mhurhangee/ep-ind-claims huggingface dataset:
A method for temporal shift calibration between reception channels (V 1,..., V N) of a multichannel radioelectric reception system, the system including a set of radioelectric reception channels (V 1,..., V N), each reception channel including a reception chain (6 1,.., 6 N) delivering an electrical signal at the input of an analog-digital converter (8 1,..., 8 N) having an associated sampling frequency, and an interfacing module (10 1,..., 10 N) connected at the output of said analog-digital converter (8 1,..., 8 N) and suitable for supplying sets of digitized signal samples at the input of a digital signal processing module (12 1,...,12 N) including one or several programmable digital components, the method comprising, after the reception system is powered on: - injecting (40, 60) a same random signal, representing a noise obtained from a noise source (14, 29), on all of the reception channels, - for at least one pair of reception channels including a first channel and a second channel, estimating (52, 76) a temporal shift between digitized signal samples supplied by said first and second channels, using a calculation of an intercorrelation function between a first set of samples obtained by the first reception channel and a second set of samples obtained by the second reception channel, - storing the estimated temporal shift in combination with said pair of channels. - injecting (40, 60) a same random signal, representing a noise obtained from a noise source (14, 29), on all of the reception channels, - for at least one pair of reception channels including a first channel and a second channel, estimating (52, 76) a temporal shift between digitized signal samples supplied by said first and second channels, using a calculation of an intercorrelation function between a first set of samples obtained by the first reception channel and a second set of samples obtained by the second reception channel, - storing the estimated temporal shift in combination with said pair of channels.
A turbine section for a gas turbine engine, the turbine section comprising: a rotor comprising: a rim defining an outer diameter surface; a slot through the rim across the outer diameter surface; a blade comprising: an airfoil; a platform surrounding a base of the airfoil; a shank extending from the platform opposite the airfoil; a root extending from the shank for connecting to the slot; a nub extending from the shank beneath the platform; and a rim seal disposed between the outer diameter surface and the nub; and a cover plate; characterised in that the cover plate comprises: a disk portion extending across the rotor to connect to the rim; and a seal portion extending from the disk portion to engage the shank and positioned adjacent an interface between the root and the slot; wherein the cover plate forms a cooling path comprising: an opening in the cover plate; a leakage gap between the seal portion and rim; and a passage between the outer diameter surface and the rim seal. a rotor comprising: a rim defining an outer diameter surface; a slot through the rim across the outer diameter surface; a rim defining an outer diameter surface; a slot through the rim across the outer diameter surface; a blade comprising: an airfoil; a platform surrounding a base of the airfoil; a shank extending from the platform opposite the airfoil; a root extending from the shank for connecting to the slot; a nub extending from the shank beneath the platform; and an airfoil; a platform surrounding a base of the airfoil; a shank extending from the platform opposite the airfoil; a root extending from the shank for connecting to the slot; a nub extending from the shank beneath the platform; and a rim seal disposed between the outer diameter surface and the nub; and a cover plate; characterised in that the cover plate comprises: a disk portion extending across the rotor to connect to the rim; and a seal portion extending from the disk portion to engage the shank and positioned adjacent an interface between the root and the slot; a disk portion extending across the rotor to connect to the rim; and a seal portion extending from the disk portion to engage the shank and positioned adjacent an interface between the root and the slot; wherein the cover plate forms a cooling path comprising: an opening in the cover plate; a leakage gap between the seal portion and rim; and a passage between the outer diameter surface and the rim seal. an opening in the cover plate; a leakage gap between the seal portion and rim; and a passage between the outer diameter surface and the rim seal.
