mhurhangee/ep-ind-claims huggingface dataset:
A codebook processing method, wherein the method is applied to a terminal device, and the method comprises: obtaining a transmission parameter corresponding to a first hybrid automatic repeat request, HARQ, codebook set, wherein the first HARQ codebook set comprises a first HARQ codebook, the first HARQ codebook comprises HARQ information corresponding to M first channels, which correspond to a first service, M is an integer, and the transmission parameter corresponding to the first HARQ codebook set is greater than a target threshold; wherein when the first HARQ codebook set further comprises a third HARQ codebook, and the third HARQ codebook comprises HARQ information corresponding to H second channels, which correspond to a second service, wherein H is an integer; wherein the second service is more important than the first service, either generating a second HARQ codebook based on the first HARQ codebook, wherein a quantity of bits of the second HARQ codebook is less than a quantity of bits of the first HARQ codebook; or deleting the first HARQ codebook from the first HARQ codebook set; wherein when the first HARQ codebook set does not comprise the third HARQ codebook, refraining from generating the second HARQ codebook and deleting the first HARQ codebook. obtaining a transmission parameter corresponding to a first hybrid automatic repeat request, HARQ, codebook set, wherein the first HARQ codebook set comprises a first HARQ codebook, the first HARQ codebook comprises HARQ information corresponding to M first channels, which correspond to a first service, M is an integer, and the transmission parameter corresponding to the first HARQ codebook set is greater than a target threshold; wherein when the first HARQ codebook set further comprises a third HARQ codebook, and the third HARQ codebook comprises HARQ information corresponding to H second channels, which correspond to a second service, wherein H is an integer; wherein the second service is more important than the first service, either generating a second HARQ codebook based on the first HARQ codebook, wherein a quantity of bits of the second HARQ codebook is less than a quantity of bits of the first HARQ codebook; or deleting the first HARQ codebook from the first HARQ codebook set; wherein when the first HARQ codebook set does not comprise the third HARQ codebook, refraining from generating the second HARQ codebook and deleting the first HARQ codebook.
A method for providing a visualization of uncertainty in a collaborative video environment, the method comprising: determining motion of an element in a video sequence from a first image to a second image in the video sequence; generating a motion vector directed from the first image to the second, wherein the motion vector is generated based upon the determined motion; determining a latency value comprising a network latency iteratively sampled over a pre-defined time period and a local latency indicating a difference in time from capture of an image to display of the image via a local processor (310, 312); determining a precision value comprising a scalar value configured to be multiplied by the generated motion vector or a transformed motion vector, wherein the precision value comprises a pre-determined acceptable error or a user-provided acceptable error, and is dependent on context; generating an uncertainty element based upon the motion vector or the transformed motion vector, the latency value, and the precision value, involving multiplying the precision value by the generated motion vector or the transformed motion vector, the uncertainty element comprising an uncertainty region of pixels projecting from one or more of the motion vector and the transformed motion vector, wherein a size of the uncertainty region is proportional to a magnitude of the motion vector or the transformed motion vector; rendering, to at least one of a plurality of collaborating users, the uncertainty element as a visualization comprising blur and/or colorization of pixels. determining motion of an element in a video sequence from a first image to a second image in the video sequence; generating a motion vector directed from the first image to the second, wherein the motion vector is generated based upon the determined motion; determining a latency value comprising a network latency iteratively sampled over a pre-defined time period and a local latency indicating a difference in time from capture of an image to display of the image via a local processor (310, 312); determining a precision value comprising a scalar value configured to be multiplied by the generated motion vector or a transformed motion vector, wherein the precision value comprises a pre-determined acceptable error or a user-provided acceptable error, and is dependent on context; generating an uncertainty element based upon the motion vector or the transformed motion vector, the latency value, and the precision value, involving multiplying the precision value by the generated motion vector or the transformed motion vector, the uncertainty element comprising an uncertainty region of pixels projecting from one or more of the motion vector and the transformed motion vector, wherein a size of the uncertainty region is proportional to a magnitude of the motion vector or the transformed motion vector; rendering, to at least one of a plurality of collaborating users, the uncertainty element as a visualization comprising blur and/or colorization of pixels.
