mhurhangee/patent-ind-claim-en huggingface dataset:
A display system for displaying a three-dimensional view in front of an aerial vehicle, the display system comprising: a display screen for displaying the three-dimensional view; one or more sensors for obtaining object data regarding objects within a travel path of the aerial vehicle, a controller for receiving the object data from the one or more sensors, and for providing input to the display screen, the controller configured by programming instructions on non-transitory computer readable media to: cause the display of one or more objects as graphical objects in a 3-dimensional graphical representation of real space, wherein the display size of an object is determined based on a non-linear projection per distance between the object and a view point that is scaled based on a continuous, non-linear scaling function, which causes the object to be displayed smaller at certain distances and larger at other distances than it would if only linear scaling were applied, characterised in that the continuous, non-linear scaling function comprises one of a plurality of different compensation scaling functions comprising a first compensation scaling function for normal conditions and a second compensation scaling function for alert or bad visual conditions, wherein the display size of objects at a certain distance is larger when the second compensation scaling function is used than when the first compensation scaling function is used. a display screen for displaying the three-dimensional view; one or more sensors for obtaining object data regarding objects within a travel path of the aerial vehicle, a controller for receiving the object data from the one or more sensors, and for providing input to the display screen, the controller configured by programming instructions on non-transitory computer readable media to: cause the display of one or more objects as graphical objects in a 3-dimensional graphical representation of real space, wherein the display size of an object is determined based on a non-linear projection per distance between the object and a view point that is scaled based on a continuous, non-linear scaling function, which causes the object to be displayed smaller at certain distances and larger at other distances than it would if only linear scaling were applied, characterised in that the continuous, non-linear scaling function comprises one of a plurality of different compensation scaling functions comprising a first compensation scaling function for normal conditions and a second compensation scaling function for alert or bad visual conditions, wherein the display size of objects at a certain distance is larger when the second compensation scaling function is used than when the first compensation scaling function is used.
An electrode plate comprising a current collector , an electrode active material layer and a safety coating disposed between the current collector and the electrode active material layer , wherein the safety coating consists essentially of a polymer matrix, a conductive material and an inorganic filler, wherein the amount of other materials or components is less than or equal to 3wt%; and wherein the polymer matrix is fluorinated polyolefin and/or chlorinated polyolefin polymer matrix, wherein based on the total weight of the safety coating , the weight percentage of the polymer matrix is from 35 wt% to 75 wt%; the weight percentage of the conductive material is from 5 wt% to 25 wt%; and the weight percentage of the inorganic filler is from 10 wt% to 60 wt%; and the average particle diameter D of the inorganic filler is 100 nm≤D≤10 μm.
Process for producing a polypropylene composition by sequential polymerization comprising the steps: a) polymerizing in a first reactor, preferably a slurry reactor, monomers comprising propylene and optionally one or more comonomers selected from ethylene and C 4 -C 10 alpha-olefins, to obtain a first propylene polymer fraction having a comonomer content in the range of 0.0 to 1.0 wt%, b) polymerizing in a second reactor, preferably a first gas-phase reactor, monomers comprising propylene and one or more comonomers selected from ethylene and C 4 -C 10 alpha-olefins, in the presence of the first propylene polymer fraction, to obtain a second propylene polymer fraction having a comonomer content in the range of 0.3 to 2.0 wt%, c) polymerizing in a third reactor, preferably a second gas-phase reactor, monomers comprising propylene and one or more comonomers selected from ethylene and C 4 -C 10 alpha-olefins, in the presence of the second propylene polymer fraction to obtain a third propylene polymer fraction having a comonomer content in the range of from 1.5 to 5.0 wt%, d) extruding the third propylene polymer fraction in the presence of at least one alpha-nucleating agent, wherein the polypropylene composition has an MFR 2 in the range of from 12.0 to 60.0 g/10min, as measured according to ISO 1133 at 230 °C under a load of 2.16 kg. a) polymerizing in a first reactor, preferably a slurry reactor, monomers comprising propylene and optionally one or more comonomers selected from ethylene and C 4 -C 10 alpha-olefins, to obtain a first propylene polymer fraction having a comonomer content in the range of 0.0 to 1.0 wt%, b) polymerizing in a second reactor, preferably a first gas-phase reactor, monomers comprising propylene and one or more comonomers selected from ethylene and C 4 -C 10 alpha-olefins, in the presence of the first propylene polymer fraction, to obtain a second propylene polymer fraction having a comonomer content in the range of 0.3 to 2.0 wt%, c) polymerizing in a third reactor, preferably a second gas-phase reactor, monomers comprising propylene and one or more comonomers selected from ethylene and C 4 -C 10 alpha-olefins, in the presence of the second propylene polymer fraction to obtain a third propylene polymer fraction having a comonomer content in the range of from 1.5 to 5.0 wt%, d) extruding the third propylene polymer fraction in the presence of at least one alpha-nucleating agent,
