mhurhangee/patent-ind-claim-en huggingface dataset:
A catalytic upgrading process for producing petrochemical substances from a crude oil stream, wherein the process comprises a first catalytic deasphalting reactor upstream of a steam cracking unit, wherein the first catalytic deasphalting reactor comprises a catalyst having a solid heteropolyacid compound, and wherein the process comprises: introducing a feed comprising crude oil to the first catalytic deasphalting reactor to deasphalt the feed, wherein the deasphalting produces polymerized asphaltenes and deasphalted oil having a reduced concentration of asphaltenes; introducing the deasphalted oil to the steam cracking unit, wherein the steam cracking produces pyrolysis gasoline; introducing the pyrolysis gasoline to a selective hydrogenation unit, wherein the selective hydrogenation produces an olefin-free product; introducing the olefin free product to a separation unit, thereby obtaining a benzene-toluene-xylenes (BTX)-containing stream and liquid petroleum gas; separating the BTX-containing stream from the liquid petroleum gas; introducing the BTX-containing stream to a BTX complex, wherein the BTX complex produces refined BTX; introducing a wash solvent to the first catalytic deasphalting reactor after deasphalting to remove the polymerized asphaltenes, thereby regenerating the catalyst in the first catalytic deasphalting reactor and producing a mixture comprising the wash solvent and the polymerized asphaltenes; and separating the wash solvent from the polymerized asphaltenes. introducing a feed comprising crude oil to the first catalytic deasphalting reactor to deasphalt the feed, wherein the deasphalting produces polymerized asphaltenes and deasphalted oil having a reduced concentration of asphaltenes; introducing the deasphalted oil to the steam cracking unit, wherein the steam cracking produces pyrolysis gasoline; introducing the pyrolysis gasoline to a selective hydrogenation unit, wherein the selective hydrogenation produces an olefin-free product; introducing the olefin free product to a separation unit, thereby obtaining a benzene-toluene-xylenes (BTX)-containing stream and liquid petroleum gas; separating the BTX-containing stream from the liquid petroleum gas; introducing the BTX-containing stream to a BTX complex, wherein the BTX complex produces refined BTX; introducing a wash solvent to the first catalytic deasphalting reactor after deasphalting to remove the polymerized asphaltenes, thereby regenerating the catalyst in the first catalytic deasphalting reactor and producing a mixture comprising the wash solvent and the polymerized asphaltenes; and separating the wash solvent from the polymerized asphaltenes.
A method of controlling a robot, comprising a step of : obtaining (S202) a measured coordinate value (q1, q2, q3) of a feature point (MK1, MK2, MK3) by using a vision sensor supported by the robot , said method being characterized by comprising the steps of setting (S102, S201) a target coordinate value (p1, p2, p3) which relates to positional relationship of the feature point (MK1, MK2, MK3); setting (S103, S201) a determination point (p add ) which is provided separately from the feature point, and which moves following an operation of the robot; calculating (S203, S204) a coordinate transformation parameter (R,t) so that a distance between the target coordinate value (p1, p2, p3) and the measured coordinate value (q1, q2, q3) gets smaller; computing (S205) a first difference (d add ) which corresponds to a distance between the coordinate values of the determination point obtained before (p add ) and after (p' add ) a coordinate transformation by the coordinate transformation parameter (R,t); determining (S206) whether the first difference (d add ) is equal to or smaller than a predetermined threshold (δ); and correcting (S207, S208) a posture of the robot if it is determined that the first difference (d add ) is not equal to or smaller than the predetermined threshold (δ). obtaining (S202) a measured coordinate value (q1, q2, q3) of a feature point (MK1, MK2, MK3) by using a vision sensor supported by the robot , said method being characterized by comprising the steps of setting (S102, S201) a target coordinate value (p1, p2, p3) which relates to positional relationship of the feature point (MK1, MK2, MK3); setting (S103, S201) a determination point (p add ) which is provided separately from the feature point, and which moves following an operation of the robot; calculating (S203, S204) a coordinate transformation parameter (R,t) so that a distance between the target coordinate value (p1, p2, p3) and the measured coordinate value (q1, q2, q3) gets smaller; computing (S205) a first difference (d add ) which corresponds to a distance between the coordinate values of the determination point obtained before (p add ) and after (p' add ) a coordinate transformation by the coordinate transformation parameter (R,t); determining (S206) whether the first difference (d add ) is equal to or smaller than a predetermined threshold (δ); and correcting (S207, S208) a posture of the robot if it is determined that the first difference (d add ) is not equal to or smaller than the predetermined threshold (δ).