A freeze dried active composition comprising: (a) active (b) oil (c) less than 6.5% by weight of the composition, water; (d) emulsifier; and (e) thickening agent wherein from 4 to 25 times more oil by weight is present than active in the composition, the oil having a peroxide value from 0 to 4 meq/kg and a polarity index of from 0.1 to 80 mN/m, and less than 0.5% by weight of the total weight of oil is hydroxylated and wherein the active is retinoic acid precursor represented by the formula where each R is independently a hydrogen or a C 1-6 alkyl group and X is and further where each R' is hydrogen or a C 1 -C 3 alkyl and n is an integer from 0 to 16. (a) active (b) oil (c) less than 6.5% by weight of the composition, water; (d) emulsifier; and (e) thickening agent wherein from 4 to 25 times more oil by weight is present than active in the composition, the oil having a peroxide value from 0 to 4 meq/kg and a polarity index of from 0.1 to 80 mN/m, and less than 0.5% by weight of the total weight of oil is hydroxylated and wherein the active is retinoic acid precursor represented by the formula where each R is independently a hydrogen or a C 1-6 alkyl group and X is and further where each R' is hydrogen or a C 1 -C 3 alkyl and n is an integer from 0 to 16.
Joint element for joining the side profiles (101 a, 102a) of a first and a second cable ladder (101, 102) end-to-end with each other, the side profiles being of the so-called hexagonal type, which joint element comprises on one hand a longitudinal gripping edge, and on the other hand a locking edge, which connects to the second, oppositely situated longitudinal edges (211 a, 212a) of the side profiles, the locking edge of the joint element being provided with locking means for the fixation of the joint element against the side profile (101 a, 102a), characterized in that the longitudinal gripping edge is connectable over first longitudinal edges (201 a, 202a) of the side profiles and that the locking means (24, 25) is formed as a locking tab that is formed with a free end (36, 361, 362) and integrated with the locking edge and that, when the joint element is mounted, provides an abutment of the free ends (361, 362) of the locking means (24, 25) against the outer surfaces of the side profiles in the area of the opposite longitudinal edges (211 a, 212a).
Pull-out blocking device for at least two pull-out furniture parts which can be pulled out from a furniture body in a pull-out direction from a completely retracted position into a completely pulled-out position and can be retracted into the furniture body in an opposite direction to the pull-out direction, comprising, for each of the pull-out furniture parts, a driver which is displaced in the pull-out direction when the pull-out furniture part is pulled out and in the opposite direction to the pull-out direction when the pull-out furniture part is retracted, for each of the pull-out furniture parts, a blocking unit which has an actuating part, which is adjusted as a result of the movement of the driver when one of the pull-out furniture parts is pulled out and retracted, blocking rods (48, 49) which interact with the actuating parts and are mounted so as to be displaceable in a direction of longitudinal axes thereof, wherein a respective one of the actuating parts, which is adjusted as a result of the movement of the driver associated therewith when the associated pull-out furniture part is pulled out, displaces at least one of the blocking rods (48, 49) in the direction of the longitudinal axis thereof and, as a result, the blocking rods (48, 49) are blocked against further axial displacement by a stop, wherein each of the blocking units has a catch arm mounted so as to be pivotable about a stationary pivot axis that lies parallel to the longitudinal axes of the blocking rods (48, 49), which when the associated pull-out furniture part is pulled out, is pivoted by the driver associated therewith from an initial position, which the catch arm assumes in the completely retracted position of the pull-out furniture part, into an end position, which the catch arm assumes in the completely pulled-out position of the pull-out furniture part, and in doing so adjusts the actuating part of said blocking unit, characterised in that each of the blocking units has a retraction spring by which the respectively associated pull-out furniture part is retractable over a last portion of its path covered during retraction into the furniture body, wherein the catch arm of each of the blocking units is acted upon by the retraction spring of said blocking unit.
A method for producing a dental prosthesis, comprising: preparing three-dimensional data on the dental prosthesis; preparing a processing target that transmits laser light; setting processing points representing an outer shape of the dental prosthesis based on the three-dimensional data; setting a to-be-cut plane extending from a surface of the processing target to the processing points; creating the processing points in the processing target by irradiating the processing target with the laser light; and cutting a portion of the processing target that is outward of the dental prosthesis with an internal stress by irradiating the processing target with the laser light along the to-be-cut plane, wherein the cutting includes creating processing planes on the to-be-cut plane by irradiating the processing target with the laser light, the processing planes extending from the surface of the processing target toward the processing points, and wherein the processing planes extend in a direction crossing the to-be-cut plane, and the method being characterised in that the processing planes are each formed by irradiating the processing target with the laser light spirally or concentrically. preparing three-dimensional data on the dental prosthesis; preparing a processing target that transmits laser light; setting processing points representing an outer shape of the dental prosthesis based on the three-dimensional data; setting a to-be-cut plane extending from a surface of the processing target to the processing points; creating the processing points in the processing target by irradiating the processing target with the laser light; and cutting a portion of the processing target that is outward of the dental prosthesis with an internal stress by irradiating the processing target with the laser light along the to-be-cut plane, wherein the cutting includes creating processing planes on the to-be-cut plane by irradiating the processing target with the laser light, the processing planes extending from the surface of the processing target toward the processing points, and wherein the processing planes extend in a direction crossing the to-be-cut plane, and the method being characterised in that the processing planes are each formed by irradiating the processing target with the laser light spirally or concentrically.
