mhurhangee/patent-ind-claim-en huggingface dataset:
A method for performing a network assurance check of proper deployment of a configuration in a fabric, comprising: receiving from a controller , a global logical model containing instructions on how endpoints connected to a network fabric communicate within the fabric , the instructions including access policies for at least one interface of one or more network devices; receiving from the one or more network devices within the fabric , a software model being at least a subset of instructions from the global logical model, the subset of instructions being instructions from the global logical model that are specific to operability of the one or more network devices; validating that at least Layer 1 of the access policies within the received global logical model are properly configured on the one more network devices; identifying within the received software model a reported state of a physical link and a software link of one or more ports of the one or more network devices; obtaining an actual state of the physical link and the software link of the one or more ports of the one or more network devices; comparing the reported state of the physical link and the software link with the obtained actual state of the physical link and the software link; and generating one or more events based on the validating and/or the comparing. receiving from a controller , a global logical model containing instructions on how endpoints connected to a network fabric communicate within the fabric , the instructions including access policies for at least one interface of one or more network devices; receiving from the one or more network devices within the fabric , a software model being at least a subset of instructions from the global logical model, the subset of instructions being instructions from the global logical model that are specific to operability of the one or more network devices; validating that at least Layer 1 of the access policies within the received global logical model are properly configured on the one more network devices; identifying within the received software model a reported state of a physical link and a software link of one or more ports of the one or more network devices; obtaining an actual state of the physical link and the software link of the one or more ports of the one or more network devices; comparing the reported state of the physical link and the software link with the obtained actual state of the physical link and the software link; and generating one or more events based on the validating and/or the comparing.
A processor comprising: an instruction unit to receive a first instruction, wherein the first instruction comprises a source operand to indicate a source location and a destination operand to indicate a destination location; and an execution unit to execute the first instruction, wherein execution of the first instruction includes checking, by the processor, access permissions of the source location and loading content from the source location into the destination location, wherein execution of the first instruction succeeds in loading content from the source location into the destination register if the access permissions of the source location indicate that the content is executable and execution of the first instruction fails to load content from the source location into the destination register if the access permissions indicate that the content is not executable. an instruction unit to receive a first instruction, wherein the first instruction comprises a source operand to indicate a source location and a destination operand to indicate a destination location; and an execution unit to execute the first instruction, wherein execution of the first instruction includes checking, by the processor, access permissions of the source location and loading content from the source location into the destination location, wherein execution of the first instruction succeeds in loading content from the source location into the destination register if the access permissions of the source location indicate that the content is executable and execution of the first instruction fails to load content from the source location into the destination register if the access permissions indicate that the content is not executable.
An ultrasound imaging system , comprising: an array of acoustic elements configured to transmit ultrasound energy into an anatomy and to receive ultrasound echoes associated with the anatomy; and a processor circuit in communication with the array of acoustic elements and configured to: receive , from the array, ultrasound channel data corresponding to the received ultrasound echoes; time-align the ultrasound channel data; normalize the time-aligned ultrasound channel data by applying a first scaling function to the time-aligned ultrasound channel data based on signal levels of the time-aligned ultrasound channel data; generate beamformed data by applying a predictive network to the normalized time-aligned ultrasound channel data ; de-normalize the beamformed data by applying a second scaling function to the beamformed data based on the signal levels of the ultrasound channel data; generate an image of the anatomy from the beamformed data; and output, to a display in communication with the processor circuit, the image of the anatomy, characterized in that the predictive network is configured to perform the summing operations in beamforming the normalized ultrasound channel data . an array of acoustic elements configured to transmit ultrasound energy into an anatomy and to receive ultrasound echoes associated with the anatomy; and a processor circuit in communication with the array of acoustic elements and configured to: receive , from the array, ultrasound channel data corresponding to the received ultrasound echoes; time-align the ultrasound channel data; normalize the time-aligned ultrasound channel data by applying a first scaling function to the time-aligned ultrasound channel data based on signal levels of the time-aligned ultrasound channel data; generate beamformed data by applying a predictive network to the normalized time-aligned ultrasound channel data ; de-normalize the beamformed data by applying a second scaling function to the beamformed data based on the signal levels of the ultrasound channel data; generate an image of the anatomy from the beamformed data; and output, to a display in communication with the processor circuit, the image of the anatomy, receive , from the array, ultrasound channel data corresponding to the received ultrasound echoes; time-align the ultrasound channel data; normalize the time-aligned ultrasound channel data by applying a first scaling function to the time-aligned ultrasound channel data based on signal levels of the time-aligned ultrasound channel data; generate beamformed data by applying a predictive network to the normalized time-aligned ultrasound channel data ; de-normalize the beamformed data by applying a second scaling function to the beamformed data based on the signal levels of the ultrasound channel data; generate an image of the anatomy from the beamformed data; and output, to a display in communication with the processor circuit, the image of the anatomy, characterized in that the predictive network is configured to perform the summing operations in beamforming the normalized ultrasound channel data .
