synchronised with one another and/or are different to the threaded bore feed (f G ) and to the threaded bore rotational speed (n G ).
A gas turbine engine component comprising: a conformal surface ; an array of resistance temperature detector (RTD) sensors (114; 402; 500) disposed across at least a portion of the conformal surface ; and a plurality of printed circuit traces (117; 422, 424, 426, 428; 510, 520) deposited on said conformal surface and connecting each of said RTD sensors (114...500) to a controller : characterised in that the plurality of printed circuit traces (117; 422, 424, 426, 428; 510, 520) connect each of said RTD sensors (114...500) to the controller via a corresponding four wire circuit , wherein each circuit trace (117...520) in said plurality of circuit traces (117...520) extends to or towards a circumferential edge of said conformal surface . a conformal surface ; an array of resistance temperature detector (RTD) sensors (114; 402; 500) disposed across at least a portion of the conformal surface ; and a plurality of printed circuit traces (117; 422, 424, 426, 428; 510, 520) deposited on said conformal surface and connecting each of said RTD sensors (114...500) to a controller : characterised in that the plurality of printed circuit traces (117; 422, 424, 426, 428; 510, 520) connect each of said RTD sensors (114...500) to the controller via a corresponding four wire circuit , wherein each circuit trace (117...520) in said plurality of circuit traces (117...520) extends to or towards a circumferential edge of said conformal surface .
A method, performed by one or more computers, of improving speech quality on a data communications network, the method comprising, at a communications node of the data communications network: receiving and decoding an encoded audio signal as part of a communication session to obtain a low-resolution version of an audio data input, the low-resolution version of the input comprising a first number of samples of an audio waveform at a first sample rate over a first time period, wherein the audio data is an utterance and the low-resolution version of the input is a low-resolution speech signal of the utterance received over the data communications network; and generating, from the low-resolution version of the input, a high-resolution version of the input comprising a second, larger number of samples at a second, higher sample rate over the first time period, wherein the high-resolution version of the input comprises an audio waveform of a high-resolution speech signal of the utterance at the second sample rate, the generating comprising: generating a representation of the low-resolution version of the input; processing the representation of the low-resolution version of the input through a conditioning neural network to generate a conditioning input; and processing the conditioning input using a generative neural network to generate the high-resolution version of the input. receiving and decoding an encoded audio signal as part of a communication session to obtain a low-resolution version of an audio data input, the low-resolution version of the input comprising a first number of samples of an audio waveform at a first sample rate over a first time period, wherein the audio data is an utterance and the low-resolution version of the input is a low-resolution speech signal of the utterance received over the data communications network; and generating, from the low-resolution version of the input, a high-resolution version of the input comprising a second, larger number of samples at a second, higher sample rate over the first time period, wherein the high-resolution version of the input comprises an audio waveform of a high-resolution speech signal of the utterance at the second sample rate, the generating comprising: generating a representation of the low-resolution version of the input; processing the representation of the low-resolution version of the input through a conditioning neural network to generate a conditioning input; and processing the conditioning input using a generative neural network to generate the high-resolution version of the input. generating a representation of the low-resolution version of the input; processing the representation of the low-resolution version of the input through a conditioning neural network to generate a conditioning input; and processing the conditioning input using a generative neural network to generate the high-resolution version of the input.
Valve cartridge having a valve and a head piece , which is centrally penetrated by a spindle , which is rotatably and axially displaceably held in the head piece and which has an axial through-bore for the passage of water, wherein the valve can be actuated by the spindle , by means of which valve the flow of water through the through-bore can be controlled and wherein the spindle has a coupling section with a non-circular cross-section outside the head piece .