mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless communication method, comprising: receiving, by a communication device from a serving cell, a signaling including a minimum threshold indication in a first slot n, wherein the minimum threshold indication indicates a first minimum threshold of k0, k0min, and a second minimum threshold of k2, k2min, wherein k0 includes an offset between a downlink control information, DCI, and a physical downlink shared channel, PDSCH, scheduled by the DCI, wherein k2 includes an offset between another DCI and a physical uplink shared channel, PUSCH, scheduled by the another DCI; and applying, by the communication device and for a cross-carrier scheduling, the first minimum threshold of k0, k0min, and the second minimum threshold of k2, k2min, in a second slot n+X, wherein X is a value that indicates an application delay, and wherein a subcarrier spacing, SCS, of the application delay is based on another SCS of the serving cell in a prior bandwidth part, BWP, before a BWP switching during the application delay. receiving, by a communication device from a serving cell, a signaling including a minimum threshold indication in a first slot n, wherein the minimum threshold indication indicates a first minimum threshold of k0, k0min, and a second minimum threshold of k2, k2min, wherein k0 includes an offset between a downlink control information, DCI, and a physical downlink shared channel, PDSCH, scheduled by the DCI, wherein k2 includes an offset between another DCI and a physical uplink shared channel, PUSCH, scheduled by the another DCI; and wherein the minimum threshold indication indicates a first minimum threshold of k0, k0min, and a second minimum threshold of k2, k2min, wherein k0 includes an offset between a downlink control information, DCI, and a physical downlink shared channel, PDSCH, scheduled by the DCI, wherein k2 includes an offset between another DCI and a physical uplink shared channel, PUSCH, scheduled by the another DCI; and applying, by the communication device and for a cross-carrier scheduling, the first minimum threshold of k0, k0min, and the second minimum threshold of k2, k2min, in a second slot n+X, wherein X is a value that indicates an application delay, and wherein a subcarrier spacing, SCS, of the application delay is based on another SCS of the serving cell in a prior bandwidth part, BWP, before a BWP switching during the application delay. wherein X is a value that indicates an application delay, and wherein a subcarrier spacing, SCS, of the application delay is based on another SCS of the serving cell in a prior bandwidth part, BWP, before a BWP switching during the application delay.
A heart valve prosthesis for use in heart valve replacement, comprising a stent , the stent configured to support a heart valve and comprising, along a longitudinal axis, a proximal inflow section , a distal outflow section and a transition section between the inflow section and the outflow section , the stent having a contracted delivery configuration and an expanded deployed configuration, and a prosthesis aortic valve affixed within the inflow section ; wherein in the expanded deployed configuration, the stent conically tapers radially inwards from the inflow section toward the transition section and flares radially outwards from the transition section toward the outflow section ; wherein in the expanded deployed configuration, the inflow section defines a concave contour that is complementary to a structure of a native valve annulus; and the stent comprises a mesh having a plurality of mesh cells formed by adjacent struts, wherein only one or two struts may be arranged proximal to the concave contour along the longitudinal axis, characterized in that the ones of the plurality of mesh cells in the inflow section have a strut width greater than strut widths of ones of the plurality of mesh cells in the transition section and in the outflow section . a stent , the stent configured to support a heart valve and comprising, along a longitudinal axis, a proximal inflow section , a distal outflow section and a transition section between the inflow section and the outflow section , the stent having a contracted delivery configuration and an expanded deployed configuration, and a prosthesis aortic valve affixed within the inflow section ; wherein in the expanded deployed configuration, the stent conically tapers radially inwards from the inflow section toward the transition section and flares radially outwards from the transition section toward the outflow section ; wherein in the expanded deployed configuration, the inflow section defines a concave contour that is complementary to a structure of a native valve annulus; and the stent comprises a mesh having a plurality of mesh cells formed by adjacent struts, wherein only one or two struts may be arranged proximal to the concave contour along the longitudinal axis, characterized in that the ones of the plurality of mesh cells in the inflow section have a strut width greater than strut widths of ones of the plurality of mesh cells in the transition section and in the outflow section .