A method comprising: receiving, with a flow cache of a network device, a lookup key associated with a packet flow, wherein the packet flow is one of a plurality of packet flows processed by the network device, wherein the flow cache stores information about a portion of the plurality of packet flows processed by the network device, and wherein the flow cache determines whether to store information about the packet flow by at least applying a selection criterion to processing of the lookup key by a Bloom filter of the network device; determining, with the flow cache, whether the lookup key is stored in the flow cache; and when the lookup key is stored in the flow cache, retrieving, with the flow cache, a stored result associated with the lookup key and outputting the stored result; sending, from a prefix lookup module to the Bloom filter, a set of prefixes for processing with the Bloom filter; initializing, with a controller, a clock cycle counter to a value; incrementing, with the controller, the value of the clock cycle counter for each clock cycle that elapses until the controller receives a result from a search; determining, with the flow cache, whether the value of the clock cycle counter exceeds a threshold value; and storing, with the flow cache, the lookup key and the result when the value of the clock cycle counter exceeds the threshold value. receiving, with a flow cache of a network device, a lookup key associated with a packet flow, wherein the packet flow is one of a plurality of packet flows processed by the network device, wherein the flow cache stores information about a portion of the plurality of packet flows processed by the network device, and wherein the flow cache determines whether to store information about the packet flow by at least applying a selection criterion to processing of the lookup key by a Bloom filter of the network device; determining, with the flow cache, whether the lookup key is stored in the flow cache; and when the lookup key is stored in the flow cache, retrieving, with the flow cache, a stored result associated with the lookup key and outputting the stored result; sending, from a prefix lookup module to the Bloom filter, a set of prefixes for processing with the Bloom filter; initializing, with a controller, a clock cycle counter to a value; incrementing, with the controller, the value of the clock cycle counter for each clock cycle that elapses until the controller receives a result from a search; determining, with the flow cache, whether the value of the clock cycle counter exceeds a threshold value; and storing, with the flow cache, the lookup key and the result when the value of the clock cycle counter exceeds the threshold value.
Wall-mounted fluid distribution assembly (1, 25), comprising a fluid distribution outlet comprising: - an outlet body of elongate shape along an axis, comprising a central passage passing axially through the outlet body, and an annular groove formed in the peripheral wall of the outlet body, - a pipe in fluidic communication with the central passage of the outlet body, the pipe being secured to the outlet body along an axis perpendicular to the axis of the outlet body, and - a yoke piece comprising an opening bordered by an arcuate edge that comes to be housed in the annular groove of the outlet body, when the outlet body is positioned in the yoke piece, the yoke piece also comprising drilled holes (8a, 8b, 8c) passing through the yoke piece, said drilled holes (8a, 8b, 8c) being dimensioned so as to receive means for anchoring by screwing, characterized in that it also comprises a rigid casing arranged around the outlet body, the rigid casing having a generally parallelepipedal shape and comprising: - an internal compartment comprising the fluid distribution outlet, and a front face bearing a pivoting cover giving access to said internal compartment, the front face comprising a central orifice that is passed through by a part of the distribution fluid outlet, the front face being fastened to the body of the outlet by a nut element that comes to be screwed onto the outlet body, and - an opening on the top of the casing making it possible to let the pipe of the outlet pass, in the vertical position, and wherein at least one of the drilled holes (8a, 8b, 8c) in the yoke piece is of circular shape and at least two of said drilled holes (8a, 8b, 8c) are of oblong shape. - an outlet body of elongate shape along an axis, comprising a central passage passing axially through the outlet body, and an annular groove formed in the peripheral wall of the outlet body, - a pipe in fluidic communication with the central passage of the outlet body, the pipe being secured to the outlet body along an axis perpendicular to the axis of the outlet body, and - a yoke piece comprising an opening bordered by an arcuate edge that comes to be housed in the annular groove of the outlet body, when the outlet body is positioned in the yoke piece, the yoke piece also comprising drilled holes (8a, 8b, 8c) passing through the yoke piece, said drilled holes (8a, 8b, 8c) being dimensioned so as to receive means for anchoring by screwing, - an internal compartment comprising the fluid distribution outlet, and a front face bearing a pivoting cover giving access to said internal compartment, the front face comprising a central orifice that is passed through by a part of the distribution fluid outlet, the front face being fastened to the body of the outlet by a nut element that comes to be screwed onto the outlet body, and - an opening on the top of the casing making it possible to let the pipe of the outlet pass, in the vertical position,
A system for treating an eye of a patient, the eye including a fluid posterior to a cornea, the system comprising: a femtosecond laser configured for directing femtosecond energy along a path; an optical system disposed along the path from the laser, the optical system including a focusing lens and a scanner configured to scan a non-plasma-generating focus of the femtosecond energy along a path within the patient's eye; a sensor; and a computing device communicatively coupled with the sensor; wherein the path extends posterior to the patient's cornea within the fluid so that the path includes a first focus location disposed within a tissue of the eye, wherein the sensor is oriented along the path so as to sense a first signal associated with the first focus location within the eye, characterized in that the path includes a second focus location disposed within the cornea and the sensor is configured to sense a second signal associated with the second focus location within the eye, wherein the sensor comprises an image acquisition device configured for acquiring a first reflectance image associated with the first focus location and a second reflectance image associated with the second focus location, and wherein the computing device is configured for determining a location of an interface between the fluid and a tissue of the eye in response to the first signal and the second signal based on a comparison between the first reflectance image and the second reflectance image. a femtosecond laser configured for directing femtosecond energy along a path; an optical system disposed along the path from the laser, the optical system including a focusing lens and a scanner configured to scan a non-plasma-generating focus of the femtosecond energy along a path within the patient's eye; a sensor; and a computing device communicatively coupled with the sensor; wherein the path extends posterior to the patient's cornea within the fluid so that the path includes a first focus location disposed within a tissue of the eye, wherein the sensor is oriented along the path so as to sense a first signal associated with the first focus location within the eye, characterized in that the path includes a second focus location disposed within the cornea and the sensor is configured to sense a second signal associated with the second focus location within the eye, wherein the sensor comprises an image acquisition device configured for acquiring a first reflectance image associated with the first focus location and a second reflectance image associated with the second focus location, and wherein the computing device is configured for determining a location of an interface between the fluid and a tissue of the eye in response to the first signal and the second signal based on a comparison between the first reflectance image and the second reflectance image.
