mhurhangee/patent-ind-claim-en huggingface dataset:
A method of decoding data from a bitstream of encoded data using an image or video decoder, the method comprising: decoding residual data for a first set of samples, wherein the residual data is calculated based on an operation involving the first set of samples and a prediction, and reconstructing the first set of samples to produce a set of reconstructed samples; decoding prediction information for a second set of samples wherein the prediction information is used to generate a prediction in a prediction operation involving one of the reconstructed samples among the set of reconstructed samples, and that one reconstructed sample among said set of reconstructed samples serves as a basis for the prediction; and determining to refine that one reconstructed sample, and based on that determination, decoding refinement data for that one reconstructed sample, applying the decoded refinement data to that one reconstructed sample to produce a refined reconstructed sample, and storing the refined reconstructed sample for subsequent prediction operations, wherein the refinement data comprises refined residual data, and wherein applying the decoded refinement data to that one reconstructed sample includes adding the refined residual data to that one reconstructed sample. decoding residual data for a first set of samples, wherein the residual data is calculated based on an operation involving the first set of samples and a prediction, and reconstructing the first set of samples to produce a set of reconstructed samples; decoding prediction information for a second set of samples wherein the prediction information is used to generate a prediction in a prediction operation involving one of the reconstructed samples among the set of reconstructed samples, and that one reconstructed sample among said set of reconstructed samples serves as a basis for the prediction; and determining to refine that one reconstructed sample, and based on that determination, decoding refinement data for that one reconstructed sample, applying the decoded refinement data to that one reconstructed sample to produce a refined reconstructed sample, and storing the refined reconstructed sample for subsequent prediction operations, wherein the refinement data comprises refined residual data, and wherein applying the decoded refinement data to that one reconstructed sample includes adding the refined residual data to that one reconstructed sample. decoding refinement data for that one reconstructed sample, applying the decoded refinement data to that one reconstructed sample to produce a refined reconstructed sample, and storing the refined reconstructed sample for subsequent prediction operations, wherein the refinement data comprises refined residual data, and wherein applying the decoded refinement data to that one reconstructed sample includes adding the refined residual data to that one reconstructed sample.
A method for directed sanitization of memory, comprising: receiving, from a host external to a memory that is a solid state drive, SSD: logical block addresses, LBAs, associated with a file targeted for deletion; and a sanitization command (380-2); and responsive to receiving the sanitization command (380-2), initiating performing a deterministic garbage collection operation on the memory ; wherein performing the deterministic garbage collection operation results in physical erasure of all invalid data stored on the memory corresponding to the LBAs received from the host without losing valid data stored on the memory ; wherein the memory is coupled to a controller of the solid state drive, and wherein receiving the sanitization command (380-2) further comprises receiving a host-initiated sanitization command (380-2) at the controller from the host ; and wherein the method includes, prior to initiating performing the deterministic garbage collection operation, obtaining, from the host , updates regarding addresses corresponding to invalid data. receiving, from a host external to a memory that is a solid state drive, SSD: logical block addresses, LBAs, associated with a file targeted for deletion; and a sanitization command (380-2); and logical block addresses, LBAs, associated with a file targeted for deletion; and a sanitization command (380-2); and responsive to receiving the sanitization command (380-2), initiating performing a deterministic garbage collection operation on the memory ; wherein performing the deterministic garbage collection operation results in physical erasure of all invalid data stored on the memory corresponding to the LBAs received from the host without losing valid data stored on the memory ; wherein the memory is coupled to a controller of the solid state drive, and wherein receiving the sanitization command (380-2) further comprises receiving a host-initiated sanitization command (380-2) at the controller from the host ; and wherein the method includes, prior to initiating performing the deterministic garbage collection operation, obtaining, from the host , updates regarding addresses corresponding to invalid data.
A drone deployment system for a host vehicle comprising a processor , a memory storing instructions executable by the processor , a communication interface to transmit command signals from the processor to a deployable drone , and an actuator that is configured to release a door of the host vehicle , the door allowing the deployable drone to exit the host vehicle , the instructions causing the processor to: receive an alert signal; actuate the actuator so as to open the door of the host vehicle ; deploy the drone from the host vehicle in response to receiving the alert signal; select an operating mode in accordance with the alert signal; command the drone to follow the host vehicle and to present a perceptible alert; and select the perceptible alert according to the selected operating mode, the perceptible alert being associated with the selected operating mode and other perceptible alerts, or groups of perceptible alerts, being associated with other operating modes. receive an alert signal; actuate the actuator so as to open the door of the host vehicle ; deploy the drone from the host vehicle in response to receiving the alert signal; select an operating mode in accordance with the alert signal; command the drone to follow the host vehicle and to present a perceptible alert; and select the perceptible alert according to the selected operating mode, the perceptible alert being associated with the selected operating mode and other perceptible alerts, or groups of perceptible alerts, being associated with other operating modes.
