mhurhangee/ep-ind-claims huggingface dataset:
A gripper apparatus for removing and replacing objects in an array of objects, comprising: a support arm; a gripper head extending downward from the support arm and having a downwardly facing lower end; a planetary gear assembly mounted in the gripper head, the planetary gear assembly having a central axis of rotation and including at least three planet gears (6, 8, 10, 14), each planet gear (6, 8, 10, 14) having a respective planet gear axis of rotation, and at least one gripping pin (22, 23, 24, 26) associated with and extending downward respectively from each planet gear (6, 8, 10, 14) to project beyond the lower end of the gripper head; a reversible drive motor configured to operate the planetary gear assembly to rotate the planet gears (6, 8, 10, 14) about said planet gear axes of rotation and about the central axis; and the planetary gear assembly being configured to move the respective gripping pins (22, 23, 24, 26) along predetermined inward and outward paths dependent on a drive direction of the reversible drive motor, whereby the distance between the respective gripping pins (22, 23, 24, 26) is varied for accommodating a range of different object sizes, the gripping pins (22, 23, 24, 26) being configured to grasp an object located between the gripping pins (22, 23, 24, 26) when urged against an outer surface of the object. a support arm; a gripper head extending downward from the support arm and having a downwardly facing lower end; a planetary gear assembly mounted in the gripper head, the planetary gear assembly having a central axis of rotation and including at least three planet gears (6, 8, 10, 14), each planet gear (6, 8, 10, 14) having a respective planet gear axis of rotation, and at least one gripping pin (22, 23, 24, 26) associated with and extending downward respectively from each planet gear (6, 8, 10, 14) to project beyond the lower end of the gripper head; a reversible drive motor configured to operate the planetary gear assembly to rotate the planet gears (6, 8, 10, 14) about said planet gear axes of rotation and about the central axis; and the planetary gear assembly being configured to move the respective gripping pins (22, 23, 24, 26) along predetermined inward and outward paths dependent on a drive direction of the reversible drive motor, whereby the distance between the respective gripping pins (22, 23, 24, 26) is varied for accommodating a range of different object sizes, the gripping pins (22, 23, 24, 26) being configured to grasp an object located between the gripping pins (22, 23, 24, 26) when urged against an outer surface of the object.
A modular ramp system comprising a plurality of panels assemblable to form a multi-sectional ramp deck, a collapsible load bearing means for supporting each panel of the multi-sectional ramp deck at a predetermined distance off the ground, at least two of the panels having a correspondingly located connecting means locatable proximal to a leading edge and a trailing edge of the adjoining edges (7,8) of two adjacent panels, the connecting means having means for enabling the main plane of the panels to enter into and out of alignment with one another to engage and disengage the multi-sectional ramp deck, the connecting means also having means for enabling relative movement of the panels when the main plane of the panels is out of alignment such that all panels are stackable one on another for stowage and/or transport, the connecting means comprises a pivotal coupling arrangement comprising a first member being coupleable to a first panel and being pivotally coupled to a second member which is coupleable to a second panel, the first member and second member being axially adjustable relative to one another for allowing the main plane of the adjacent panels to be movable into and out of alignment for allowing relative rotation of the panels once the panels are moved out of alignment; characterised in that the axially adjustable first and second members (14, 16) of the connecting means comprise of telescopic components (14, 16).
A method for a centralized unit, CU, of a radio access network, RAN, node that is associated with one or more transmission reception points, TRPs, the method comprising: receiving, from a positioning node associated with the RAN, a first positioning reference signal, PRS, activity report that includes information about PRS transmitted by TRPs associated with one or more distributed units, DUs, of the RAN node; associating the information in the first PRS activity report with respective DUs of the RAN node; and sending, to the DUs, respective second PRS activity reports that include the information associated with the respective DUs, such that the second PRS activity reports will have DU-specific subsets of the information in the first PRS activity report. receiving, from a positioning node associated with the RAN, a first positioning reference signal, PRS, activity report that includes information about PRS transmitted by TRPs associated with one or more distributed units, DUs, of the RAN node; associating the information in the first PRS activity report with respective DUs of the RAN node; and sending, to the DUs, respective second PRS activity reports that include the information associated with the respective DUs, such that the second PRS activity reports will have DU-specific subsets of the information in the first PRS activity report.