A computer-implemented method comprising: receiving a training input (610; 702), wherein the training input includes a training seismic dataset and multiple different interpretations of that training seismic dataset ; sorting the training input into a first group and a second group (620; 706), wherein the first group comprises a portion of the training inputs in which the interpretations match and the second group comprises a portion of the training inputs in which the interpretations do not match , wherein the matching interpretations are different interpretations in agreement and the interpretations that do not match are interpretations in disagreement; subgrouping the second group into a plurality of subgroups (630; 710), wherein individual subgroups of the plurality of subgroups are associated with interpretation attributes ; generating a plurality of trained models based on the plurality of subgroups and the first group (640; 714), wherein the trained models are further generated based on a supervised machine learning technique ; receiving a prediction input having a set of data to be interpreted (650; 718), wherein the prediction input includes target seismic data to be interpreted , wherein the target seismic data is received from seismic survey operation for a subterranean formation; generating a plurality of interpretation options for the prediction input by applying the plurality of training models to the prediction input (660, 670; 722); and outputting the plurality of interpretation options (680; 728). receiving a training input (610; 702), wherein the training input includes a training seismic dataset and multiple different interpretations of that training seismic dataset ; sorting the training input into a first group and a second group (620; 706), wherein the first group comprises a portion of the training inputs in which the interpretations match and the second group comprises a portion of the training inputs in which the interpretations do not match , wherein the matching interpretations are different interpretations in agreement and the interpretations that do not match are interpretations in disagreement; subgrouping the second group into a plurality of subgroups (630; 710), wherein individual subgroups of the plurality of subgroups are associated with interpretation attributes ; generating a plurality of trained models based on the plurality of subgroups and the first group (640; 714), wherein the trained models are further generated based on a supervised machine learning technique ; receiving a prediction input having a set of data to be interpreted (650; 718), wherein the prediction input includes target seismic data to be interpreted , wherein the target seismic data is received from seismic survey operation for a subterranean formation; generating a plurality of interpretation options for the prediction input by applying the plurality of training models to the prediction input (660, 670; 722); and outputting the plurality of interpretation options (680; 728).
A method for matching mouth shape and movement in digital video to alternative audio , the method comprising: deriving, from the alternative audio , a sequence of facial poses including mouth shapes for an actor from a source digital video in which the actor appears, wherein each pose in the sequence of facial poses corresponds to a middle position of each sample of the alternative audio ; generating an animated face mesh based on the sequence of facial poses and the source digital video ; transferring expressions from at least one of the animated face mesh or a target video rendered therefrom to the source video and generating a rough output video that includes transfers of the expressions; and generating a finished video at least in part by refining the rough video using a parametric autoencoder trained on mouth shapes in the animated face mesh or the target video . deriving, from the alternative audio , a sequence of facial poses including mouth shapes for an actor from a source digital video in which the actor appears, wherein each pose in the sequence of facial poses corresponds to a middle position of each sample of the alternative audio ; generating an animated face mesh based on the sequence of facial poses and the source digital video ; transferring expressions from at least one of the animated face mesh or a target video rendered therefrom to the source video and generating a rough output video that includes transfers of the expressions; and generating a finished video at least in part by refining the rough video using a parametric autoencoder trained on mouth shapes in the animated face mesh or the target video .
A system for monitoring tilled floor conditions within a field, the system comprising a sensor frame , the system characterized by : a tilled floor sensing assembly supported on the sensor frame , the tilled floor sensing assembly comprising: a plurality of pins configured to be extended relative to the sensor frame such that each pin penetrates a top surface of the field; a plurality of position sensors , each position sensor configured to capture data indicative of a position of a given pin of the plurality of pins relative to the sensor frame ; and a plurality of force sensors , each force sensor configured to capture data indicative of a force being applied to a given pin of the plurality of pins , wherein the data captured by the plurality of position sensors and the data captured by the plurality of force sensors is indicative of a tilled floor profile of the field. a plurality of pins configured to be extended relative to the sensor frame such that each pin penetrates a top surface of the field; a plurality of position sensors , each position sensor configured to capture data indicative of a position of a given pin of the plurality of pins relative to the sensor frame ; and a plurality of force sensors , each force sensor configured to capture data indicative of a force being applied to a given pin of the plurality of pins , wherein the data captured by the plurality of position sensors and the data captured by the plurality of force sensors is indicative of a tilled floor profile of the field.