Device for sealing a line feed-through through an opening in a wall region, having at least one sealing element which can be arranged around the line and which has an inner face for placing on the line and an outer face for bringing into con-tact with a wall which delimits the opening, and having a tensioning device for tensioning the sealing element so that the sealing element abuts with the inner face thereof in a sealing manner against the line and abuts with the outer face thereof in a sealing manner against the wall, wherein the tensioning device has two tensioning members which are arranged at both sides of the sealing el-ement and which are variable with respect to each other in terms of spacing, wherein at least one of the tensioning members has a plurality of annular segments (16', 16", 16′′′) which can be assembled to form an annular member , wherein each annular segment can be reversibly coupled in each case at the end side via a connection portion to an adjacent annular segment (16', 16", 16′′′), wherein the two ends of the annular segments (16', 16", 16′′′) which can be coupled by means of the connection portion in each case form a plug type receiving member for the connection portion , characterised in that each annular segment (16', 16", 16′′′) comprises in each case at both ends a hook portion , which forms the plug type receiving member and is open towards the outer side thereof, for partially engaging around the connection portion which can be coupled thereto. wherein at least one of the tensioning members has a plurality of annular segments (16', 16", 16′′′) which can be assembled to form an annular member , wherein each annular segment can be reversibly coupled in each case at the end side via a connection portion to an adjacent annular segment (16', 16", 16′′′), wherein the two ends of the annular segments (16', 16", 16′′′) which can be coupled by means of the connection portion in each case form a plug type receiving member for the connection portion , characterised in that each annular segment (16', 16", 16′′′) comprises in each case at both ends a hook portion , which forms the plug type receiving member and is open towards the outer side thereof, for partially engaging around the connection portion which can be coupled thereto.
A vaccine for use in a method for vaccinating a dog for canine diseases, wherein the vaccine comprises the following modified live viruses: 1) canine adenovirus type 2 (CAV-2); 2) canine distemper virus (CDV); and 3) canine parvovirus (CPV); characterized in that the vaccine is administered subcutaneously or orally in a first dose, orally in a second dose administered from 7 to 35 days inclusive after the first dose, orally in an optional third dose administered from 7 to 35 days inclusive after the second dose, and orally in one annual dose, about one year after the first dose.
A lighting circuit, comprising: a light source arrangement comprising a series connection or a parallel connection of a plurality of lighting channels; a current source for delivering a drive current to the light source arrangement, wherein each lighting channel comprises an LED arrangement and a current leakage path (Radd FW, Radd Lime, Radd CW) in parallel with the LED arrangement ; characterized in that each current leakage path comprises a resistor circuit (Radd FW, Radd Lime, Radd CW) or a linear current regulation circuit, wherein each current leakage path (Radd FW, Radd Lime, Radd CW) is arranged to bypass a current from the corresponding LED arrangement such that the light output of each LED arrangement is approximately equal when each lighting channel is driven by a substantially similar current. a light source arrangement comprising a series connection or a parallel connection of a plurality of lighting channels; a current source for delivering a drive current to the light source arrangement, wherein each lighting channel comprises an LED arrangement and a current leakage path (Radd FW, Radd Lime, Radd CW) in parallel with the LED arrangement ; characterized in that each current leakage path comprises a resistor circuit (Radd FW, Radd Lime, Radd CW) or a linear current regulation circuit, wherein each current leakage path (Radd FW, Radd Lime, Radd CW) is arranged to bypass a current from the corresponding LED arrangement such that the light output of each LED arrangement is approximately equal when each lighting channel is driven by a substantially similar current.
