mhurhangee/patent-ind-claim-en huggingface dataset:
A method for distributing personalized messages to one or more network clients (7; A, C) participating in a real-time conversation over a network, the method comprising: providing a database of available message topics, wherein each message topic is associated with one or more pre-defined messages; pre-selecting a plurality of message topics from the database of available message topics; transmitting the pre-selected message topics to a first network client (A) participating in the real-time conversation; recording at the first network client (A) a selection of one message topic from the pre-selected message topics; transmitting a message associated with the selected message topic (M3) to a second network client (C) participating in the real-time conversation with the first network client (A), wherein the second network client (C) is different from the first network client (A); displaying the message associated with the selected message topic (M3) at the second network client (C). providing a database of available message topics, wherein each message topic is associated with one or more pre-defined messages; pre-selecting a plurality of message topics from the database of available message topics; transmitting the pre-selected message topics to a first network client (A) participating in the real-time conversation; recording at the first network client (A) a selection of one message topic from the pre-selected message topics; transmitting a message associated with the selected message topic (M3) to a second network client (C) participating in the real-time conversation with the first network client (A), wherein the second network client (C) is different from the first network client (A); displaying the message associated with the selected message topic (M3) at the second network client (C).
A method for operating a three-dimensional metal object manufacturing system configured to eject drops of liquid metal from a printhead comprising: generating image data of a metal object being formed by the 3D metal object manufacturing system prior to completion of the metal object; comparing the generated image data of the metal object to original 3D object design data to identify a difference; identifying a displacement error as the identified difference when the identified difference is outside a predetermined difference range; modifying machine-ready instructions for forming metal object layers not yet formed to compensate for the identified displacement error; and operating the 3D metal object manufacturing system using the modified machine-ready instructions; characterised in that : modifying the machine-ready instructions comprises changing drop spacing parameters identified in the machine-ready instructions and in that the method further comprises: setting a maximum frequency for drop firing within a layer; and modifying a speed of movement for an ejector in the machine-ready instructions to ensure a frequency of ejection from the ejector does not exceed the maximum frequency. generating image data of a metal object being formed by the 3D metal object manufacturing system prior to completion of the metal object; comparing the generated image data of the metal object to original 3D object design data to identify a difference; identifying a displacement error as the identified difference when the identified difference is outside a predetermined difference range; modifying machine-ready instructions for forming metal object layers not yet formed to compensate for the identified displacement error; and operating the 3D metal object manufacturing system using the modified machine-ready instructions; characterised in that : modifying the machine-ready instructions comprises changing drop spacing parameters identified in the machine-ready instructions and in that the method further comprises: setting a maximum frequency for drop firing within a layer; and modifying a speed of movement for an ejector in the machine-ready instructions to ensure a frequency of ejection from the ejector does not exceed the maximum frequency. modifying the machine-ready instructions comprises changing drop spacing parameters identified in the machine-ready instructions and in that the method further comprises: setting a maximum frequency for drop firing within a layer; and modifying a speed of movement for an ejector in the machine-ready instructions to ensure a frequency of ejection from the ejector does not exceed the maximum frequency. setting a maximum frequency for drop firing within a layer; and modifying a speed of movement for an ejector in the machine-ready instructions to ensure a frequency of ejection from the ejector does not exceed the maximum frequency.
A dressing for treating a tissue site with negative pressure, the dressing comprising: a manifold comprising a first surface and a second surface opposite the first surface; a first layer adjacent to the first surface and a second layer adjacent to the second surface, the first layer and the second layer each comprising a polymer film; a plurality of fluid restrictions in the polymer film adjacent to at least the first surface; and a plurality of bonds between the first layer and the second layer , the plurality of bonds defining separable sections of the manifold , wherein the plurality of bonds form seams between the separable sections of the manifold . a manifold comprising a first surface and a second surface opposite the first surface; a first layer adjacent to the first surface and a second layer adjacent to the second surface, the first layer and the second layer each comprising a polymer film; a plurality of fluid restrictions in the polymer film adjacent to at least the first surface; and a plurality of bonds between the first layer and the second layer , the plurality of bonds defining separable sections of the manifold , wherein the plurality of bonds form seams between the separable sections of the manifold .
