mhurhangee/patent-ind-claim-en huggingface dataset:
A system , comprising: a delivery device comprising a distal end , a proximal end , and a lumen extending from the distal end to the proximal end; an annular anchor removably coupleable to the distal end of the delivery device, the anchor implantable at a target site in a patient via manipulation of the delivery device, the delivery device extendable outside the patient when the anchor is implanted at the target site; and an implant deliverable through the delivery device to the target site and implantable through the annular anchor, wherein the delivery device coupled to the annular anchor controls a trajectory of delivery of the implant into the target site, wherein at least a portion of the circumference of the annular anchor comprises a chamfered lip extending inwardly from a proximal to a distal end of an annular portion of the annular anchor. a delivery device comprising a distal end , a proximal end , and a lumen extending from the distal end to the proximal end; an annular anchor removably coupleable to the distal end of the delivery device, the anchor implantable at a target site in a patient via manipulation of the delivery device, the delivery device extendable outside the patient when the anchor is implanted at the target site; and an implant deliverable through the delivery device to the target site and implantable through the annular anchor, wherein the delivery device coupled to the annular anchor controls a trajectory of delivery of the implant into the target site, wherein at least a portion of the circumference of the annular anchor comprises a chamfered lip extending inwardly from a proximal to a distal end of an annular portion of the annular anchor.
A method comprising: providing a three-dimensional printed object , the printed object being formed from a printing composition comprising a solidifiable matrix and a microwave absorber dispersed in the solidifiable matrix; and applying a focused input of microwave radiation to the printed object at one or more locations, thereby heating the microwave absorber at the one or more locations and promoting consolidation of the printing composition within the printed object , characterized in that the microwave absorber comprises a plurality of carbon nanostructures dispersed in the solidifiable matrix, the carbon nanostructures comprising a plurality of carbon nanotubes that are branched, crosslinked, and share common walls with one another, and in that the carbon nanostructures are free of a growth substrate and are in the form of a flake material. providing a three-dimensional printed object , the printed object being formed from a printing composition comprising a solidifiable matrix and a microwave absorber dispersed in the solidifiable matrix; and applying a focused input of microwave radiation to the printed object at one or more locations, thereby heating the microwave absorber at the one or more locations and promoting consolidation of the printing composition within the printed object , characterized in that the microwave absorber comprises a plurality of carbon nanostructures dispersed in the solidifiable matrix, the carbon nanostructures comprising a plurality of carbon nanotubes that are branched, crosslinked, and share common walls with one another, and in that the carbon nanostructures are free of a growth substrate and are in the form of a flake material.
A device for detecting a pressure anomaly in a fluid pipe, characterised in that it comprises a vibration detection module adapted to be fixed to said fluid pipe , said vibration detection module being configured to detect the presence of at least one vibration characteristic of a pressure anomaly in said pipe as a function of a pressure anomaly detection criterion, and, if said pressure anomaly detection criterion is verified, to send a wake-up signal enabling units of the detection device to switch from a first standby operating mode, with limited electrical energy consumption, to a second active operating mode, the device further comprising a processing unit comprising at least one calculation processor , wherein said wake-up signal is transmitted to said processing unit to switch said processing unit into the second active operating mode, said processing unit being configured so as, following said wake-up signal , to receive physical measurements from a sensor fixed to said pipe and to implement verification of the presence of a pressure anomaly as a function of said physical measurements, the calculation processor of the processing unit being configured to implement, in said second active operating mode, a module for receiving physical measurement values, a module for verifying the presence of a pressure anomaly as a function of the physical measurement values and a module for sending information on the presence of a pressure anomaly to external equipment . said vibration detection module being configured to detect the presence of at least one vibration characteristic of a pressure anomaly in said pipe as a function of a pressure anomaly detection criterion, and, if said pressure anomaly detection criterion is verified, to send a wake-up signal enabling units of the detection device to switch from a first standby operating mode, with limited electrical energy consumption, to a second active operating mode, the device further comprising a processing unit comprising at least one calculation processor , wherein said wake-up signal is transmitted to said processing unit to switch said processing unit into the second active operating mode, said processing unit being configured so as, following said wake-up signal , to receive physical measurements from a sensor fixed to said pipe and to implement verification of the presence of a pressure anomaly as a function of said physical measurements, the calculation processor of the processing unit being configured to implement, in said second active operating mode, a module for receiving physical measurement values, a module for verifying the presence of a pressure anomaly as a function of the physical measurement values and a module for sending information on the presence of a pressure anomaly to external equipment .