Clamping device, in particular for machine tools which are provided, for example with a heavy-duty chuck for holding a workpiece and the clamping jaws of which can be adjusted by means of the clamping device via an axially adjustable connecting rod (7, 7') as the actuating element, wherein the clamping device has a reversible electric drive motor to trigger clamping movements, two drive trains (21, 31) connected to the drive motor, and a motion converter to convert the adjusting movements of the rotor shaft of the drive motor into the axial adjusting movements of the connecting rod (7, 7') required to actuate the clamping jaws, wherein the two drive trains (21, 31) are formed from a first and a second belt drive (21', 31') consisting respectively of two pulleys (22, 23 or 32, 33) and a toothed belt or driving belt (24, 34) guided over the latter, wherein a supporting hub is arranged to be resistant to rotation on the rotor shaft of the drive motor, on which supporting hub the pulley of the first belt drive is mounted to be resistant to rotation and the pulley of the second belt drive is mounted to be rotatable, wherein in the clamping position of the clamping device, the two pulleys (32, 32) arranged on the supporting hub can be coupled to one another with the aid of a servo device, characterised in that the clamping device has an accumulator to maintain the clamping force, and in that the pulley mounted to be rotatable on the supporting hub can be connected to the pulley arranged to be resistant to rotation by means of an axially displaceable intermediate element, which can be actuated by means of the servo device, and in that the intermediate element is firmly connected to a toothed disc arranged between the two pulleys (22, 32) which has toothing which cooperates with counter-toothing attached to the pulley arranged to be resistant to rotation.
Image processing apparatus for applying a mask (171, 172, 175-178, 195) to an object, comprising: - an input for obtaining an image; - a processor for (i) detecting the object in the image, and (ii) applying the mask to the object in the image for obtaining an output image; and - an output for providing the output image to a display; - the processor being arranged for said applying of said mask to the object by (j) establishing an object contour of the object, characterized by (jj) generating, based on the object contour, a mask being smaller than the object, and (jjj) positioning the mask over the object for masking in the output image a body of the object while leaving clear a border area (126, 193) of the object. - an input for obtaining an image; - a processor for (i) detecting the object in the image, and (ii) applying the mask to the object in the image for obtaining an output image; and - an output for providing the output image to a display; - the processor being arranged for said applying of said mask to the object by (j) establishing an object contour of the object, characterized by (jj) generating, based on the object contour, a mask being smaller than the object, and (jjj) positioning the mask over the object for masking in the output image a body of the object while leaving clear a border area (126, 193) of the object.
A transmission method comprising generating a frame for content transfer, the frame containing a plurality of second transfer units, wherein each of the second transfer units contains one or more first transfer units, each of the first transfer units contains an Internet Protocol, IP, packet, the first transfer unit positioned first within the frame among the one or more first transfer units contains reference clock information indicating time for reproduction of the content that uses the IP packets in a reception apparatus, the reference clock information is stored immediately before a header of the IP packet at a position that is offset by a fixed length from a header of the first transfer unit positioned first within the frame; and transmitting the frame.
A frame for an articulating bed comprising: an extruded beam having an upper inner flange and a lower inner flange separated by a slot which opens to a support channel formed therein and having an upper wall and a lower wall with an upper outer flange closing the support channel, a lower edge of upper inner flange and upper edge of lower inner flange terminating in an upper runner bead and lower runner bead, respectively, which bound the slot said extruded beam cut to form frame side elements and end elements; and, a plurality of translating support blocks having an upper groove and a lower groove, received in and supported by the support channel and engaged and riding on the upper and lower runner beads with an inner portion of each translating support block engaged within the support channel, the translating blocks translatable within the support channel and engaging a translatable chariot supporting a seat section of an articulating structure. an extruded beam having an upper inner flange and a lower inner flange separated by a slot which opens to a support channel formed therein and having an upper wall and a lower wall with an upper outer flange closing the support channel, a lower edge of upper inner flange and upper edge of lower inner flange terminating in an upper runner bead and lower runner bead, respectively, which bound the slot said extruded beam cut to form frame side elements and end elements; and, a plurality of translating support blocks having an upper groove and a lower groove, received in and supported by the support channel and engaged and riding on the upper and lower runner beads with an inner portion of each translating support block engaged within the support channel, the translating blocks translatable within the support channel and engaging a translatable chariot supporting a seat section of an articulating structure.