A method comprising: providing a remote field testing probe in a wellbore containing pipe; generating a magnetic field on the remote field testing probe while the remote field testing probe is moving; detecting , at an array of detector solenoids on the remote field testing probe, a measured magnetic field which is the magnetic field modified by a presence of the pipe, wherein each detector solenoid of the array of detector solenoids has a non-uniform solenoid response along a longitudinal axis extending from a first end of the detector solenoid to an opposite end of the detector solenoid, the non-uniform solenoid response based on a non-uniform turn density and a non-uniform winding area; and determining properties and at least one defect of the pipe using the measured magnetic field. providing a remote field testing probe in a wellbore containing pipe; generating a magnetic field on the remote field testing probe while the remote field testing probe is moving; detecting , at an array of detector solenoids on the remote field testing probe, a measured magnetic field which is the magnetic field modified by a presence of the pipe, wherein each detector solenoid of the array of detector solenoids has a non-uniform solenoid response along a longitudinal axis extending from a first end of the detector solenoid to an opposite end of the detector solenoid, the non-uniform solenoid response based on a non-uniform turn density and a non-uniform winding area; and determining properties and at least one defect of the pipe using the measured magnetic field.
System for lifting platforms of a vehicle for transporting motor vehicles comprising: supporting means of a front cross member connected to said front cross member and assembled sliding on a column ; bearing means of a rear cross member connected to said rear cross member , actuated by first actuating means and assembled sliding on the supporting means ; at least one platform hinged to the front cross member and abutted onto the rear cross member which supports it and determines its slanting, following a movement of the bearing means actuated by the first actuating means . supporting means of a front cross member connected to said front cross member and assembled sliding on a column ; bearing means of a rear cross member connected to said rear cross member , actuated by first actuating means and assembled sliding on the supporting means ; at least one platform hinged to the front cross member and abutted onto the rear cross member which supports it and determines its slanting, following a movement of the bearing means actuated by the first actuating means .
A scheduling method, wherein the method comprises: when a first preset condition is met, controlling , by a terminal, a scheduling speed of broadcast scheduling events, wherein the first preset condition comprises that a quantity of broadcast scheduling events in a preset time window is greater than or equal to a first preset value, the broadcast scheduling event is distributing a broadcast to a receiver, and the receiver comprises at least one of software, a component, or a program, wherein the broadcast is a parallel broadcast in an Android system, wherein the controlling, by a terminal, a scheduling speed of broadcast scheduling events comprises: grouping, by the terminal, the broadcast scheduling events into at least two groups; and for each of the at least two groups, scheduling, by the terminal, a broadcast scheduling event in the group based on one scheduling speed or at least one scheduling interval corresponding to the group. when a first preset condition is met, controlling , by a terminal, a scheduling speed of broadcast scheduling events, wherein the first preset condition comprises that a quantity of broadcast scheduling events in a preset time window is greater than or equal to a first preset value, the broadcast scheduling event is distributing a broadcast to a receiver, and the receiver comprises at least one of software, a component, or a program, wherein the broadcast is a parallel broadcast in an Android system, wherein the controlling, by a terminal, a scheduling speed of broadcast scheduling events comprises: grouping, by the terminal, the broadcast scheduling events into at least two groups; and for each of the at least two groups, scheduling, by the terminal, a broadcast scheduling event in the group based on one scheduling speed or at least one scheduling interval corresponding to the group. grouping, by the terminal, the broadcast scheduling events into at least two groups; and for each of the at least two groups, scheduling, by the terminal, a broadcast scheduling event in the group based on one scheduling speed or at least one scheduling interval corresponding to the group.