An electronic device , comprising: a wireless communication circuit for wireless communication with an external device ; an augmented reality, AR, display configured to output an extended screen of a mobile device ; a memory configured to store therein computer-executable instructions; and a processor configured to access the memory and execute the instructions, wherein the instructions, when executed, cause the processor to: determine a reference display position in an AR environment at which the extended screen received from the mobile device is to be provided based on wireless communication with the external device , when a portion of the extended screen to be provided at the reference display position is comprised in a field of view, FOV, area of the AR display, provide a user with the portion of the extended screen through the AR display, and when the extended screen to be provided at the reference display position is fully comprised in the FOV area of the AR display, provide a user with the entire area of the extended screen through the AR display. a wireless communication circuit for wireless communication with an external device ; an augmented reality, AR, display configured to output an extended screen of a mobile device ; a memory configured to store therein computer-executable instructions; and a processor configured to access the memory and execute the instructions, wherein the instructions, when executed, cause the processor to: determine a reference display position in an AR environment at which the extended screen received from the mobile device is to be provided based on wireless communication with the external device , when a portion of the extended screen to be provided at the reference display position is comprised in a field of view, FOV, area of the AR display, provide a user with the portion of the extended screen through the AR display, and when the extended screen to be provided at the reference display position is fully comprised in the FOV area of the AR display, provide a user with the entire area of the extended screen through the AR display. determine a reference display position in an AR environment at which the extended screen received from the mobile device is to be provided based on wireless communication with the external device , when a portion of the extended screen to be provided at the reference display position is comprised in a field of view, FOV, area of the AR display, provide a user with the portion of the extended screen through the AR display, and when the extended screen to be provided at the reference display position is fully comprised in the FOV area of the AR display, provide a user with the entire area of the extended screen through the AR display.
A method comprising: filtering hitbox radar targets from field of view (FOV) radar targets, the FOV radar targets detected by one or more radars operably coupled to a body of a vehicle , the hitbox radar targets filtered based on a range and an azimuth angle, the hitbox radar targets being within a predetermined area in front of the vehicle ; filtering the hitbox radar targets to select substantially zero-Doppler-speed hitbox radar targets; tracking the substantially zero-Doppler-speed hitbox radar targets to verify whether positions of the substantially zero-Doppler-speed hitbox radar targets are constant; and determining a number and distribution of the substantially zero-Doppler-speed hitbox radar targets to determine a hitbox-based stationary status; the method being characterized in that it further comprises: determining whether the substantially zero-Doppler-speed hitbox radar targets are moving in synchronization to determine a vehicle first stationary status. filtering hitbox radar targets from field of view (FOV) radar targets, the FOV radar targets detected by one or more radars operably coupled to a body of a vehicle , the hitbox radar targets filtered based on a range and an azimuth angle, the hitbox radar targets being within a predetermined area in front of the vehicle ; filtering the hitbox radar targets to select substantially zero-Doppler-speed hitbox radar targets; tracking the substantially zero-Doppler-speed hitbox radar targets to verify whether positions of the substantially zero-Doppler-speed hitbox radar targets are constant; and determining a number and distribution of the substantially zero-Doppler-speed hitbox radar targets to determine a hitbox-based stationary status; the method being characterized in that it further comprises: determining whether the substantially zero-Doppler-speed hitbox radar targets are moving in synchronization to determine a vehicle first stationary status.
Energy storage unit for kinetic energy, having a housing , having a shaft that is on the housing mechanically rotatably mounted on both sides and has an inner rotor connected in torque-proof manner, and having an outer rotor , more particularly a drum-shaped rotor, for storing the kinetic energy, which outer rotor surrounds the inner rotor at least in certain regions, and which outer rotor is mounted so as to rotate relative to the shaft , wherein the inner and/or outer rotor has/have at least one electric coil , wherein the outer rotor , which is mechanically mounted on the housing , on both sides, so as to rotate, is held in mechanically bearing-free manner toward the shaft , characterized in that the outer rotor ends in hollow shafts on both sides, the shaft protruding through the two hollow shafts mechanically bearing-free, and in that the two hollow shafts each have at least one rotor bearing , namely roller bearings, are rotatably mounted on each side wall of the housing , the stationary bearing parts , namely outer rings, of the rotor bearing being supported on the housing .