An in vitro process for preparing Papaya mosaic virus (PapMV) virus-like particles (VLPs) comprising the steps of: (a) combining recombinant PapMV coat protein and ssRNA at a protein:RNA ratio of between 1:1 and 50:1 by weight, at a pH between 6.0 and 9.0, and a temperature between 2°C and 37°C, for a time sufficient to allow assembly of VLPs, wherein the recombinant PapMV coat protein is predominantly in the form of low molecular weight species of less than 20-mers, and wherein the ssRNA is between 50 nucleotides and 5000 nucleotides in length and has a sequence identical to a reference DNA sequence of the PapMV genome, wherein every thymine residue in said reference sequence is replaced by a uracil residue, and wherein said reference sequence is polymutated in that all ATG codons have been mutated for TAA stop codons; (b) treating the VLPs with nuclease to remove any RNA protruding from the particles, and (c) separating the VLPs from other process components. (a) combining recombinant PapMV coat protein and ssRNA at a protein:RNA ratio of between 1:1 and 50:1 by weight, at a pH between 6.0 and 9.0, and a temperature between 2°C and 37°C, for a time sufficient to allow assembly of VLPs, wherein the recombinant PapMV coat protein is predominantly in the form of low molecular weight species of less than 20-mers, and wherein the ssRNA is between 50 nucleotides and 5000 nucleotides in length and has a sequence identical to a reference DNA sequence of the PapMV genome, wherein every thymine residue in said reference sequence is replaced by a uracil residue, and wherein said reference sequence is polymutated in that all ATG codons have been mutated for TAA stop codons; (b) treating the VLPs with nuclease to remove any RNA protruding from the particles, and (c) separating the VLPs from other process components.
A touch screen sensor, comprising: a visible light transparent substrate; and an electrically conductive micropattern disposed on or in the visible light transparent substrate, the micropattern comprising a first region micropattern within a touch sensing area; wherein the first region micropattern includes metallic linear electrically conductive features having a width between about 1 and 10 micrometers; wherein the first region micropattern is visible light transparent and has between about 90% and 99.5% open area; and wherein the first region micropattern includes selective breaks in conductive traces within an otherwise continuous and uniform mesh. a visible light transparent substrate; and an electrically conductive micropattern disposed on or in the visible light transparent substrate, the micropattern comprising a first region micropattern within a touch sensing area; wherein the first region micropattern includes metallic linear electrically conductive features having a width between about 1 and 10 micrometers; wherein the first region micropattern is visible light transparent and has between about 90% and 99.5% open area; and wherein the first region micropattern includes selective breaks in conductive traces within an otherwise continuous and uniform mesh.
A fire management system comprising: a control system configured to receive fire-related information from at least a portion of a heterogeneous group of vehicles and a heterogeneous group of data sources, analyze the fire-related information to generate a result, and coordinate, as a swarm, an operation of the heterogeneous group of vehicles using the result to perform a number of common tasks or operations and/or achieve a common goal, wherein the heterogeneous group of data sources include autonomous sensor units, wherein coordinating as a swarm comprises a fire management module running on the control system sending commands to each of the vehicles within the swarm, wherein operating as a swarm comprises the heterogeneous group of vehicles having a collective behavior with respect to each other and an environment around the swarm of vehicles; and wherein the fire management module in the control system is configured to run a simulation to generate the result in a form of a progress predicted for a fire and wherein in being configured to coordinate the operation of the heterogeneous group of vehicles using the result, the control system is configured to send directions to coordinate movement of the swarm based on the progress predicted for the fire, including ordering a change of a current direction of travel for the swarm to a new direction along a new path predicted for the fire. a control system configured to receive fire-related information from at least a portion of a heterogeneous group of vehicles and a heterogeneous group of data sources, analyze the fire-related information to generate a result, and coordinate, as a swarm, an operation of the heterogeneous group of vehicles using the result to perform a number of common tasks or operations and/or achieve a common goal, wherein the heterogeneous group of data sources include autonomous sensor units, wherein coordinating as a swarm comprises a fire management module running on the control system sending commands to each of the vehicles within the swarm, wherein operating as a swarm comprises the heterogeneous group of vehicles having a collective behavior with respect to each other and an environment around the swarm of vehicles; and wherein the fire management module in the control system is configured to run a simulation to generate the result in a form of a progress predicted for a fire and wherein in being configured to coordinate the operation of the heterogeneous group of vehicles using the result, the control system is configured to send directions to coordinate movement of the swarm based on the progress predicted for the fire, including ordering a change of a current direction of travel for the swarm to a new direction along a new path predicted for the fire.