A method of extruding a material, comprising: providing the material into an extrusion chamber of an extrusion apparatus , wherein the extrusion chamber comprises an extrusion orifice and the extrusion apparatus comprises a first compression element and a second compression element in communication with the interior of the extrusion chamber , the first and second compression elements being independently movable relative to the extrusion chamber ; moving the first and second compression elements to compress the material within the extrusion chamber and cause a velocity gradient in the extrusion material across the extrusion orifice ; and extruding the material through the extrusion orifice such that the velocity gradient forms an extrudate with a curved profile; characterized in that moving the first compression element and the second compression element comprises moving the first compression element and the second compression element at different speeds along a common axis, wherein moving the first compression element and the second compression element at different speeds along the common axis comprises moving the first compression element and the second compression element towards each other in opposite directions along the common axis providing the material into an extrusion chamber of an extrusion apparatus , wherein the extrusion chamber comprises an extrusion orifice and the extrusion apparatus comprises a first compression element and a second compression element in communication with the interior of the extrusion chamber , the first and second compression elements being independently movable relative to the extrusion chamber ; moving the first and second compression elements to compress the material within the extrusion chamber and cause a velocity gradient in the extrusion material across the extrusion orifice ; and extruding the material through the extrusion orifice such that the velocity gradient forms an extrudate with a curved profile; characterized in that moving the first compression element and the second compression element comprises moving the first compression element and the second compression element at different speeds along a common axis, wherein moving the first compression element and the second compression element at different speeds along the common axis comprises moving the first compression element and the second compression element towards each other in opposite directions along the common axis
A method performed by a transmitter in a communication system, the method comprising: obtaining, by a medium access control, MAC, entity of the transmitter, at least one MAC service data unit, SDU; generating, by the MAC entity, a MAC protocol data unit, PDU, including at least one MAC subheader and the at least one MAC SDU; and sending, by the MAC entity, the MAC PDU to a lower layer, wherein the at least one MAC subheader corresponds to the at least one MAC SDU, respectively, wherein a MAC subheader to which a MAC SDU corresponds is placed immediately in front of the MAC SDU, wherein the MAC subheader to which the MAC SDU corresponds includes a logical channel identifier, LCID, field and a length field indicating a length of the MAC SDU, and wherein each of the at least one MAC subheader does not include an E field indicating whether another MAC subheader, MAC control element, CE, or MAC SDU follows. obtaining, by a medium access control, MAC, entity of the transmitter, at least one MAC service data unit, SDU; generating, by the MAC entity, a MAC protocol data unit, PDU, including at least one MAC subheader and the at least one MAC SDU; and sending, by the MAC entity, the MAC PDU to a lower layer, wherein the at least one MAC subheader corresponds to the at least one MAC SDU, respectively, wherein a MAC subheader to which a MAC SDU corresponds is placed immediately in front of the MAC SDU, wherein the MAC subheader to which the MAC SDU corresponds includes a logical channel identifier, LCID, field and a length field indicating a length of the MAC SDU, and wherein each of the at least one MAC subheader does not include an E field indicating whether another MAC subheader, MAC control element, CE, or MAC SDU follows.
A non-surgical and non-therapeutic method comprising: receiving patient assessment information concerning one or more subjective characteristics of a patient at a central server , the patient assessment information including a Nursing Patient assessment and a Modified Barthel Index assessment; determining a patient assessment score based on the received patient assessment information at the central server ; receiving data from the central server at a medical fluid treatment machine to control the medical fluid treatment machine ; modifying operating parameters of the medical fluid treatment machine according to the received data based on the determined patient assessment score; wherein: modifying operating parameters comprises adjusting a blood pressure monitoring rate of the medical fluid treatment machine . receiving patient assessment information concerning one or more subjective characteristics of a patient at a central server , the patient assessment information including a Nursing Patient assessment and a Modified Barthel Index assessment; determining a patient assessment score based on the received patient assessment information at the central server ; receiving data from the central server at a medical fluid treatment machine to control the medical fluid treatment machine ; modifying operating parameters of the medical fluid treatment machine according to the received data based on the determined patient assessment score; wherein: modifying operating parameters comprises adjusting a blood pressure monitoring rate of the medical fluid treatment machine .
