mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a Physical Uplink Control Channel PUCCH resource for a user equipment, wherein the PUCCH resource is used to transmit a Hybrid Automatic Repeat Request HARQ feedback of the user equipment with respect to its corresponding Physical Downlink Shared Channel PDSCH, the method comprising steps of: the user equipment acquiring an index value for a Control Channel Element CCE scheduled for the user equipment in an Enhanced Physical Downlink Control Channel E-PDCCH; and the user equipment determining, based on the index value and a first parameter, the PUCCH resource used to transmit the HARQ feedback of the user equipment with respect to its corresponding PDSCH, the first parameter representing a reference value that should be used when determining the PUCCH resource used to transmit the HARQ feedback of the user equipment with respect to its corresponding PDSCH, if scheduling the CCE for the user equipment in the E-PDCCH, wherein the first parameter consists of a second parameter and a third parameter, wherein the second parameter represents a reference value that should be used when determining the PUCCH resource used to transmit the HARQ feedback of the user equipment with respect to its corresponding PDSCH, if scheduling the CCE for the user equipment in a Physical Downlink Control Channel PDCCH; the third parameter represents an offset between the first parameter and the second parameter; and wherein the third parameter is calculated based on a setting of the number of resources used by a Physical Control Format Indication Channel PCFICH and a Physical Hybrid Repeat Indication Channel PHICH, the number of system antennas, and downlink bandwidth of a cell accessed by the user equipment, further comprising steps of: calculating the third parameter by the user equipment itself; receiving the second parameter from a serving base station of the user equipment by the user equipment through signaling.
A method for wireless communication, performed by a user equipment, UE, characterized in that the method comprises: being configured, by a base station, to receive a downlink channel in a set of symbols for a serving cell; and reporting, to the base station, an acknowledgement of the downlink channel in an uplink transmission, wherein the set of symbols are within a channel occupancy of the serving cell, wherein the channel occupancy of the serving cell is indicated by at least one of the followings: a downlink control information, DCI, format 2_0 or a semi-static channel occupancy. being configured, by a base station, to receive a downlink channel in a set of symbols for a serving cell; and reporting, to the base station, an acknowledgement of the downlink channel in an uplink transmission, wherein the set of symbols are within a channel occupancy of the serving cell, wherein the channel occupancy of the serving cell is indicated by at least one of the followings: a downlink control information, DCI, format 2_0 or a semi-static channel occupancy. wherein the set of symbols are within a channel occupancy of the serving cell, wherein the channel occupancy of the serving cell is indicated by at least one of the followings: a downlink control information, DCI, format 2_0 or a semi-static channel occupancy.
A foam injection system (301, 701) for a cementitious slurry mixing and dispensing assembly, the foam injection system (301, 701) comprising: a foam injection body (305, 605), the foam injection body (305, 605) defining a slurry passageway (310, 610) and a port passageway (315, 615), the port passageway (315, 615) having a port opening (317, 617) in fluid communication with the slurry passageway (310, 610); a first port insert (100, 400), the first port insert (100, 400) defining a first foam passageway (115, 415) having a first orifice (140, 440) with a first orifice size (∅ 1, ∅ 4), the first port insert (100, 400) adapted to removably mount to the foam injection body (305, 605) such that the first foam passageway (115, 415) is in fluid communication with the slurry passageway (310, 610) via the port opening (317, 617) of the port passageway (315, 615); and a second port insert (200, 500), the second port insert (200, 500) defining a second foam passageway (215, 515) having a second orifice (240, 540) with a second orifice size (∅ 3, ∅ 5), the second port insert (200, 500) adapted to removably mount to the foam injection body (305, 605) such that the second foam passageway (215, 515) is in fluid communication with the slurry passageway (310, 610) via the port opening (317, 617) of the port passageway (315, 615), and the second orifice size (∅ 3, ∅ 5) being different than the first orifice size (∅ 1, ∅ 4). a foam injection body (305, 605), the foam injection body (305, 605) defining a slurry passageway (310, 610) and a port passageway (315, 615), the port passageway (315, 615) having a port opening (317, 617) in fluid communication with the slurry passageway (310, 610); a first port insert (100, 400), the first port insert (100, 400) defining a first foam passageway (115, 415) having a first orifice (140, 440) with a first orifice size (∅ 1, ∅ 4), the first port insert (100, 400) adapted to removably mount to the foam injection body (305, 605) such that the first foam passageway (115, 415) is in fluid communication with the slurry passageway (310, 610) via the port opening (317, 617) of the port passageway (315, 615); and a second port insert (200, 500), the second port insert (200, 500) defining a second foam passageway (215, 515) having a second orifice (240, 540) with a second orifice size (∅ 3, ∅ 5), the second port insert (200, 500) adapted to removably mount to the foam injection body (305, 605) such that the second foam passageway (215, 515) is in fluid communication with the slurry passageway (310, 610) via the port opening (317, 617) of the port passageway (315, 615), and the second orifice size (∅ 3, ∅ 5) being different than the first orifice size (∅ 1, ∅ 4).