A process for preparation of co-precipitates of tadalafil with pharmaceutically acceptable excipients which comprises the following steps: a) dissolving tadalafil and at least one pharmaceutically acceptable excipient in an organic solvent or a mixture thereof or a mixture thereof with water at elevated temperature and/or pressure, b) adding solution obtained in step a) into precipitation media at temperature from 0°C to 40°C, preferably from 0°C to 20°C, more preferably from 0°C to 10°C, most preferably from 0°C to 5°C and at pressure from normal atmospheric pressure to pressure of 0.6MPa, preferably at normal atmospheric pressure to 0.4MPa, or at a pressure within the range of from 0.11 MPa to 0.6 MPa and preferably 0.12 MPa to 0.6 MPa, c) optionally, the suspension formed under step b) may be heated to reflux temperature and the solvents may be at least partially distilled off, d) isolating the obtained co-precipitate. a) dissolving tadalafil and at least one pharmaceutically acceptable excipient in an organic solvent or a mixture thereof or a mixture thereof with water at elevated temperature and/or pressure, b) adding solution obtained in step a) into precipitation media at temperature from 0°C to 40°C, preferably from 0°C to 20°C, more preferably from 0°C to 10°C, most preferably from 0°C to 5°C and at pressure from normal atmospheric pressure to pressure of 0.6MPa, preferably at normal atmospheric pressure to 0.4MPa, or at a pressure within the range of from 0.11 MPa to 0.6 MPa and preferably 0.12 MPa to 0.6 MPa, c) optionally, the suspension formed under step b) may be heated to reflux temperature and the solvents may be at least partially distilled off, d) isolating the obtained co-precipitate.
A turbine engine comprising: a frame defining a central aperture ; a shaft extending in a fore to aft direction through the central aperture ; a bearing assembly rotationally supporting the shaft ; a spring assembly comprising an inner ring circumscribing the bearing assembly and an outer ring mounted to the frame ; and a damper circumscribing the inner ring and separating the inner ring from the frame , characterised in that the spring assembly comprises a first and second set of circumferentially arranged spring fingers , having differing stiffnesses, and extending between the inner ring and the outer ring . a frame defining a central aperture ; a shaft extending in a fore to aft direction through the central aperture ; a bearing assembly rotationally supporting the shaft ; a spring assembly comprising an inner ring circumscribing the bearing assembly and an outer ring mounted to the frame ; and a damper circumscribing the inner ring and separating the inner ring from the frame , characterised in that the spring assembly comprises a first and second set of circumferentially arranged spring fingers , having differing stiffnesses, and extending between the inner ring and the outer ring .
A respiratory acoustic device comprising a housing with a hollow space , and a mouthpiece which has an air passage connected with the hollow space , wherein the housing contains a reflection end which reflects an airflow from the exhalation blown from the mouthpiece , and an open end which outputs the airflow of the exhalation blown from the mouthpiece , wherein the housing is in a tubular form, with one end thereof being the reflection end and the other end thereof being the open end , and with a hollow space penetrating from the reflection end to the open end , wherein the mouthpiece is located between the reflection end and the open end of the housing , a length between the mouthpiece and the reflection end is set to be shorter than a length between the mouthpiece and the open end , wherein the mouthpiece is configured such that a center axis of the air passage cross with an inner wall of the hollow space , which is linearly formed, of the housing at 85-95 degree, and wherein the device does not comprises a separated part that moves with the exhalation blown from the mouthpiece ; characterized in that the mouthpiece has a length that the user can hold in its mouth and is configured to be able to receive an exhalation while being held in a user's mouth, and the device is configured to generate the Helmholtz resonation between a noise produced from the exhalation and a cavity formed by a user's oral cavity and lower respiratory tract by infusing the exhalation through the mouthpiece into the housing , wherein the housing contains a reflection end which reflects an airflow from the exhalation blown from the mouthpiece , and an open end which outputs the airflow of the exhalation blown from the mouthpiece , wherein the housing is in a tubular form, with one end thereof being the reflection end and the other end thereof being the open end , and with a hollow space penetrating from the reflection end to the open end , wherein the mouthpiece is located between the reflection end and the open end of the housing , a length between the mouthpiece and the reflection end is set to be shorter than a length between the mouthpiece and the open end , wherein the mouthpiece is configured such that a center axis of the air passage cross with an inner wall of the hollow space , which is linearly formed, of the housing at 85-95 degree, and wherein the device does not comprises a separated part that moves with the exhalation blown from the mouthpiece ; characterized in that the mouthpiece has a length that the user can hold in its mouth and is configured to be able to receive an exhalation while being held in a user's mouth, and the device is configured to generate the Helmholtz resonation between a noise produced from the exhalation and a cavity formed by a user's oral cavity and lower respiratory tract by infusing the exhalation through the mouthpiece into the housing ,
A peptide comprising the sequence: GlyArgArgAlaAlaProGlyArgAibGlyGly (SEQ ID NO:1) for use in a method of preventing (i) epilepsy; or (ii) a seizure; which method comprises administering an effective amount of the peptide to a subject in need thereof. GlyArgArgAlaAlaProGlyArgAibGlyGly (SEQ ID NO:1) for use in a method of preventing (i) epilepsy; or (ii) a seizure; which method comprises administering an effective amount of the peptide to a subject in need thereof. (i) epilepsy; or (ii) a seizure;
A pool cleaning robot extraction system for extraction of a pool cleaning robot from a pool, the system comprises: a pool cleaning robot interface that is arranged to be coupled to a pool cleaning robot during an exit process during which the pool cleaning robot is extracted from the pool; and a pool cleaning robot manipulator that is coupled to the pool cleaning robot interface, wherein the pool cleaning robot manipulator is arranged to move the pool cleaning robot interface between a first and second portion; wherein when the pool cleaning robot interface is at the first position and is coupled to the pool cleaning robot, the pool cleaning robot is within the pool; wherein when the pool cleaning robot interface is at the second position and is coupled to the pool cleaning robot, the pool cleaning robot is positioned outside the pool; wherein the pool cleaning robot manipulator is an elevator drive system ; wherein the pool cleaning robot extraction system is characterized by further comprising: an elevator housing that at least partially surrounds: an elevator motor ; an elevator transmission system ; and an elevating and descending interface that is elevated and is descended by the elevator transmission system and is connected to a pool cleaning robot interface that supports the pool cleaning robot that is elevated and/or descended by the elevator drive system . an elevator motor ; an elevator transmission system ; and an elevating and descending interface that is elevated and is descended by the elevator transmission system and is connected to a pool cleaning robot interface that supports the pool cleaning robot that is elevated and/or descended by the elevator drive system .