An electrically powered mobility vehicle including a keyless activation system, wherein mobility vehicle includes an electrical power source and an electric motor which drives at least one wheel of the mobility vehicle and which is controlled by a motor controller ; the keyless activation system includes a control module carried by the vehicle and a remote operation transmitter, wherein the control module includes an electrical input which is electrically connected to the electrical power source of the vehicle, an electrical output electrically connected to the motor controller of the vehicle, a signal-operated switch electrically connected between the electrical input and the electrical output , and a signal receiver electrically connected to the switch , wherein the switch has an active configuration in which electrical power is supplied to the electrical output from the electrical input via the switch and an inactive configuration in which the switch electrically isolates the electrical output from the electrical input; and the configuration of the switch is controlled by signals from the signal receiver ; and wherein the transmitter communicates wirelessly with the signal receiver ; wherein the transmitter transmits an activation signal and the signal receiver configures the switch in the active configuration in response to the activation signal; characterised in that the transmitter includes a radio transponder which transmits an activation signal and which is paired with the signal receiver such that when transmitter is less than a pre-defined distance from the signal receiver , the signal receiver detects the activation signal transmitted by the transmitter and configures the switch in the active configuration in response to the transmitted activation signal.
A system for bone cement removal, the system comprising: a controller coupled to a cutting tool : a microphone ; a processor coupled to a memory device , the memory device containing instructions that, when executed by the processor , cause the system to perform operations comprising: receiving digital frequency data from the microphone ; comparing at least a portion of the digital frequency data to a plurality of frequency signatures; determining , based at least in part on the comparing, whether the portion of the digital frequency data is representative of a cut bone frequency or a cut bone cement frequency; and in response to determining that the portion of the digital frequency data is representative of the bone frequency, sending an indication to the controller to adjust a control parameter of the cutting tool . a microphone ; a processor coupled to a memory device , the memory device containing instructions that, when executed by the processor , cause the system to perform operations comprising: receiving digital frequency data from the microphone ; comparing at least a portion of the digital frequency data to a plurality of frequency signatures; determining , based at least in part on the comparing, whether the portion of the digital frequency data is representative of a cut bone frequency or a cut bone cement frequency; and in response to determining that the portion of the digital frequency data is representative of the bone frequency, sending an indication to the controller to adjust a control parameter of the cutting tool . receiving digital frequency data from the microphone ; comparing at least a portion of the digital frequency data to a plurality of frequency signatures; determining , based at least in part on the comparing, whether the portion of the digital frequency data is representative of a cut bone frequency or a cut bone cement frequency; and in response to determining that the portion of the digital frequency data is representative of the bone frequency, sending an indication to the controller to adjust a control parameter of the cutting tool .
A method for configuring a cryptographic program (P) intended to be executed by a terminal , the method comprising the following steps implemented by the terminal : • sending to a secure element at least one execution command of an internal processing (F) to be executed by the secure element , • receiving at least one response datum (y) produced by the internal processing (F) executed by the secure element , the response datum (y) being specific to the secure element , • updating the cryptographic program (P) according to the received response datum (y), such that output data produced by the cryptographic program (P) before and after the updating are different, characterized in that the response datum (y) comprises a first portion and a second portion, and wherein the updating of the cryptographic program (P) comprises modification, on the basis of the first portion, of a correspondence table intended to be used by the cryptographic program (P), and modification, on the basis of the second portion, of at least one external encoding function intended to be used also by the cryptographic program (P). • sending to a secure element at least one execution command of an internal processing (F) to be executed by the secure element , • receiving at least one response datum (y) produced by the internal processing (F) executed by the secure element , the response datum (y) being specific to the secure element , • updating the cryptographic program (P) according to the received response datum (y), such that output data produced by the cryptographic program (P) before and after the updating are different,
Device for transporting an inflatable boat in operational configuration in a sling beneath a helicopter, the inflatable boat being of the general known type comprising two lateral floats , each comprising at least one inflatable tube, and which are separated from one another at the rear portion of the lateral floats , at the stern of the boat, by a rigid transom able to support at least one motor for propulsion, the two floats converging towards one another at the front, towards the longitudinal central axis of the boat, at the bow of the boat, which also comprises a keel connecting the lower portions of the two lateral floats and a bottom extending between the two lateral floats , the transport device comprising a sling with four flexible support lines including a pair of lines each of which can be attached by a so-called "lower" end to a respective one of two lifting points and a so-called "upper" end of each of said lines is connected to at least one attachment member , suitable for engaging with a hook suspended beneath a helicopter, and two flexible support lines each forming a loop to pass around the external and lower lateral contours and under the keel of the boat , and of which each of the two ends is attached to said at least one attachment member , one of the two looped lines, referred to as the "front" line, being able to surround the boat at the bow of the boat, characterized in that the other looped line, referred to as the "middle" line , is able to surround the boat at the central portion of the boat, and in that said lines able to be connected to the two lifting points are rear lines each able to be attached to a lifting point arranged in one of the respective two lateral end portions of the transom , the device further comprising a forward lower line which connects the loop of the front line to the front of the boat and is able to prevent said front line from moving closer towards the middle line , said forward lower line being a flat nose strap, of which a so-called "front" end can be detachably fixed to an attachment point on the nose of the boat , and of which the other so-called "back" end is integral with the middle of the front line and is positioned substantially at the point of the keel in the usage position of the device.