A pillow for a patient interface structure configured to deliver a flow of breathable gas to a patient, comprising: a neck portion (332, 1200) arranged at a top of a plenum, wherein said neck portion defining a passage in communication with the plenum configured to receive the flow of breathable gas from the plenum, a conical portion (330, 1000) extending from the neck portion (332, 1209) and comprising an orifice (5, 354) configured to deliver the flow of breathable gas to the patient and a sealing surface configured to engage the naris of the patient, wherein the sealing surface and the orifice (5, 354) are concentric with the neck portion (332, 1200) and the sealing surface of the conical portion has a rounded portion adjacent a base portion of the conical portion, and a radius of the rounded portion on a side of the conical portion configured to engage the naris of the patient is smaller than a radius of the rounded portion on an opposing side of the conical portion configured to engage the upper lip of the patient, the larger radius on the opposing side has a thickened region resulting in a spring structure of the conical portion (334, 1100) to cause a posterior surface of the plenum to be rotated away from the upper lip of the patient upon insertion of the pillow into a naris of the patient. a neck portion (332, 1200) arranged at a top of a plenum, wherein said neck portion defining a passage in communication with the plenum configured to receive the flow of breathable gas from the plenum, a conical portion (330, 1000) extending from the neck portion (332, 1209) and comprising an orifice (5, 354) configured to deliver the flow of breathable gas to the patient and a sealing surface configured to engage the naris of the patient, wherein the sealing surface and the orifice (5, 354) are concentric with the neck portion (332, 1200) and the sealing surface of the conical portion has a rounded portion adjacent a base portion of the conical portion, and a radius of the rounded portion on a side of the conical portion configured to engage the naris of the patient is smaller than a radius of the rounded portion on an opposing side of the conical portion configured to engage the upper lip of the patient, the larger radius on the opposing side has a thickened region resulting in a spring structure of the conical portion (334, 1100) to cause a posterior surface of the plenum to be rotated away from the upper lip of the patient upon insertion of the pillow into a naris of the patient.
Method for producing micromechanical components, in which a liquid starting material, which can be cured by irradiation, is applied onto a substrate, and the starting material is cured by local irradiation using a first radiation source in a partial volume in order to produce at least one three-dimensional structure, characterized in that the three-dimensional structure delimits at least one closed cavity, which encloses at least part of the liquid starting material, wherein the radiation is focused on a focal point and by selecting the focal position a three-dimensional structure is written into the starting material by point-to-point exposure.
Method of operating a driver model for controlling a vehicle to perform a test run for said vehicle, wherein the driver model comprises a vehicle module which determines a pedal position to be set on the vehicle, wherein a required power is determined by means of the vehicle module as a component of a total power which can be provided by a drive system of the vehicle, wherein the required power corresponds to a power required to move the vehicle at a required speed and/or a required acceleration along a predefined road course, and wherein a value of a permissible pedal position is assigned to the required power, and wherein the value of the permissible pedal position is transmitted to the driver model for controlling the vehicle, characterized in that the driver model comprises a control module by means of which a actuating value for adjusting the accelerator pedal is determined, the control value being dynamically limited by an upper limit value which is determined on the basis of the value of the permissible pedal position. the driver model comprises a vehicle module which determines a pedal position to be set on the vehicle, wherein a required power is determined by means of the vehicle module as a component of a total power which can be provided by a drive system of the vehicle, wherein the required power corresponds to a power required to move the vehicle at a required speed and/or a required acceleration along a predefined road course, and wherein a value of a permissible pedal position is assigned to the required power, and wherein the value of the permissible pedal position is transmitted to the driver model for controlling the vehicle, characterized in that the driver model comprises a control module by means of which a actuating value for adjusting the accelerator pedal is determined, the control value being dynamically limited by an upper limit value which is determined on the basis of the value of the permissible pedal position.