An uplink reference signal sending method, comprising: sending, by a terminal device in a first uplink subframe on a first carrier, an uplink reference signal to a network device, wherein the first carrier is a carrier on which the terminal device sends neither uplink data nor uplink control information in uplink; and determining, by the terminal device, a first power headroom, PHR, wherein the first PHR is a PHR of a transmit power of the terminal device in the first uplink subframe or a PHR of a transmit power of the terminal device in the first uplink subframe on the first carrier; wherein, when a quantity of a plurality of configured uplink carriers exceeds a maximum quantity of uplink carriers supported by the terminal device for simultaneous sending, the terminal device sends the uplink reference signal on individual uplink carriers by means of time division. sending, by a terminal device in a first uplink subframe on a first carrier, an uplink reference signal to a network device, wherein the first carrier is a carrier on which the terminal device sends neither uplink data nor uplink control information in uplink; and determining, by the terminal device, a first power headroom, PHR, wherein the first PHR is a PHR of a transmit power of the terminal device in the first uplink subframe or a PHR of a transmit power of the terminal device in the first uplink subframe on the first carrier; wherein, when a quantity of a plurality of configured uplink carriers exceeds a maximum quantity of uplink carriers supported by the terminal device for simultaneous sending, the terminal device sends the uplink reference signal on individual uplink carriers by means of time division.
Composition for use in a Monosil process for the crosslinking of thermoplastic polyolefins, characterized in that the composition comprises (i) from 5 to 60% by weight content of caprylic acid (H 3 C(CH 2) 6 COOH), (ii) content of at least one monounsaturated organofunctional alkoxysilane of the general formula I A-SiR 2 x (OR 1) 3-x, where R 1 is mutually independently a linear or branched hydrocarbon moiety having from 1 to 4 C atoms, R 2 is methyl and x is 0 or 1 and A is a monovalent olefin group of the formula (R 3) 2 C=C(R 3)-M k -, where k is 0 or 1, in which groups R 3 are identical or different and R 3 is a hydrogen atom or a methyl group and the group M is a group from this list: -CH 2 -, -(CH 2) 2 -, -(CH 2) 3 - and -C O-(CH 2) 3 -, (iii) content of at least one free-radical generator and (iv) optionally content of at least one other component, where the entirety of all components (i) to (iv) gives 100% by weight. (i) from 5 to 60% by weight content of caprylic acid (H 3 C(CH 2) 6 COOH), (ii) content of at least one monounsaturated organofunctional alkoxysilane of the general formula I A-SiR 2 x (OR 1) 3-x, where R 1 is mutually independently a linear or branched hydrocarbon moiety having from 1 to 4 C atoms, R 2 is methyl and x is 0 or 1 and A is a monovalent olefin group of the formula (R 3) 2 C=C(R 3)-M k -, where k is 0 or 1, in which groups R 3 are identical or different and R 3 is a hydrogen atom or a methyl group and the group M is a group from this list: -CH 2 -, -(CH 2) 2 -, -(CH 2) 3 - and -C O-(CH 2) 3 -, R 1 is mutually independently a linear or branched hydrocarbon moiety having from 1 to 4 C atoms, R 2 is methyl and x is 0 or 1 and A is a monovalent olefin group of the formula (R 3) 2 C=C(R 3)-M k -, where k is 0 or 1, in which groups R 3 are identical or different and R 3 is a hydrogen atom or a methyl group and the group M is a group from this list: -CH 2 -, -(CH 2) 2 -, -(CH 2) 3 - and -C O-(CH 2) 3 -, (iii) content of at least one free-radical generator and (iv) optionally content of at least one other component,
An apparatus for processing image data, comprising: image data acquisition means configured to acquire image data; decision means configured to decide, based on a resolution of the image data acquired by the image data acquisition means and a preset target resolution as a target after resolution conversion, a first resolution higher than the resolution of the image data and closest to the resolution of the image data out of divisors of the target resolution, wherein the resolution of the image data is calculated as the ratio of the number of pixels of the acquired image data in a horizontal direction and a preset output size in the horizontal direction or as the ratio of the number of pixels of the acquired image data in a vertical direction and a preset output size in the vertical direction; first resolution conversion means configured to convert the image data acquired by the image data acquisition means into first image data having the first resolution decided by the decision means; filter processing means configured to process the first image data converted by the first resolution conversion means using a filter configured to compensate for degradation in quality of an image represented by the image data, which can occur when the image data is processed; second resolution conversion means configured to convert the first image data processed by the filter processing means into second image data having the target resolution; and output means configured to output the second image data converted by the second resolution conversion means. image data acquisition means configured to acquire image data; decision means configured to decide, based on a resolution of the image data acquired by the image data acquisition means and a preset target resolution as a target after resolution conversion, a first resolution higher than the resolution of the image data and closest to the resolution of the image data out of divisors of the target resolution, wherein the resolution of the image data is calculated as the ratio of the number of pixels of the acquired image data in a horizontal direction and a preset output size in the horizontal direction or as the ratio of the number of pixels of the acquired image data in a vertical direction and a preset output size in the vertical direction; first resolution conversion means configured to convert the image data acquired by the image data acquisition means into first image data having the first resolution decided by the decision means; filter processing means configured to process the first image data converted by the first resolution conversion means using a filter configured to compensate for degradation in quality of an image represented by the image data, which can occur when the image data is processed; second resolution conversion means configured to convert the first image data processed by the filter processing means into second image data having the target resolution; and output means configured to output the second image data converted by the second resolution conversion means.