A frame for sewing upper pillows on covering shells for mattresses, which comprises four perimetric walls; each wall being perpendicular to the two contiguous walls and comprising at least one laminar portion that constitutes a resting surface, said laminar portion being co-planar with a lower edge of said wall, at least one of said walls comprising at least one locking element for at least one component, selected from between an upper pillow and a covering shell, arranged on a respective laminar portion, characterized in that at least one of said walls comprises at least two bands (5, 6) and (7, 8) that are mutually aligned and can slide with respect to each other in order to vary the overall length of the wall, between said at least two bands (5, 6) and (7, 8) of said wall there being interposed a linear actuator (9, 10) for the controlled mutual sliding thereof, said actuator (9, 10) being adapted to be controlled by a respective control and management unit of a sewing machine that is functionally associatable with said frame.
A method of video decoding, the method comprising: receiving information indicating a prediction mode of a current block, wherein the prediction mode is a merge mode; receiving index information indicating a candidate from a merge candidate list; scaling a motion vector of a reference layer based on a resolution ratio of the reference layer and a current layer; deriving an inter-layer motion vector based on the scaled motion vector; deriving inter-layer motion information including the inter-layer motion vector; constructing the merge candidate list, wherein the merge candidate list includes spatial candidates representing motion information of neighboring blocks (A 0, A 1, B 0, B 1, B 2) of the current block and an inter-layer candidate representing the inter-layer motion information; selecting the candidate from the merge candidate list based on the index information, wherein the candidate indicated by the index information is the inter-layer candidate; predicting the current block in the current layer using the inter-layer motion information represented by the inter-layer candidate selected from the merge candidate list based on the index information; generating a reconstructed picture based on a result of the prediction for the current block; and performing deblocking filtering on the reconstructed picture. receiving information indicating a prediction mode of a current block, wherein the prediction mode is a merge mode; receiving index information indicating a candidate from a merge candidate list; scaling a motion vector of a reference layer based on a resolution ratio of the reference layer and a current layer; deriving an inter-layer motion vector based on the scaled motion vector; deriving inter-layer motion information including the inter-layer motion vector; constructing the merge candidate list, wherein the merge candidate list includes spatial candidates representing motion information of neighboring blocks (A 0, A 1, B 0, B 1, B 2) of the current block and an inter-layer candidate representing the inter-layer motion information; selecting the candidate from the merge candidate list based on the index information, wherein the candidate indicated by the index information is the inter-layer candidate; predicting the current block in the current layer using the inter-layer motion information represented by the inter-layer candidate selected from the merge candidate list based on the index information; generating a reconstructed picture based on a result of the prediction for the current block; and performing deblocking filtering on the reconstructed picture.
A wireless communication method executed by a user equipment, UE, of a communication system, for determining a size of transport block, TBS, when performing communication between the UE and a base station, the method comprising: determining a downlink control information, DCI, format; determining, based on the DCI format, a quantity of resource elements, REs, in one resource block, occupied by a demodulation reference signal, DMRS; wherein when the DCI format is DCI format 0_0 or DCI format 1_0, the configuration type of the DMRS is DMRS configuration type 1, the quantity of symbols occupied by the DMRS is 1, and the quantity of symbols occupied by the transport block is greater than or equal to 7, the quantity of REs occupied by the DMRS is 12, 24, or 36; or when the DCI format is DCI format 0_0 or DCI format 1_0, the configuration type of the DMRS is DMRS configuration type 1, the quantity of symbols occupied by the DMRS is 1, and the quantity of symbols occupied by the transport block is less than 7, the quantity of REs occupied by the DMRS is 6, 12, or 24; and determining the TBS based on the quantity of REs occupied by the DMRS. determining a downlink control information, DCI, format; determining, based on the DCI format, a quantity of resource elements, REs, in one resource block, occupied by a demodulation reference signal, DMRS; wherein when the DCI format is DCI format 0_0 or DCI format 1_0, the configuration type of the DMRS is DMRS configuration type 1, the quantity of symbols occupied by the DMRS is 1, and the quantity of symbols occupied by the transport block is greater than or equal to 7, the quantity of REs occupied by the DMRS is 12, 24, or 36; or when the DCI format is DCI format 0_0 or DCI format 1_0, the configuration type of the DMRS is DMRS configuration type 1, the quantity of symbols occupied by the DMRS is 1, and the quantity of symbols occupied by the transport block is less than 7, the quantity of REs occupied by the DMRS is 6, 12, or 24; and determining the TBS based on the quantity of REs occupied by the DMRS.