A system , comprising: sensor-hubs physically coupled with industrial equipment , the industrial equipment being at an operational site; and each of the sensor-hubs comprising a controller and one or more sensors , wherein at least one of said sensor-hubs is located adjacent to a component of the industrial equipment that is a source of sensor data, and is configured to capture the sensor data associated with the industrial equipment ; wherein the sensor-hubs are configured in an order using a sequence established by a time of addition to a network , the network providing integrated support for secure, wireless transmission of the sensor data at the operational site; the sensor hubs are assigned into one or more groups and each sensor hub is assigned a group number, wherein a number of sensor hubs in a respective group is calculated according to a maximum bandwidth consumed by a group of sensor hubs , wherein the maximum bandwidth does not exceed a data bandwidth of the network ; and at least one processor at the operational site, the at least one processor being communicatively coupled with the sensor hubs via the network , wherein the sensor hubs are sequenced to transmit data across the network according to a current group number. sensor-hubs physically coupled with industrial equipment , the industrial equipment being at an operational site; and each of the sensor-hubs comprising a controller and one or more sensors , wherein at least one of said sensor-hubs is located adjacent to a component of the industrial equipment that is a source of sensor data, and is configured to capture the sensor data associated with the industrial equipment ; wherein the sensor-hubs are configured in an order using a sequence established by a time of addition to a network , the network providing integrated support for secure, wireless transmission of the sensor data at the operational site; the sensor hubs are assigned into one or more groups and each sensor hub is assigned a group number, wherein a number of sensor hubs in a respective group is calculated according to a maximum bandwidth consumed by a group of sensor hubs , wherein the maximum bandwidth does not exceed a data bandwidth of the network ; and at least one processor at the operational site, the at least one processor being communicatively coupled with the sensor hubs via the network , wherein the sensor hubs are sequenced to transmit data across the network according to a current group number.
A door leaf for a vehicle, in particular a rail vehicle, the door leaf having a door-leaf frame , a first skin arranged on a first main surface of the door-leaf frame and a second skin arranged on a second main surface opposite the first main surface , the door-leaf frame having an upper transverse profile and a lower transverse profile and a rear-edge longitudinal profile and a front-edge longitudinal prolife , the upper transverse profile being connected to the rear-edge longitudinal profile and the front-edge longitudinal prolife , and the lower transverse profile being connected to the rear-edge longitudinal profile and the front-edge longitudinal prolife , and the door leaf being designed such that a heat path runs through at least two different materials from the first skin to the second skin , these at least two different materials having different thermal conductivities, a first of the at least two different materials having a poorer thermal conductivity than a metal, in particular a poorer thermal conductivity than aluminium, characterised in that - the door-leaf frame is made of the first material or - at least one profile from the group comprising the upper transverse profile , the lower transverse profile , the rear-edge longitudinal profile and/or the front-edge longitudinal prolife has at least one web made of the first material, the web being arranged between two profile parts of the at least one profile such that the first skin is thermally decoupled from the second skin . - the door-leaf frame is made of the first material or - at least one profile from the group comprising the upper transverse profile , the lower transverse profile , the rear-edge longitudinal profile and/or the front-edge longitudinal prolife has at least one web made of the first material, the web being arranged between two profile parts of the at least one profile such that the first skin is thermally decoupled from the second skin .