An optoelectronic sensor , in particular a camera, for a repeated detection of objects at different object distances, the optoelectronic sensor comprising a light receiver for generating a received signal from received light , an evaluation unit for generating object information from the received signal, and a distance sensor for determining the object distance from a respective object , characterized in that the evaluation unit is configured to acquire a measurement variable from the received signal with respect to an object , to associate the measurement variable with the object distance measured for the object , and to form a first distribution of the measurement variable via the object distance after detecting a plurality of objects .
Hull for fixing a portable electronic device in a motor vehicle, the hull comprises a cavity for receiving a portable electronic device with a screen and a housing configured to receive a mounting plate of a support device for the reversible fixing of the hull to said support device ; the hull further comprises a fixing device with at least one hook movable between an open position and a locking position for the reversible fixing of the hull to the support device ; said hook 5) being intended to cooperate with a notch arranged on the plate ; characterized in that the housing is formed in the rear wall of the shell and in that the hook or hooks of the fixing device are each fixed by a pivot connection about an axis of rotation perpendicular to said rear wall; preferably, the fixing device comprises at least one pair of hooks and the hooks of the same pair of hooks each show a gear , the gear of one hook meshing with the gear of the other hook so as to the hooks are driven in rotation about their respective axes of rotation in different directions of rotation.
A device for maintaining fluid flow through at least one passage in a human or animal body, the device (3 4) comprising: a tube that is made from a polymeric material; and a supporting structure , the supporting structure is in the form of at least one mesh or a laser-perforated metal tube ; wherein the device comprises two end portions and an intermediate portion ; the two end portions being configured to be diametrically expandable to anchor the device in position, and the intermediate portion is configured to be flexible to allow movement of the end portions relative to each other such that the two end portions are configured to be anchored in separate passages, and the two end portions and intermediate portion together defining a pathway for fluid flow through the device , the intermediate portion being diametrically expandable to dilate the pathway , wherein the supporting structure supports the two end portions and the intermediate portion ; wherein the supporting structure is flexible within the intermediate portion ; and wherein the two end portions have different diameters. a tube that is made from a polymeric material; and a supporting structure , the supporting structure is in the form of at least one mesh or a laser-perforated metal tube ; wherein the device comprises two end portions and an intermediate portion ; the two end portions being configured to be diametrically expandable to anchor the device in position, and the intermediate portion is configured to be flexible to allow movement of the end portions relative to each other such that the two end portions are configured to be anchored in separate passages, and the two end portions and intermediate portion together defining a pathway for fluid flow through the device , the intermediate portion being diametrically expandable to dilate the pathway , wherein the device comprises two end portions and an intermediate portion ; the two end portions being configured to be diametrically expandable to anchor the device in position, and the intermediate portion is configured to be flexible to allow movement of the end portions relative to each other such that the two end portions are configured to be anchored in separate passages, and the two end portions and intermediate portion together defining a pathway for fluid flow through the device , the intermediate portion being diametrically expandable to dilate the pathway , wherein the supporting structure supports the two end portions and the intermediate portion ; wherein the supporting structure is flexible within the intermediate portion ; and wherein the two end portions have different diameters.