A diagnostic system for diagnosing faults in a railway point switch , the diagnostic system comprising: an input arranged to receive a waveform associated with operating the railway point switch during an event; a feature extraction module arranged to extract characteristic features representing a shape of the waveform ; and a classification module arranged to apply the extracted characteristic features to logic rules for classifying the features according to an operating behaviour of the railway point switch during the event, classify the operating behaviour of the railway point switch based on the application of the extracted characteristic features to the logic rules, and generate a signal indicating the classified operating behaviour, characterized in that the classification module includes a supervised machine learning algorithm for generating the logic rules for classifying the operating behaviour of the railway point switch , wherein the supervised machine learning algorithm comprises a Random Forrest. an input arranged to receive a waveform associated with operating the railway point switch during an event; a feature extraction module arranged to extract characteristic features representing a shape of the waveform ; and a classification module arranged to apply the extracted characteristic features to logic rules for classifying the features according to an operating behaviour of the railway point switch during the event, classify the operating behaviour of the railway point switch based on the application of the extracted characteristic features to the logic rules, and generate a signal indicating the classified operating behaviour, characterized in that the classification module includes a supervised machine learning algorithm for generating the logic rules for classifying the operating behaviour of the railway point switch , wherein the supervised machine learning algorithm comprises a Random Forrest.
A regulating device for an internal combustion engines having an intake pipe , an exhaust gas recirculation pipe that opens into said intake pipe , a housing in which said intake pipe and said exhaust gas recirculation pipe are formed, a shaft acting as an axis of rotation on which a regulating element is eccentrically mounted and which is arranged perpendicularly to the center lines of said intake pipe and of said exhaust gas recirculation pipe , wherein in a first end position, in which said intake pipe is at least throttled upstream of an opening of said exhaust gas recirculation pipe , a normal vector of a first surface of said regulating element points to the upstream side of said intake pipe , and in a second end position, in which said exhaust gas recirculation pipe is closed, a normal vector of a second surface of said regulating element points to said exhaust gas recirculation pipe , characterized in that on said second surface guide ribs are formed along which an exhaust gas flow flows into said intake pipe when said exhaust gas recirculation pipe is opened.
Electric motor , which comprises a stator ; which stator comprises slots , into which slots a concentrated winding is fitted; and which electric motor comprises a rotating rotor ; which rotor comprises permanent magnets placed consecutively in a ring in the direction of the rotational movement; wherein the ratio L M L P of the width (L M ) of a permanent magnet at the center line of the magnet and the width (L P ) of the magnetic pole of the rotor is at least 2/3 and at most 4/5 characterized in that the direction of at least one side of at least one permanent magnet on the rotor differs from the direction of the stator slot with a slot inclination (s), the ratio S L P of which slot inclination (s) and the width (L P ) of a magnetic pole of the rotor is at least 5/36 and at most 1/5 wherein, in degrees of electrical angle, the slot indication ranges between 25 and 36 degrees of electrical angle. which stator comprises slots , into which slots a concentrated winding is fitted; and which electric motor comprises a rotating rotor ; which rotor comprises permanent magnets placed consecutively in a ring in the direction of the rotational movement; wherein the ratio L M L P of the width (L M ) of a permanent magnet at the center line of the magnet and the width (L P ) of the magnetic pole of the rotor is at least 2/3 and at most 4/5 characterized in that the direction of at least one side of at least one permanent magnet on the rotor differs from the direction of the stator slot with a slot inclination (s), the ratio S L P of which slot inclination (s) and the width (L P ) of a magnetic pole of the rotor is at least 5/36 and at most 1/5 wherein, in degrees of electrical angle, the slot indication ranges between 25 and 36 degrees of electrical angle.