A computer readable medium comprising instructions which, when executed by one or more hardware processors , causes performance of operations comprising: identifying a first virtual machine instruction, generated during a code compilation process; identifying a second virtual machine instruction , generated during the code compilation process, comprising a set of one or more parameters ; wherein the first virtual machine instruction includes a keyword signaling to a runtime environment that the first virtual machine instruction includes information referencing a respective type of at least one of the set of one or more parameters of the second virtual machine instruction ; wherein the first virtual machine instruction is stored external to and in association with the second virtual machine instruction ; and processing, by the runtime environment that includes a virtual machine , the second virtual machine instruction based on the respective type of the at least one of the set of one or more parameters referenced by the information included in the first virtual machine instruction. identifying a first virtual machine instruction, generated during a code compilation process; identifying a second virtual machine instruction , generated during the code compilation process, comprising a set of one or more parameters ; wherein the first virtual machine instruction includes a keyword signaling to a runtime environment that the first virtual machine instruction includes information referencing a respective type of at least one of the set of one or more parameters of the second virtual machine instruction ; wherein the first virtual machine instruction is stored external to and in association with the second virtual machine instruction ; and processing, by the runtime environment that includes a virtual machine , the second virtual machine instruction based on the respective type of the at least one of the set of one or more parameters referenced by the information included in the first virtual machine instruction.
A touch sensitive element , comprising: an electroactive layer comprising a first portion of a first thickness (t 1 ) and a second portion of a second thickness (t 2 ) that is greater than the first thickness (t 1 ); a first electrode electrically coupled to a surface of the electroactive layer ; and a second electrode electrically coupled to the same surface or a different surface of the electroactive layer as the first electrode , the electroactive layer configured to vibrate responsive to applying a voltage difference between the second electrode and the first electrode , wherein each of the first portion and the second portion of the electroactive layer overlaps the first electrode and the second electrode ; a first wiring line connected to the first electrode on the second portion of the electroactive layer ; and a second wiring line connected to the second electrode on the second portion of the electroactive layer . an electroactive layer comprising a first portion of a first thickness (t 1 ) and a second portion of a second thickness (t 2 ) that is greater than the first thickness (t 1 ); a first electrode electrically coupled to a surface of the electroactive layer ; and a second electrode electrically coupled to the same surface or a different surface of the electroactive layer as the first electrode , the electroactive layer configured to vibrate responsive to applying a voltage difference between the second electrode and the first electrode , wherein each of the first portion and the second portion of the electroactive layer overlaps the first electrode and the second electrode ; a first wiring line connected to the first electrode on the second portion of the electroactive layer ; and a second wiring line connected to the second electrode on the second portion of the electroactive layer .
A method for expanding non-haematopoietic tissue-resident γδ T cells in vitro, the method comprising culturing lymphocytes obtained from non-haematopoietic tissue of humans or non-human animals in the presence of interleukin-15 (IL-15), wherein the lymphocytes are not in direct contact with stromal or epithelial cells during culture, and wherein the lymphocytes are cultured in the absence of an exogenously added T cell receptor pathway agonist.
Method for determining a rheological property of a fluid, wherein according to the method - the fluid is conveyed with a constant volume flow rate through a nozzle , - the fluid strand thereby generated is deposited on a substrate, - a relative movement takes place between the nozzle and the substrate at a forward feed velocity value, - a contour of the liquid strand between the nozzle and the substrate is optically measured, characterized in that - an, in particular strain rate-dependent, extensional viscosity as a rheological property is calculated from knowledge of the volume flow rate, the forward feed velocity value and the contour of the liquid strand . - the fluid is conveyed with a constant volume flow rate through a nozzle , - the fluid strand thereby generated is deposited on a substrate, - a relative movement takes place between the nozzle and the substrate at a forward feed velocity value, - a contour of the liquid strand between the nozzle and the substrate is optically measured, - an, in particular strain rate-dependent, extensional viscosity as a rheological property is calculated from knowledge of the volume flow rate, the forward feed velocity value and the contour of the liquid strand .
Method for handling a first call received in a call centre (CA) via a telecommunications network (NW1), originating from a user terminal (TU), comprising placing (S309) the first call in a queue when no call centre operator terminal is available to take the first call, said method being characterized in that it comprises: - transmitting (S323), to the user's terminal, a user identification code (CIU), said code being created and placed, in the first call, in the queue in place of an identifier of the first call and being obtained in a second call that has to be made subsequently by the user, within a determined time interval (INT), so as to allow the second call to benefit from the place of the first call in the queue. - transmitting (S323), to the user's terminal, a user identification code (CIU), said code being created and placed, in the first call, in the queue in place of an identifier of the first call and being obtained in a second call that has to be made subsequently by the user, within a determined time interval (INT), so as to allow the second call to benefit from the place of the first call in the queue.