Electronic chip comprising: first and second superimposed shields; a first photon detector located between the first and second shields; a substrate having a back face covered with the second shield, and a front face in and on which the first detector is located, the second shield leaving free the back face of a portion of the substrate; a second photon detector located in and on said portion; and a circuit for detecting a reduced deviation between values of arrival frequency of photons on the detectors. first and second superimposed shields; a first photon detector located between the first and second shields; a substrate having a back face covered with the second shield, and a front face in and on which the first detector is located, the second shield leaving free the back face of a portion of the substrate; a second photon detector located in and on said portion; and a circuit for detecting a reduced deviation between values of arrival frequency of photons on the detectors.
A method of operating a fetch pipeline of a processor comprising a cache having a tag array, a data array and a controller configured to select between a serial cache access mode and a parallel cache access mode, comprising: performing a first cache access based on a control signal from the controller indicating selection of a serial cache access mode, the first cache access comprising: performing a first tag access; storing tag data corresponding to the first tag access; and prior to performing a first data array access based on the stored tag data, receiving from the controller a control signal indicating selection of a parallel cache access mode; performing a second cache access based on the control signal indicating selection of a parallel cache access mode, the second cache access comprising performing a second tag access in parallel with a second data array access, characterized by performing the first data array access after the second cache access. performing a first cache access based on a control signal from the controller indicating selection of a serial cache access mode, the first cache access comprising: performing a first tag access; storing tag data corresponding to the first tag access; and prior to performing a first data array access based on the stored tag data, receiving from the controller a control signal indicating selection of a parallel cache access mode; performing a first tag access; storing tag data corresponding to the first tag access; and prior to performing a first data array access based on the stored tag data, receiving from the controller a control signal indicating selection of a parallel cache access mode; performing a second cache access based on the control signal indicating selection of a parallel cache access mode, the second cache access comprising performing a second tag access in parallel with a second data array access, characterized by performing the first data array access after the second cache access.
Delay-locked loop arrangement comprising - a steering unit configured to generate a reference clock signal (S_rclk) and a main clock signal (S_mclk), wherein the reference clock signal (S_rclk) and the main clock signal (S mclk) - feature a first frequency during a performance mode of operation; and - feature a second frequency being lower than the first frequency and a phase delay with respect to each other during a sleep mode of operation; and - a delay-locked loop circuit comprising - a phase detector for comparing the reference clock signal (S_rclk) and a feedback signal (S_fb) and for generating an error signal (S_err) depending on said comparison; and - a delay line arranged to generate the feedback signal (S_fb) and an output signal (S_out) by delaying the main clock signal (S mclk) depending on the error signal (S_err). - a steering unit configured to generate a reference clock signal (S_rclk) and a main clock signal (S_mclk), wherein the reference clock signal (S_rclk) and the main clock signal (S mclk) - feature a first frequency during a performance mode of operation; and - feature a second frequency being lower than the first frequency and a phase delay with respect to each other during a sleep mode of operation; and - feature a first frequency during a performance mode of operation; and - feature a second frequency being lower than the first frequency and a phase delay with respect to each other during a sleep mode of operation; and - a delay-locked loop circuit comprising - a phase detector for comparing the reference clock signal (S_rclk) and a feedback signal (S_fb) and for generating an error signal (S_err) depending on said comparison; and - a delay line arranged to generate the feedback signal (S_fb) and an output signal (S_out) by delaying the main clock signal (S mclk) depending on the error signal (S_err). - a phase detector for comparing the reference clock signal (S_rclk) and a feedback signal (S_fb) and for generating an error signal (S_err) depending on said comparison; and - a delay line arranged to generate the feedback signal (S_fb) and an output signal (S_out) by delaying the main clock signal (S mclk) depending on the error signal (S_err).
An evacuation deterrence system for an amusement attraction, comprising: an elongated main body; a handle portion disposed at a first end of the elongated main body; a latch mechanism disposed at a second end of the elongated main body, wherein the latch mechanism is configured in use to latch onto a member of an enclosure; an actuation mechanism disposed along a length of the elongated main body between the first and second ends (20, 24) of the elongated main body, wherein the actuation mechanism is configured to actuate the latch mechanism; and a positioning mechanism disposed along the length of the elongated main body between the first and second ends (20, 24) of the elongated main body, wherein the positioning mechanism is configured in use to fix a first location of the elongated main body relative to the enclosure, and wherein the elongated main body is configured in use to be extended relative to the enclosure when the first location of the elongated main body is fixed relative to the enclosure via the positioning mechanism. attraction, comprising: an elongated main body; a handle portion disposed at a first end of the elongated main body; a latch mechanism disposed at a second end of the elongated main body, wherein the latch mechanism is configured in use to latch onto a member of an enclosure; an actuation mechanism disposed along a length of the elongated main body between the first and second ends (20, 24) of the elongated main body, wherein the actuation mechanism is configured to actuate the latch mechanism; and a positioning mechanism disposed along the length of the elongated main body between the first and second ends (20, 24) of the elongated main body, wherein the positioning mechanism is configured in use to fix a first location of the elongated main body relative to the enclosure, and wherein the elongated main body is configured in use to be extended relative to the enclosure when the first location of the elongated main body is fixed relative to the enclosure via the positioning mechanism.