An apparatus for controlling driving in a vehicle, the apparatus comprising: one or more input devices configured to receive an input from a driver of the vehicle; and a control circuit electrically connected with the one or more input devices and configured to: activate a lane change when a first input for the lane change is received via the one or more input devices ; initiate a lateral movement for the lane change when a second input for the lane change is received via the one or more input devices between a first time interval and a second time interval after the first input; continue lane keeping control without the lateral movement over the second time interval; and deactivate the lane change when the second input is not received within the first time interval after the first input, wherein the second time interval is shorter than the first time interval after the first input, and wherein the control circuit is further configured to turn on/off a turn signal during the lane keeping control without the lateral movement and in this way notify a surrounding vehicle of an intention to perform the lane change and ensure the safety of the lane change. one or more input devices configured to receive an input from a driver of the vehicle; and a control circuit electrically connected with the one or more input devices and configured to: activate a lane change when a first input for the lane change is received via the one or more input devices ; initiate a lateral movement for the lane change when a second input for the lane change is received via the one or more input devices between a first time interval and a second time interval after the first input; continue lane keeping control without the lateral movement over the second time interval; and deactivate the lane change when the second input is not received within the first time interval after the first input, wherein the second time interval is shorter than the first time interval after the first input, and wherein the control circuit is further configured to turn on/off a turn signal during the lane keeping control without the lateral movement and in this way notify a surrounding vehicle of an intention to perform the lane change and ensure the safety of the lane change. activate a lane change when a first input for the lane change is received via the one or more input devices ; initiate a lateral movement for the lane change when a second input for the lane change is received via the one or more input devices between a first time interval and a second time interval after the first input; continue lane keeping control without the lateral movement over the second time interval; and deactivate the lane change when the second input is not received within the first time interval after the first input, wherein the second time interval is shorter than the first time interval after the first input, and wherein the control circuit is further configured to turn on/off a turn signal during the lane keeping control without the lateral movement and in this way notify a surrounding vehicle of an intention to perform the lane change and ensure the safety of the lane change.
A display panel comprising: a thin film transistor substrate ; a plurality of micro light emitting diodes (LEDs) arranged on one surface of the thin film transistor substrate ; a plurality of first connection pads disposed on the one surface of the thin film transistor substrate ; a plurality of second connection pads disposed on the other surface of the thin film transistor substrate that faces the one surface ; and a plurality of connection wirings disposed on a side surface of the thin film transistor substrate and connected on the first and second connection pads for electrically connecting each of the plurality of first connection pads and the plurality of second connection pads , wherein at least one edge area (DA) of an edge area (E1) on the one surface and an edge area (E2) on the other surface of the thin film transistor substrate includes a cutting area (CA) which is cut in an inward direction of the thin film transistor substrate , characterized in that the cutting area (CA) is formed to have a multi-stage structure, the multi-stage structure comprising a plurality of cutting surfaces consecutively arranged between the side surface and the one surface or other surface . a thin film transistor substrate ; a plurality of micro light emitting diodes (LEDs) arranged on one surface of the thin film transistor substrate ; a plurality of first connection pads disposed on the one surface of the thin film transistor substrate ; a plurality of second connection pads disposed on the other surface of the thin film transistor substrate that faces the one surface ; and a plurality of connection wirings disposed on a side surface of the thin film transistor substrate and connected on the first and second connection pads for electrically connecting each of the plurality of first connection pads and the plurality of second connection pads , wherein at least one edge area (DA) of an edge area (E1) on the one surface and an edge area (E2) on the other surface of the thin film transistor substrate includes a cutting area (CA) which is cut in an inward direction of the thin film transistor substrate , characterized in that the cutting area (CA) is formed to have a multi-stage structure, the multi-stage structure comprising a plurality of cutting surfaces consecutively arranged between the side surface and the one surface or other surface .
A computer-implemented method comprising: receiving seismic image data of a geologic region and interpretation information of the seismic image data for a geologic feature in the geologic region, wherein the seismic image data comprise a geologic feature class imbalance ; preprocessing the received seismic data to shift the geologic feature class imbalance toward a class of the geologic feature, wherein the preprocessing comprises overgrowing a boundary or boundaries of the geologic feature to increase the spatial presence of the geologic feature in the seismic image data to generate training data ; training a deep neural network using the training data to generate a trained neural network ; and receiving seismic image data of a seismic survey and processing the seismic image data using the trained neural network to output an enhanced seismic image for use in performing a field operation, the enhanced seismic image comprising instances of geologic features that correspond to the class of the geologic feature. receiving seismic image data of a geologic region and interpretation information of the seismic image data for a geologic feature in the geologic region, wherein the seismic image data comprise a geologic feature class imbalance ; preprocessing the received seismic data to shift the geologic feature class imbalance toward a class of the geologic feature, wherein the preprocessing comprises overgrowing a boundary or boundaries of the geologic feature to increase the spatial presence of the geologic feature in the seismic image data to generate training data ; training a deep neural network using the training data to generate a trained neural network ; and receiving seismic image data of a seismic survey and processing the seismic image data using the trained neural network to output an enhanced seismic image for use in performing a field operation, the enhanced seismic image comprising instances of geologic features that correspond to the class of the geologic feature.