A pharmaceutical composition comprising a virus like particle (VLP), the VLP comprising: a. an alphavirus replicon comprising a recombinant polynucleotide, wherein the polynucleotide comprises: (i) a sequence encoding both subunits of a human class II major histocompatibility (MHC) antigen, and (ii) a sequence encoding a costimulatory signal protein selected from the group consisting of CD80, CD28, CD86, and CTLA-4; b. a retroviral gag protein, and c. a fusogenic envelope protein, wherein the VLP does not contain an alphavirus structural protein gene, for use in a method of treating or preventing a tumour in a mammalian subject, said method comprising in vivo transfection of cells of said tumour by said VLP, preferably by intratumoral administration of said composition. a. an alphavirus replicon comprising a recombinant polynucleotide, wherein the polynucleotide comprises: (i) a sequence encoding both subunits of a human class II major histocompatibility (MHC) antigen, and (ii) a sequence encoding a costimulatory signal protein selected from the group consisting of CD80, CD28, CD86, and CTLA-4; (i) a sequence encoding both subunits of a human class II major histocompatibility (MHC) antigen, and (ii) a sequence encoding a costimulatory signal protein selected from the group consisting of CD80, CD28, CD86, and CTLA-4; b. a retroviral gag protein, and c. a fusogenic envelope protein,
Method for measuring the quantity of gas introduced into a gas tank via a filling station equipped with a filling pipe comprising an upstream end connected to at least one source of pressurized gas and a downstream end connected to a tank that is to be filled, the filling pipe comprising a flow meter and at least one downstream isolation valve positioned between the flow meter and the downstream end of the filling pipe, the method comprising a step of transferring gas from the source to the tank during which step the downstream isolation valve is open, a step of interrupting the transfer of gas with closure of the downstream valve , the method comprising a step of measuring, using the flow meter , the quantity of gas transferred during the transfer step, the method comprising a step of generating a signal indicating the corrected quantity of gas transferred, the corrected quantity of gas transferred being obtained, during the transfer step, by reducing or by increasing, by a determined corrective quantity, the quantity of gas transferred as measured by the flow meter during the transfer step, the flow meter being of the type that generates electric signals in the form of successive pulses each corresponding to an elementary measured quantity of gas, the generation of a signal indicating the corrected quantity of gas transferred being obtained by a step of modifying at least one of the following: the value of the elementary quantity of gas corresponding to a pulse generated by the flow meter and/or the number of pulses generated by the flow meter and/or the frequency with which the pulses generated by the flow meter are emitted and/or the number of pulses counted from the pulses generated by the flow meter , characterized in that the modification step is performed in a way that is temporally uniformly distributed through the transfer step so as to make it possible to display and/or to charge for a quantity of gas which is closer or equal to the quantity of gas actually transferred into the tank .
A delivery cylinder for a prosthetic implant , comprising: a first tubular portion ; and a second tubular portion comprising a plurality of strut members coupled to the first tubular portion and defining a volume for containing the prosthetic implant in a radially compressed state, the strut members including respective flex regions configured such that application of force to the strut members causes deformation of the flex regions and corresponding radially inward or outward movement of the strut members relative to a longitudinal axis of the delivery cylinder between an expanded configuration and a contracted configuration, wherein the flex regions comprise respective first and second bending portions with intermediate portions therebetween. a first tubular portion ; and a second tubular portion comprising a plurality of strut members coupled to the first tubular portion and defining a volume for containing the prosthetic implant in a radially compressed state, the strut members including respective flex regions configured such that application of force to the strut members causes deformation of the flex regions and corresponding radially inward or outward movement of the strut members relative to a longitudinal axis of the delivery cylinder between an expanded configuration and a contracted configuration, wherein the flex regions comprise respective first and second bending portions with intermediate portions therebetween.
A method of scheduling instructions within a parallel processing unit comprising: decoding, in an instruction controller, an instruction in a scheduled task in an active state; checking if an ALU targeted by the decoded instruction is full by checking a value of an ALU work fullness counter stored in the instruction controller and associated with the targeted ALU ; in response to determining that the targeted ALU is not full, sending the decoded instruction to the targeted ALU for execution and updating the ALU work fullness counter associated with the targeted ALU ; in response to determining that the targeted ALU is full, triggering a scheduler to de-activate the scheduled task by changing the scheduled task from the active state to a non-active state ; monitoring the ALU work fullness counters stored in the instruction controller ; and in response to detecting, as a consequence of the monitoring, that an ALU has changed from being full to not being full , triggering the scheduler to re-activate an oldest scheduled task waiting for the ALU by removing the oldest scheduled task from the non-active state . decoding, in an instruction controller, an instruction in a scheduled task in an active state; checking if an ALU targeted by the decoded instruction is full by checking a value of an ALU work fullness counter stored in the instruction controller and associated with the targeted ALU ; in response to determining that the targeted ALU is not full, sending the decoded instruction to the targeted ALU for execution and updating the ALU work fullness counter associated with the targeted ALU ; in response to determining that the targeted ALU is full, triggering a scheduler to de-activate the scheduled task by changing the scheduled task from the active state to a non-active state ; monitoring the ALU work fullness counters stored in the instruction controller ; and in response to detecting, as a consequence of the monitoring, that an ALU has changed from being full to not being full , triggering the scheduler to re-activate an oldest scheduled task waiting for the ALU by removing the oldest scheduled task from the non-active state .