A computer-implemented method of processing data from a portable processing device to determine when the portable processing device has begun a journey, the method comprising: receiving data generated by the portable processing device defining a sequence of positions and, for each respective position, an accuracy of the position; for each of a plurality of positions in the sequence, processing the data defining the position and the accuracy of the position as well as the data defining a preceding position in the sequence and the accuracy of the preceding position, to determine whether the position is more than a first threshold distance from the preceding position; processing data defining a time-ordered set of the positions for which it was determined that the position is more than the first threshold distance from the preceding position, to determine whether a distance between the position at the latest time in the set and any position at an earlier time in the set is greater than a second threshold distance; and when it is determined that a distance between a position at the latest time in the set and any position at an earlier time in the set is greater than the second threshold distance, it is determined that the portable processing device has begun a journey. receiving data generated by the portable processing device defining a sequence of positions and, for each respective position, an accuracy of the position; for each of a plurality of positions in the sequence, processing the data defining the position and the accuracy of the position as well as the data defining a preceding position in the sequence and the accuracy of the preceding position, to determine whether the position is more than a first threshold distance from the preceding position; processing data defining a time-ordered set of the positions for which it was determined that the position is more than the first threshold distance from the preceding position, to determine whether a distance between the position at the latest time in the set and any position at an earlier time in the set is greater than a second threshold distance; and when it is determined that a distance between a position at the latest time in the set and any position at an earlier time in the set is greater than the second threshold distance, it is determined that the portable processing device has begun a journey.
A heating apparatus for a fluid flow system having a conduit , characterized in that the heating apparatus comprises: at least one heater element including a resistance wire and an insulating material disposed about the resistance wire ; and a support member disposed inside the conduit and configured for restricting movement of the at least one heater element in the conduit , the support member defining a tortuous geometry and flanking opposed sides of the at least one heater element along a majority of a length of the resistance wire , wherein the insulating material electrically insulates the resistance wire from the support member , wherein the support member increases heat transfer from the at least one heater element to a fluid flowing through the conduit , wherein the at least one heater element has a predefined shape, the predefined shape being selected from a group consisting of a spiral shape, a sinuated shape, a coil shape, a zig-zag shape, and combinations thereof, wherein the support member includes a strip formed into the predefined shape and conforming to the predefined shape of the at least one heater element . at least one heater element including a resistance wire and an insulating material disposed about the resistance wire ; and a support member disposed inside the conduit and configured for restricting movement of the at least one heater element in the conduit , the support member defining a tortuous geometry and flanking opposed sides of the at least one heater element along a majority of a length of the resistance wire ,
A memory circuit comprising a plurality of elementary cells , each comprising: a storage cell comprising a first data bit storage node (BLTI); a first read access port (RPT) comprising a first transistor (T2) coupled by its gate to the first storage node (BLTI), and a second transistor (T3) series-assembled with the first transistor (T2) between a first node (GND) of application of a reference potential of the cell and a first conductive track (VBLT) of the cell; and a first read and write access port (RWPT) comprising a third transistor (T7) coupling the first storage node (BLTI) of the cell to the first conductive track (VBLT) of the cell, the gate of the second transistor (T3) being coupled to a second conductive track (RWL) of the cell and the gate of the third transistor (T7) being coupled to a third conductive track (WWL) of the cell, wherein the elementary cells are arranged in a plurality of arrays (M i ), each comprising a plurality of rows and a plurality of columns, wherein: in each array (M i ), the elementary cells of a same row of the array share a same second conductive track (RWL) and a same third conductive track (WWL); and the elementary cells having the same coordinates in the different arrays (M i ) share a same first conductive track (VBLT), and wherein the different arrays (M i ) are respectively formed in a plurality of stacked semiconductor levels of an integrated circuit. a storage cell comprising a first data bit storage node (BLTI); a first read access port (RPT) comprising a first transistor (T2) coupled by its gate to the first storage node (BLTI), and a second transistor (T3) series-assembled with the first transistor (T2) between a first node (GND) of application of a reference potential of the cell and a first conductive track (VBLT) of the cell; and a first read and write access port (RWPT) comprising a third transistor (T7) coupling the first storage node (BLTI) of the cell to the first conductive track (VBLT) of the cell, the gate of the second transistor (T3) being coupled to a second conductive track (RWL) of the cell and the gate of the third transistor (T7) being coupled to a third conductive track (WWL) of the cell, wherein the elementary cells are arranged in a plurality of arrays (M i ), each comprising a plurality of rows and a plurality of columns, wherein: in each array (M i ), the elementary cells of a same row of the array share a same second conductive track (RWL) and a same third conductive track (WWL); and the elementary cells having the same coordinates in the different arrays (M i ) share a same first conductive track (VBLT), and wherein the different arrays (M i ) are respectively formed in a plurality of stacked semiconductor levels of an integrated circuit. in each array (M i ), the elementary cells of a same row of the array share a same second conductive track (RWL) and a same third conductive track (WWL); and the elementary cells having the same coordinates in the different arrays (M i ) share a same first conductive track (VBLT), and wherein the different arrays (M i ) are respectively formed in a plurality of stacked semiconductor levels of an integrated circuit.