A method of transmitting a sounding reference signal, SRS, by a user equipment to a base station in a wireless communication system supporting an unlicensed band, the method comprising: performing channel access procedure, CAP, for transmitting the SRS via the unlicensed band; and transmitting the SRS via the unlicensed band based on the CAP, said method being characterized in that : based on the SRS transmission without a physical uplink shared channel, PUSCH, in a same subframe, the CAP is a random backoff-based CAP based on a predetermined channel access priority class having a value of as an allowed contention window size, wherein, based on a contention window size most recently applied to the CAP for transmitting the PUSCH being a minimum contention window size, 3 is applied as the contention window size applied to the CAP for transmitting the SRS, and wherein, based on the contention window size most recently applied to the CAP for transmitting the PUSCH being an increased window size, 7 is applied as the contention window size applied to the CAP for transmitting the SRS. performing channel access procedure, CAP, for transmitting the SRS via the unlicensed band; and transmitting the SRS via the unlicensed band based on the CAP, said method being characterized in that : based on the SRS transmission without a physical uplink shared channel, PUSCH, in a same subframe, the CAP is a random backoff-based CAP based on a predetermined channel access priority class having a value of as an allowed contention window size, wherein, based on a contention window size most recently applied to the CAP for transmitting the PUSCH being a minimum contention window size, 3 is applied as the contention window size applied to the CAP for transmitting the SRS, and wherein, based on the contention window size most recently applied to the CAP for transmitting the PUSCH being an increased window size, 7 is applied as the contention window size applied to the CAP for transmitting the SRS.
A refrigeration cycle apparatus configured to circulate refrigerant in a first circulation direction in order of a first heat exchanger , a compressor , a second heat exchanger , and an expansion valve , and perform defrosting operation when a start condition for the defrosting operation is satisfied, the refrigeration cycle apparatus comprising: a first blower configured to blow air into the first heat exchanger ; a controller configured to control an amount of air blown by the first blower ; and a first heating device configured to heat the first heat exchanger , when the start condition is satisfied, the controller being configured to increase the amount of air blown by the first blower per unit time and decrease a degree of opening of the expansion valve , when a certain time period elapses after the start condition is satisfied, the controller being configured to stop the compressor and the first blower and then operate the first heating device . a first blower configured to blow air into the first heat exchanger ; a controller configured to control an amount of air blown by the first blower ; and a first heating device configured to heat the first heat exchanger , when the start condition is satisfied, the controller being configured to increase the amount of air blown by the first blower per unit time and decrease a degree of opening of the expansion valve , when a certain time period elapses after the start condition is satisfied, the controller being configured to stop the compressor and the first blower and then operate the first heating device .
A body support cushion with ventilation system, comprising: a mattress having a lower support layer formed of convoluted foam ; an air distribution assembly disposed above said lower support layer, said air distribution assembly including a cavity and an envelope material disposed in said cavity ; a reticulated foam disposed in said cavity on said envelope material; at least one foam layer disposed above said air distribution assembly ; wherein said reticulated foam receives air from a conduit and through holes in said envelope material, and distributes said air to a plurality of apertures of said at least one foam layer disposed above said air distribution assembly . a mattress having a lower support layer formed of convoluted foam ; an air distribution assembly disposed above said lower support layer, said air distribution assembly including a cavity and an envelope material disposed in said cavity ; a reticulated foam disposed in said cavity on said envelope material; at least one foam layer disposed above said air distribution assembly ; wherein said reticulated foam receives air from a conduit and through holes in said envelope material, and distributes said air to a plurality of apertures of said at least one foam layer disposed above said air distribution assembly .