A wireless transmit/receive unit, WTRU, comprising: means for receiving layer 3, L3, control information, wherein the L3 control information indicates, for an allocation of resources, at least a first frequency domain resource allocation, periodicity information, duration information, sequence information, and repetition information; means for periodically transmitting, based on the periodicity information, uplink data according to the L3 control information; means for receiving layer 1/layer 2, L1/L2, control information, after at least one uplink data transmission according to the L3 control information, wherein the L1/L2 control information indicates at least a second frequency domain resource allocation; means for transmitting uplink data according to the L1/L2 control information; and means for transmitting at least one uplink data transmission according to the L3 control information, after the transmission of the uplink data according to the L1/L2 control information. means for receiving layer 3, L3, control information, wherein the L3 control information indicates, for an allocation of resources, at least a first frequency domain resource allocation, periodicity information, duration information, sequence information, and repetition information; means for periodically transmitting, based on the periodicity information, uplink data according to the L3 control information; means for receiving layer 1/layer 2, L1/L2, control information, after at least one uplink data transmission according to the L3 control information, wherein the L1/L2 control information indicates at least a second frequency domain resource allocation; means for transmitting uplink data according to the L1/L2 control information; and means for transmitting at least one uplink data transmission according to the L3 control information, after the transmission of the uplink data according to the L1/L2 control information.
Transcutaneous electrostimulation device, comprising: an electrostimulation generator configured to provide at an output a nerve electrostimulation signal; an electronic signal conduit conductively connected to the output of the electrostimulation generator ; and an electrode coupler shaped to form fit an ear canal of a human ear and having at least one electrostimulation electrode: conductively connected to the electronic signal conduit to receive the nerve electrostimulation signal; and positioned to contact tissue within an ear canal and apply the nerve electrostimulation signal to the tissue transcutaneously characterized in that the transcutaneous electrostimulation device further comprises an audio source configured to output audio signals, the electrode coupler comprising at least one audio speaker connected to the audio source and configured to receive the audio signals for output into the ear canal when the electrode coupler is worn, and the electrostimulation generator configured to send the nerve electrostimulation signal to the electrode coupler while the audio signals are output, wherein the electrostimulation generator modulates the nerve electrostimulation signal based upon the audio signals. an electrostimulation generator configured to provide at an output a nerve electrostimulation signal; an electronic signal conduit conductively connected to the output of the electrostimulation generator ; and an electrode coupler shaped to form fit an ear canal of a human ear and having at least one electrostimulation electrode: conductively connected to the electronic signal conduit to receive the nerve electrostimulation signal; and positioned to contact tissue within an ear canal and apply the nerve electrostimulation signal to the tissue transcutaneously conductively connected to the electronic signal conduit to receive the nerve electrostimulation signal; and positioned to contact tissue within an ear canal and apply the nerve electrostimulation signal to the tissue transcutaneously characterized in that the transcutaneous electrostimulation device further comprises an audio source configured to output audio signals, the electrode coupler comprising at least one audio speaker connected to the audio source and configured to receive the audio signals for output into the ear canal when the electrode coupler is worn, and the electrostimulation generator configured to send the nerve electrostimulation signal to the electrode coupler while the audio signals are output, wherein the electrostimulation generator modulates the nerve electrostimulation signal based upon the audio signals.
A server operable to provide streaming with coordination of video orientation, CVO, having computer circuitry configured to: receive a device capability exchange message with a CVO attribute for a client ; characterised in that the server is adapted to : in response to determining, by the server , that content at the server to be streamed to the client was captured by an orientation-aware terminal and that the client is not orientation-aware, processing the content to correct misalignment, based on the CVO attribute received in the device capability exchange message , and, if the client is orientation aware, sending the content to the client without modification along with video orientation-information embedded in the content.