A method for generating positioning path data for an NC program for a computer numerically controlled (CNC) machine , the method comprising: determining, by a computing device , a start machine configuration and a goal machine configuration in a machine configuration space; identifying, by the computing device , respective regions surrounding one or more relevant features of a machining scene in the machine configuration space for sampling of possible machine configurations; determining, by the computing device , a plurality of possible machine configurations from each of the identified one or more regions in the machine configuration space; determining, by the computing device , a positioning path from the plurality of possible machine configurations that connects the start machine configuration to the goal machine configuration ; determining, by the computing device , if the determined positioning path is valid using a simulation of the CNC machine , where the positioning path is valid when machining constraints are not violated; and generating, by the computing device , positioning path data for moving a tool of the CNC machine along the determined positioning path, if the positioning path is determined to be valid. determining, by a computing device , a start machine configuration and a goal machine configuration in a machine configuration space; identifying, by the computing device , respective regions surrounding one or more relevant features of a machining scene in the machine configuration space for sampling of possible machine configurations; determining, by the computing device , a plurality of possible machine configurations from each of the identified one or more regions in the machine configuration space; determining, by the computing device , a positioning path from the plurality of possible machine configurations that connects the start machine configuration to the goal machine configuration ; determining, by the computing device , if the determined positioning path is valid using a simulation of the CNC machine , where the positioning path is valid when machining constraints are not violated; and generating, by the computing device , positioning path data for moving a tool of the CNC machine along the determined positioning path, if the positioning path is determined to be valid.
RFID device for monitoring the ripeness degree of a fruit, the device comprising an RFID label , a reader of said RFID label and means for processing data relating to or correlated to the ripeness of the fruit, the RFID device being characterized in that : - the RFID label operates in UHF band having a pre-set frequency and/or impedance and/or power value and is intended to be directly or indirectly applied to a fruit to be monitored for its ripeness degree, - the reader of said RFID label is capable of detecting, at each reading, a signal transmitted by said RFID label to the reader which is correlated to the frequency and/or impedance and/or power of the RFID label , said transmitted signal having a frequency and/or impedance and/or power correlated or that can be correlated to the ripeness degree of the fruit on which said RFID label is directly or indirectly applied, - the means for processing data relating to or correlated to the ripeness of the fruit comprises means for processing data relating or correlated to the frequency and/or impedance and/or power of the transmitted signal and/or means for processing data relating or correlated to the frequency and/or impedance and/or power variation between the transmitted signal and the pre-set frequency and/or impedance and/or power value. - the RFID label operates in UHF band having a pre-set frequency and/or impedance and/or power value and is intended to be directly or indirectly applied to a fruit to be monitored for its ripeness degree, - the reader of said RFID label is capable of detecting, at each reading, a signal transmitted by said RFID label to the reader which is correlated to the frequency and/or impedance and/or power of the RFID label , said transmitted signal having a frequency and/or impedance and/or power correlated or that can be correlated to the ripeness degree of the fruit on which said RFID label is directly or indirectly applied, - the means for processing data relating to or correlated to the ripeness of the fruit comprises means for processing data relating or correlated to the frequency and/or impedance and/or power of the transmitted signal and/or means for processing data relating or correlated to the frequency and/or impedance and/or power variation between the transmitted signal and the pre-set frequency and/or impedance and/or power value.