A formulation for use in managing knee joint pain in a subject, the formulation comprising: water and a peptide consisting of an amino acid sequence TDLQERGDNDISPFSGDGQPFKD (SEQ. ID No:1) combined in an injectable aqueous formulation, wherein the use comprises injecting a joint of the subject whereby the formulation reduces knee joint pain in the subject wherein the subject has been diagnosed as experiencing knee joint pain when the patient is going up or down stairs wherein the subject is diagnosed as experiencing less knee joint pain going up or down stairs after the injecting wherein the peptide is used in a dose in a range of 20 mg to 1,200 mg per one injection whereby the formulation reduces knee joint pain in the subject in the absence of any observable change in cartilage of the knee joint. the use comprises injecting a joint of the subject whereby the formulation reduces knee joint pain in the subject wherein the subject has been diagnosed as experiencing knee joint pain when the patient is going up or down stairs wherein the subject is diagnosed as experiencing less knee joint pain going up or down stairs after the injecting wherein the peptide is used in a dose in a range of 20 mg to 1,200 mg per one injection whereby the formulation reduces knee joint pain in the subject in the absence of any observable change in cartilage of the knee joint.
A filtering pulley comprising a hub adapted to be fixed to a rotating shaft, a pulley ring mounted coaxial and rotationally free on said hub, at least one elastic assembly interposed between said hub and said pulley ring and a damper for damping the relative oscillations between said hub and said pulley ring, said damper having a first damping level for relative rotations between said hub and said pulley ring which are smaller than a predetermined angle and a second damping level, which is greater than the first level, for relative rotations between said hub and said pulley ring which are larger than said predetermined angle and in that said damping is asymmetrical according to the relative direction of rotation between said hub and said pulley ring, characterized in that said damper comprises a C-bushing which slidingly cooperates with a cylindrical surface which is integral with one of said hub and said pulley ring and an open metallic ring mounted with radial driving onto said bush and coupled rotationally thereto, said ring comprising at least one end protrusion adapted to cooperate with an end (18a, 18b) of an opening of another of said hub and said pulley ring.
A method for manufacturing an alveolar core structure for an acoustic attenuation panel, the alveolar core structure including a plurality of adjoining acoustic cells (10, 10') which form the alveolar core, each acoustic cell extending along a main axis corresponding to an axis of propagation of a sound wave, from a front end up to a rear end, and being delimited by a peripheral wall defining a primary duct for circulating the sound wave, at least one cell including a secondary duct (20, 20') for circulating the sound wave, the secondary duct comprising a secondary duct wall (22, 22'), having a first end proximal to the front end of the cell, the first end defining a sound wave inlet, and an opposite second end, the secondary duct comprising a sound wave outlet located near the rear end of the cell, the method comprising: - a fastening step in which: - on a first longitudinal plate, adhesive tapes parallel to each other and transverse to the longitudinal direction of said first plate are applied, so as to form nodal areas, - the secondary duct (20, 20') in the form of a flattened element (34, 34') is fastened, on the first plate between two nodal areas, by gluing at its sound wave inlet, - a second plate is applied so that it is fastened by gluing to the nodal areas, and to the flattened element (34, 34') at the wave inlet; - a deployment step in which the first and second plates are moved away from one another so as to form the peripheral wall of the cells (10, 10') and so that the flattened element (34, 34') is deployed to form the secondary duct (20, 20'). - a fastening step in which: - on a first longitudinal plate, adhesive tapes parallel to each other and transverse to the longitudinal direction of said first plate are applied, so as to form nodal areas, - the secondary duct (20, 20') in the form of a flattened element (34, 34') is fastened, on the first plate between two nodal areas, by gluing at its sound wave inlet, - a second plate is applied so that it is fastened by gluing to the nodal areas, and to the flattened element (34, 34') at the wave inlet; - a deployment step in which the first and second plates are moved away from one another so as to form the peripheral wall of the cells (10, 10') and so that the flattened element (34, 34') is deployed to form the secondary duct (20, 20').