An audio object encoder comprising: a receiver for receiving N audio objects; a mixer for mixing the N audio objects to M audio channels; a channel circuit for deriving K audio channels from the M audio channels where K= 1 or 2 and K<M; a parameter circuit generating audio object upmix parameters for at least part of each of the N audio objects relative to the K audio channels; an output circuit (705, 711) for generating an output data stream comprising the audio object upmix parameters and the M audio channels. a receiver for receiving N audio objects; a mixer for mixing the N audio objects to M audio channels; a channel circuit for deriving K audio channels from the M audio channels where K= 1 or 2 and K<M; a parameter circuit generating audio object upmix parameters for at least part of each of the N audio objects relative to the K audio channels; an output circuit (705, 711) for generating an output data stream comprising the audio object upmix parameters and the M audio channels.
An encoding device comprising: a wavelet transforming means for dividing a two-dimensional signal into subbands, the two-dimensional signal having a plurality of color components; a coefficient extracting means for extracting sequentially, from an LH subband, an HL subband and an HH subband belonging to an identical hierarchy, all color components of coefficients of respective of said LH subband, said HL subband and said HH subband corresponding to an identical position in their respective subband and constituting a set of coefficients; a significant coefficient determining means for performing a process of determining whether or not each color component of each coefficient in the set of coefficients is zero, thereby to generate one-bit determination information for said each color component, and combining said generated one-bit determination informations, thereby to generate flag information having a plural-bit length; a flag information encoding means for subjecting said generated flag information to variable-length encoding; and a significant coefficient encoding means for subjecting to variable-length encoding only the color components of the coefficients in said set of coefficients of which a value is not zero, as indicated by the flag information. a wavelet transforming means for dividing a two-dimensional signal into subbands, the two-dimensional signal having a plurality of color components; a coefficient extracting means for extracting sequentially, from an LH subband, an HL subband and an HH subband belonging to an identical hierarchy, all color components of coefficients of respective of said LH subband, said HL subband and said HH subband corresponding to an identical position in their respective subband and constituting a set of coefficients; a significant coefficient determining means for performing a process of determining whether or not each color component of each coefficient in the set of coefficients is zero, thereby to generate one-bit determination information for said each color component, and combining said generated one-bit determination informations, thereby to generate flag information having a plural-bit length; a flag information encoding means for subjecting said generated flag information to variable-length encoding; and a significant coefficient encoding means for subjecting to variable-length encoding only the color components of the coefficients in said set of coefficients of which a value is not zero, as indicated by the flag information.
Method for determining measurement parameters for a coordinate measuring machine by way of a control device, comprising: - obtaining a plurality of measurement results, which were acquired by real or simulated measurement of a plurality of workpieces of the same type and which are assigned in each case to a specific region of the workpieces; - ascertaining at least one region of the workpieces that is critical for the measurement on the basis of the measurement results; and - determining at least one measurement parameter of the coordinate measuring machine for measuring the critical region; characterized in that a region-resolved uniformity characteristic variable of the measurement results of the workpieces is determined on the basis of the measurement results, which describes the spreading of the measurement results of the different workpieces for a respective workpiece region, and this workpiece region is ascertained as a critical region if the uniformity characteristic variable does not meet a predetermined uniformity criterion for a workpiece region. - obtaining a plurality of measurement results, which were acquired by real or simulated measurement of a plurality of workpieces of the same type and which are assigned in each case to a specific region of the workpieces; - ascertaining at least one region of the workpieces that is critical for the measurement on the basis of the measurement results; and - determining at least one measurement parameter of the coordinate measuring machine for measuring the critical region;