Visor mask comprising: - a frame having a closed-contour bearing structure; - a visor or lens applied to the front part of the frame; - a foam layer applied to the rear part of the frame; - one or more aeration filters , the visor mask being characterized in that : said one or more aeration filters have a strip-like or band-like structure and are adapted to adhere and to be removably fixed to the lateral edge of the frame, and in that it comprises Velcro (registered trademark for a hook-and-loop fastener); and in that said one or more aeration filters are removably applied to the frame by means of said Velcro, the latter comprising two parts, one part being applied to said frame and the other part being applied to said one or more aeration filters in locations or areas matching the areas of application to the frame. - a frame having a closed-contour bearing structure; - a visor or lens applied to the front part of the frame; - a foam layer applied to the rear part of the frame; - one or more aeration filters , said one or more aeration filters have a strip-like or band-like structure and are adapted to adhere and to be removably fixed to the lateral edge of the frame, and in that it comprises Velcro (registered trademark for a hook-and-loop fastener); and in that said one or more aeration filters are removably applied to the frame by means of said Velcro, the latter comprising two parts, one part being applied to said frame and the other part being applied to said one or more aeration filters in locations or areas matching the areas of application to the frame.
An electronic device comprising a main body having a function of the electronic device , and a cable that has a tip portion disposed inside the main body and is connected to the main body , wherein the cable includes a lead wire , an insulating portion that covers the lead wire , and an outer coat that covers the insulating portion , the insulating portion protrudes from an end surface on the tip portion side of the outer coat toward the tip portion , wherein the insulating portion is made from a fluorine-based resin, wherein the outer coat is made from a polyvinyl chloride resin, and wherein the fluorine-based resin of the insulating portion is more resistant to a water-soluble grinding oil than the polyvinyl chloride resin of the outer coat , the electronic device further comprising: a first sealing portion that seals the insulating portion that protrudes from the end surface , wherein the first sealing portion is made of a polyamide-based resin; and a second sealing portion that seals the first sealing portion and is in contact with the main body and the outer coat , wherein the second sealing portion is made of a polybutylene terephthalate resin, the polyamide-based resin of the first sealing portion has higher adherence to the fluorine-based resin of the insulating portion than the polybutylene terephthalate resin of the second sealing portion . a first sealing portion that seals the insulating portion that protrudes from the end surface , wherein the first sealing portion is made of a polyamide-based resin; and a second sealing portion that seals the first sealing portion and is in contact with the main body and the outer coat , wherein the second sealing portion is made of a polybutylene terephthalate resin, the polyamide-based resin of the first sealing portion has higher adherence to the fluorine-based resin of the insulating portion than the polybutylene terephthalate resin of the second sealing portion .
A method for manufacturing a personalized or customized decorative surface having decorative laminate panels including the steps of: - segmenting a digital image of the personalized or customized decorative surface according to a staggered array into a plurality of decorative laminate panel images , wherein each decorative laminate panel image is sized to fit on a decorative laminate panel ; - assigning a positioning code to a decorative laminate panel image for identifying its position in the digital image of the personalized or customized decorative surface ; - creating a non-staggered digital layout of the plurality of decorative laminate panel images ; - inkjet printing the non-staggered digital layout on a substrate ; - heat pressing the inkjet printed substrate with a protective layer into a decorative laminate ; - dividing the decorative laminate into decorative laminate panels , wherein the front side of a decorative laminate panel includes one of the plurality of inkjet printed decorative laminate panel images and the back-side of decorative laminate panel includes the positioning code of the decorative laminate panel image inkjet printed on the front side of the decorative laminate panel . - segmenting a digital image of the personalized or customized decorative surface according to a staggered array into a plurality of decorative laminate panel images , wherein each decorative laminate panel image is sized to fit on a decorative laminate panel ; - assigning a positioning code to a decorative laminate panel image for identifying its position in the digital image of the personalized or customized decorative surface ; - creating a non-staggered digital layout of the plurality of decorative laminate panel images ; - inkjet printing the non-staggered digital layout on a substrate ; - heat pressing the inkjet printed substrate with a protective layer into a decorative laminate ; - dividing the decorative laminate into decorative laminate panels , wherein the front side of a decorative laminate panel includes one of the plurality of inkjet printed decorative laminate panel images and the back-side of decorative laminate panel includes the positioning code of the decorative laminate panel image inkjet printed on the front side of the decorative laminate panel .