A method for optimizing the operating voltage Vop of an avalanche photo-diode, the method comprising: setting Vop to a first value which is less than an initially estimated breakdown voltage for the APD; determining a first response of the APD to an on-board light source at the first Vop value; setting Vop to an updated value which is less than the initially estimated breakdown voltage and different from the previous value of Vop; determining an updated response of the APD to the on-board light source; determining an updated estimated breakdown voltage according to the updated value of Vop, the updated response, the immediately previous value of Vop, and the immediately previous response, wherein determining the updated estimated breakdown voltage Vb includes applying the formula Vb = R 2 ∗ Vop 2 − R 1 ∗ Vop 1 / R 2 − R 1 where Vop1 is the immediately previous value of Vop, R1 is the response of the APD for Vop = Vop1, Vop2 is the updated value of Vop, and R2 is the response of the APD for Vop = Vop2; setting Vop to an offset value which is offset below the updated estimated breakdown voltage by a fixed offset amount; and repeating the steps of determining an updated response, determining an updated estimated breakdown voltage, and setting the Vop to an offset value, until at least one of a convergence criterion is met and a maximum number of repetitions is reached, each estimated breakdown voltage being determined according to a most recently set value of Vop, a most recent response, an immediately previous value of Vop, and an immediately previous response. setting Vop to a first value which is less than an initially estimated breakdown voltage for the APD; determining a first response of the APD to an on-board light source at the first Vop value; setting Vop to an updated value which is less than the initially estimated breakdown voltage and different from the previous value of Vop; determining an updated response of the APD to the on-board light source; determining an updated estimated breakdown voltage according to the updated value of Vop, the updated response, the immediately previous value of Vop, and the immediately previous response, wherein determining the updated estimated breakdown voltage Vb includes applying the formula Vb = R 2 ∗ Vop 2 − R 1 ∗ Vop 1 / R 2 − R 1 where Vop1 is the immediately previous value of Vop, R1 is the response of the APD for Vop = Vop1, Vop2 is the updated value of Vop, and R2 is the response of the APD for Vop = Vop2; setting Vop to an offset value which is offset below the updated estimated breakdown voltage by a fixed offset amount; and repeating the steps of determining an updated response, determining an updated estimated breakdown voltage, and setting the Vop to an offset value, until at least one of a convergence criterion is met and a maximum number of repetitions is reached, each estimated breakdown voltage being determined according to a most recently set value of Vop, a most recent response, an immediately previous value of Vop, and an immediately previous response.
A method for delivering the same supplemental content within streamed media to a plurality of currently connected clients, the method comprising: receiving a request at a client for a media segment, the media segment including a plurality of video frames; obtaining a stream of the media segment at the client as directed by a media server; receiving, from a supplemental content server, SC and SC instructions for insertion of the SC in the media segment at the plurality of clients, where the SC instructions include a predetermined time period for displaying the same SC; determining a place for inserting the SC in the media segment based on the predetermined time period; combining the media segment with the SC at the client according to the SC instructions, the combining including inserting the SC at the place to add or augment video frames of the media segment; and displaying the combination of media segment and SC. receiving a request at a client for a media segment, the media segment including a plurality of video frames; obtaining a stream of the media segment at the client as directed by a media server; receiving, from a supplemental content server, SC and SC instructions for insertion of the SC in the media segment at the plurality of clients, where the SC instructions include a predetermined time period for displaying the same SC; determining a place for inserting the SC in the media segment based on the predetermined time period; combining the media segment with the SC at the client according to the SC instructions, the combining including inserting the SC at the place to add or augment video frames of the media segment; and displaying the combination of media segment and SC.