A double shoulder connection for use in a drill stem, having a pin with external threads formed between a pin external shoulder and a pin face , a box with internal threads formed between a box face and a box internal shoulder , the box having a counterbore section between the internal threads and the box external shoulder , the pin having a base section between the external shoulder and the external threads , and a nose section between the external pin face and the external threads , said internal threads and said external threads are arranged and designed for connection with each other so that said box and said pin are connected with common center-line (C/L) and with a primary seal (PS) formed by said pin external shoulder forced against said box face and a secondary shoulder (SS) formed by said pin face forced against said box internal shoulder , and wherein said internal threads and said external threads have a stab flank angle (Θ S ) between 35 and 42 degrees and a load flank angle (Θ P ) between 25 and 34 degrees.
A block data storage method, comprising: obtaining a block generated by a blockchain node in a blockchain; storing the block into a local storage space of the blockchain node; determining an access frequency of the block; in response to the access frequency of the block being lower than a frequency threshold, transferring the block from the local storage space to an external storage space, wherein the external storage space comprises at least one of the following: a cloud storage server and a distributed storage device; in response to the access frequency of the block being greater than the frequency threshold, copying, by the blockchain node, the block to the external storage space of the blockchain node so that the block is stored in both the local storage space and the external storage space; recording a storage location of the block in a block index table; and adjusting the storage location of the block according to changes in the access frequency of the block, wherein if the access frequency has been lower than the frequency threshold and if the block is stored in both the local storage space and the external storage space, the block is deleted from the local storage space without transferring the block from the local storage space to the external storage space. obtaining a block generated by a blockchain node in a blockchain; storing the block into a local storage space of the blockchain node; determining an access frequency of the block; in response to the access frequency of the block being lower than a frequency threshold, transferring the block from the local storage space to an external storage space, wherein the external storage space comprises at least one of the following: a cloud storage server and a distributed storage device; in response to the access frequency of the block being greater than the frequency threshold, copying, by the blockchain node, the block to the external storage space of the blockchain node so that the block is stored in both the local storage space and the external storage space; recording a storage location of the block in a block index table; and adjusting the storage location of the block according to changes in the access frequency of the block, wherein if the access frequency has been lower than the frequency threshold and if the block is stored in both the local storage space and the external storage space, the block is deleted from the local storage space without transferring the block from the local storage space to the external storage space.
A non-destructive inspection system comprising: a positioning system comprising a projector for illuminating a workpiece with one or more markers, a marker indicating a location on the workpiece to be inspected; and a non-destructive inspection apparatus comprising: an ultrasonic sensor configured to be placed in operable contact with the workpiece , wherein the ultrasonic sensor is configured to emit ultrasonic signals into the workpiece and to receive return signals in response to the ultrasonic signals emitted thereby; a grip operably connected to the ultrasonic sensor such that the grip and the ultrasonic sensor are movable in concert, wherein the grip is configured to support an operator's palm such that force applied to the non-destructive inspection apparatus by the operator is transferred via the grip to the ultrasonic sensor , and a communication interface comprising a receiver configured to receive the marker and confirm alignment with the marker as to indicate that the inspection apparatus is properly located relative to the workpiece . a positioning system comprising a projector for illuminating a workpiece with one or more markers, a marker indicating a location on the workpiece to be inspected; and a non-destructive inspection apparatus comprising: an ultrasonic sensor configured to be placed in operable contact with the workpiece , wherein the ultrasonic sensor is configured to emit ultrasonic signals into the workpiece and to receive return signals in response to the ultrasonic signals emitted thereby; a grip operably connected to the ultrasonic sensor such that the grip and the ultrasonic sensor are movable in concert, wherein the grip is configured to support an operator's palm such that force applied to the non-destructive inspection apparatus by the operator is transferred via the grip to the ultrasonic sensor , and a communication interface comprising a receiver configured to receive the marker and confirm alignment with the marker as to indicate that the inspection apparatus is properly located relative to the workpiece . an ultrasonic sensor configured to be placed in operable contact with the workpiece , wherein the ultrasonic sensor is configured to emit ultrasonic signals into the workpiece and to receive return signals in response to the ultrasonic signals emitted thereby; a grip operably connected to the ultrasonic sensor such that the grip and the ultrasonic sensor are movable in concert, wherein the grip is configured to support an operator's palm such that force applied to the non-destructive inspection apparatus by the operator is transferred via the grip to the ultrasonic sensor , and a communication interface comprising a receiver configured to receive the marker and confirm alignment with the marker as to indicate that the inspection apparatus is properly located relative to the workpiece .