An apparatus for depositing flowable material, comprising: a. a chamber housing that forms a shell having an internal contour , an input port for receiving the flowable material and an output port for depositing the flowable material, b. a rotary valve shaft within the shell adjacent the output port , c. a piston shaft within the shell between the input port and the rotary valve shaft and rotatable in synchronization with the rotary valve shaft , the piston shaft having at least one piston plate that radiates to the internal contour of the shell , such that the piston shaft and the rotary valve shaft form with the shell a volumetric pocket to receive the flowable material from the input port , and d. at least one annular spacer that radiates from the piston shaft to the internal contour of the shell to divide the volumetric pocket into at least two volumetric pockets , wherein the rotary valve shaft has a respective inflow port and outflow port for each of the at least two volumetric pockets , wherein the at least one annular spacer has an arcuate notch configured to receive for rotation therewithin the rotary valve shaft , wherein the internal contour of the shell circumscribes the at least one annular spacer and the rotary valve shaft so as to allow rotation of the piston shaft and the rotary valve shaft within the shell but resist flow of flowable material past the at least one annular spacer , the rotary valve shaft being rotatable within the shell between a deposition position wherein each outflow port is in alignment with the output port and an intake position wherein each inflow port is in alignment with the input port , wherein the apparatus is configured to, when the rotary valve shaft is in the intake position, rotate the piston shaft to expand the volumetric pocket to draw in flowable material from the input port through the inflow port and the outflow port , and when the rotary valve shaft is in the deposition position, rotate the piston shaft to compress the volumetric pocket to urge flowable material from the volumetric pocket through the inflow port and the outflow port to the output port . a. a chamber housing that forms a shell having an internal contour , an input port for receiving the flowable material and an output port for depositing the flowable material, b. a rotary valve shaft within the shell adjacent the output port , c. a piston shaft within the shell between the input port and the rotary valve shaft and rotatable in synchronization with the rotary valve shaft , the piston shaft having at least one piston plate that radiates to the internal contour of the shell , such that the piston shaft and the rotary valve shaft form with the shell a volumetric pocket to receive the flowable material from the input port , and d. at least one annular spacer that radiates from the piston shaft to the internal contour of the shell to divide the volumetric pocket into at least two volumetric pockets ,
A membrane for use in connection with a closed system transfer device, the membrane comprising: a body having a proximal portion opposite a distal portion along a central axis ; a skirt extending radially outward from the distal portion such that a lip is formed at a transition between the proximal portion and the distal portion ; characterized in that the membrane further comprises: at least one well recessed in the distal portion and extending from a distal end of the distal portion in a proximal direction, thereby forming a channel within the distal portion , the channel having an open first end , a closed bottom end , and a pair of sidewalls extending between the first end and the second end ; and at least one slit extending through at least a portion of the body in a direction of a plane aligned along or parallel to the central axis . a body having a proximal portion opposite a distal portion along a central axis ; a skirt extending radially outward from the distal portion such that a lip is formed at a transition between the proximal portion and the distal portion ; characterized in that the membrane further comprises: at least one well recessed in the distal portion and extending from a distal end of the distal portion in a proximal direction, thereby forming a channel within the distal portion , the channel having an open first end , a closed bottom end , and a pair of sidewalls extending between the first end and the second end ; and at least one slit extending through at least a portion of the body in a direction of a plane aligned along or parallel to the central axis . at least one well recessed in the distal portion and extending from a distal end of the distal portion in a proximal direction, thereby forming a channel within the distal portion , the channel having an open first end , a closed bottom end , and a pair of sidewalls extending between the first end and the second end ; and at least one slit extending through at least a portion of the body in a direction of a plane aligned along or parallel to the central axis .