A bio electrode composition comprising: (A) a polymer compound comprising a repeating unit-a having a structure selected from the group consisting of salts of ammonium, sodium, potassium, and silver formed with any of fluorosulfonic acid, fluorosulfonimide, and N-carbonyl-fluorosulfonamide; and (B) a silicone compound having a polyglycerin structure. (A) a polymer compound comprising a repeating unit-a having a structure selected from the group consisting of salts of ammonium, sodium, potassium, and silver formed with any of fluorosulfonic acid, fluorosulfonimide, and N-carbonyl-fluorosulfonamide; and (B) a silicone compound having a polyglycerin structure.
A stroke detection apparatus comprising: a data processing device comprising a processor, at least one wearable sensor configured to be worn by a user and configured to transmit a movement data of the user to the data processing device , the data processing device configured to receive the movement data, process the movement data to determine a probability of a user stroke, characterized in that the data processing device is configured to store the movement data at a fidelity dependent on a probability of a user stroke, wherein the fidelity of the stored movement data comprises at least one of a sample rate, a sample size, a bit rate, and a number of dimensions of the movement data, wherein where the probability of a user stroke is determined to be below a first threshold, the stroke detection apparatus is configured to operate in a first mode where the movement data is stored at a first fidelity, and wherein where the probability of a user stroke is determined to be above the first threshold, the stroke detection apparatus is configured to operate in a second mode where the movement data is stored at a second fidelity, wherein the second fidelity is higher than a first fidelity. a data processing device comprising a processor, at least one wearable sensor configured to be worn by a user and configured to transmit a movement data of the user to the data processing device , the data processing device configured to receive the movement data, process the movement data to determine a probability of a user stroke, characterized in that the data processing device is configured to store the movement data at a fidelity dependent on a probability of a user stroke, wherein the fidelity of the stored movement data comprises at least one of a sample rate, a sample size, a bit rate, and a number of dimensions of the movement data, wherein where the probability of a user stroke is determined to be below a first threshold, the stroke detection apparatus is configured to operate in a first mode where the movement data is stored at a first fidelity, and wherein where the probability of a user stroke is determined to be above the first threshold, the stroke detection apparatus is configured to operate in a second mode where the movement data is stored at a second fidelity, wherein the second fidelity is higher than a first fidelity.
A computer-implemented method, comprising: receiving, by a remote certificate authority, CA, gateway core from a certificate lifecycle management, CLM, application installed on a user device , a task request specifying a requested task and an identifier specifying a location for task execution; determining, by a task pickup interface on a remote CA gateway plug-in module and based on the task request, the requested task and that the location for task execution for the requested task is at an on-premises CA device ; in response to determining the requested task and that the location of the task is at the on-premises CA device , storing, in a data storage device on the remote CA gateway plug-in module , a request task data entry that links the task request to the location for task execution; providing, from the remote CA gateway plug-in module , a notification to an on-premises CA gateway , wherein the remote CA gateway plug-in module maintains a constant communication connection with the on-premises CA gateway via a persistent client-initiated communication protocol; and in response to the notification, providing, from the on-premises CA gateway to the on-premises CA device , the requested task for task execution. receiving, by a remote certificate authority, CA, gateway core from a certificate lifecycle management, CLM, application installed on a user device , a task request specifying a requested task and an identifier specifying a location for task execution; determining, by a task pickup interface on a remote CA gateway plug-in module and based on the task request, the requested task and that the location for task execution for the requested task is at an on-premises CA device ; in response to determining the requested task and that the location of the task is at the on-premises CA device , storing, in a data storage device on the remote CA gateway plug-in module , a request task data entry that links the task request to the location for task execution; providing, from the remote CA gateway plug-in module , a notification to an on-premises CA gateway , wherein the remote CA gateway plug-in module maintains a constant communication connection with the on-premises CA gateway via a persistent client-initiated communication protocol; and in response to the notification, providing, from the on-premises CA gateway to the on-premises CA device , the requested task for task execution.