A crossbar array to calculate a convolution of an image and a kernel, comprising: a plurality of row lines; a plurality of column lines intersecting the plurality of row lines at a plurality of intersections; a plurality of junctions coupled between the plurality of row lines and the plurality of column lines at a portion of the plurality of intersections, whereby some of the intersections do not have a junction and leave open spaces within the crossbar array; driving and sensing circuitry housed in an open space; a plurality of diagonal control lines coupled to the plurality of junctions, wherein: each junction comprises a resistive memory element and a transistor coupled in series; and the junctions are positioned to calculate a matrix multiplication of a first matrix and a second matrix whereby: the transistors of the junctions are coupled to one of the plurality of diagonal control lines to be activated by receiving a gate voltage from the one of the plurality of diagonal control lines. a plurality of row lines; a plurality of column lines intersecting the plurality of row lines at a plurality of intersections; a plurality of junctions coupled between the plurality of row lines and the plurality of column lines at a portion of the plurality of intersections, whereby some of the intersections do not have a junction and leave open spaces within the crossbar array; driving and sensing circuitry housed in an open space; a plurality of diagonal control lines coupled to the plurality of junctions, wherein: each junction comprises a resistive memory element and a transistor coupled in series; and the junctions are positioned to calculate a matrix multiplication of a first matrix and a second matrix whereby: the transistors of the junctions are coupled to one of the plurality of diagonal control lines to be activated by receiving a gate voltage from the one of the plurality of diagonal control lines. each junction comprises a resistive memory element and a transistor coupled in series; and the junctions are positioned to calculate a matrix multiplication of a first matrix and a second matrix whereby: the transistors of the junctions are coupled to one of the plurality of diagonal control lines to be activated by receiving a gate voltage from the one of the plurality of diagonal control lines.
An image processing apparatus, comprising: an extraction color region determination unit which performs a process of determining an extraction color region of a first region of an image using color information of the image, wherein when it is impossible to determine the extraction color region in a first region, the extraction color region determination unit performs the process of determining the extraction color region in a second region that is smaller than the first region; and an image processing unit which performs image processing on at least one of the extraction color regions of the image determined by the extraction color region determination unit and the remaining region of the image excluding the extraction color region, to obtain an output image; wherein, if the image processing unit performs image processing on both the extraction color region and the remaining region, the image processing unit is arranged to perform a different type of image processing on the extraction colour region to a type of image processing performed on the remaining region. an extraction color region determination unit which performs a process of determining an extraction color region of a first region of an image using color information of the image, wherein when it is impossible to determine the extraction color region in a first region, the extraction color region determination unit performs the process of determining the extraction color region in a second region that is smaller than the first region; and an image processing unit which performs image processing on at least one of the extraction color regions of the image determined by the extraction color region determination unit and the remaining region of the image excluding the extraction color region, to obtain an output image; wherein, if the image processing unit performs image processing on both the extraction color region and the remaining region, the image processing unit is arranged to perform a different type of image processing on the extraction colour region to a type of image processing performed on the remaining region.
A console support structure comprising: - two or more leg structures (104, 106, 108) horizontally spaced apart, each said leg structure comprising a respective base and at least one respective vertically adjustable support (116, 118, 120, 122) mounted on the base, the vertically adjustable supports of the leg structures being for supporting at least one work surface; - for each adjacent pair of said two or more leg structures (102, 104, 106, 108), a respective elongated lateral support structure (110, 112, 114) extending between and interconnecting the pair of leg structures (102, 104, 106, 108), - each lateral support structure (110, 112, 114) is releasably and pivotably connected to the respective pair of leg structures (102, 104, 106, 108), characterized in that each said leg structure (102, 104, 106, 108) further comprising at least one respective pivot connector for pivotably connecting to the corresponding one or more lateral support structures (110, 112, 114); and in that each said lateral support structure (110, 112, 114) being releasably and pivotably connected to the pivot connectors of the corresponding pair of leg structures (102, 104, 106, 108). - two or more leg structures (104, 106, 108) horizontally spaced apart, each said leg structure comprising a respective base and at least one respective vertically adjustable support (116, 118, 120, 122) mounted on the base, the vertically adjustable supports of the leg structures being for supporting at least one work surface; - for each adjacent pair of said two or more leg structures (102, 104, 106, 108), a respective elongated lateral support structure (110, 112, 114) extending between and interconnecting the pair of leg structures (102, 104, 106, 108), - each lateral support structure (110, 112, 114) is releasably and pivotably connected to the respective pair of leg structures (102, 104, 106, 108), characterized in that each said leg structure (102, 104, 106, 108) further comprising at least one respective pivot connector for pivotably connecting to the corresponding one or more lateral support structures (110, 112, 114); and in that each said lateral support structure (110, 112, 114) being releasably and pivotably connected to the pivot connectors of the corresponding pair of leg structures (102, 104, 106, 108).