mhurhangee/ep-ind-claims huggingface dataset:
Coin separating apparatus having - a conveying device for conveying coins along a conveying path in a conveying direction from an input container; - a checking device, arranged on the conveying path, for checking a coin conveyed along the conveying path and for providing a check result signal; - a coin collecting device for collecting coins; and - a coin bridge device arranged between the coin collecting device and the conveying device, said coin bridge device being configured to receive the check result signal and, depending on the check result signal, either to take over a conveyed coin from the conveying device by means of a movably arranged slide and feed it to the coin collecting device via the slide or not to take over a conveyed object (M') from the conveying device, such that the conveyed object (M') passes from the conveying device to a return means of the coin separating device; wherein, when the coin separating apparatus is arranged and used as intended, the conveying direction is directed at least with a direction vector component counter to a direction of gravity, characterized in that the slide is configured such that the coin taken over from the conveying device by means of the slide is fed to the coin collecting device along the slide substantially only in a manner driven by gravity. - a conveying device for conveying coins along a conveying path in a conveying direction from an input container; - a checking device, arranged on the conveying path, for checking a coin conveyed along the conveying path and for providing a check result signal; - a coin collecting device for collecting coins; and - a coin bridge device arranged between the coin collecting device and the conveying device, said coin bridge device being configured to receive the check result signal and, depending on the check result signal, either to take over a conveyed coin from the conveying device by means of a movably arranged slide and feed it to the coin collecting device via the slide or not to take over a conveyed object (M') from the conveying device, such that the conveyed object (M') passes from the conveying device to a return means of the coin separating device;
A method for receiving, by a user equipment, UE, system information in a wireless communication system, the method comprising: receiving, by the UE, a system information modification that indicates if a change has occurred in the system information from an eNodeB, enB, on a UE-dedicated channel via a radio resource control, RRC, connection reconfiguration message; verifying that stored system information is valid by checking the system information modification; and receiving, by the UE, at least one system information block from the eNB. receiving, by the UE, a system information modification that indicates if a change has occurred in the system information from an eNodeB, enB, on a UE-dedicated channel via a radio resource control, RRC, connection reconfiguration message; verifying that stored system information is valid by checking the system information modification; and receiving, by the UE, at least one system information block from the eNB.
A compound of Formula I: wherein R 1 is H and R 2 is C 1-6 alkyl; R 3 is H, C 1-6 alkyl, or C 1-6 alkoxy-substituted C 1-6 alkyl; each of R 4, R 5, R 6, and R 7 individually is H, C 1-6 alkyl, or C 1-6 alkoxy; L 1 is a linker species selected from the group consisting of CR 8 R 9, CR 8 R 9 CR 10 R 11, and O; L 2 is a linker species selected from the group consisting of CH 2, CH 2 CH 2, CH 2 CH 2 CH 2, and CH 2 CH 2 CH 2C H 2; each of R 8, R 9, R 10, and R 11 individually is hydrogen or C 1-6 alkyl; and the dashed line indicates an optional double bond; or a pharmaceutically acceptable salt thereof. R 1 is H and R 2 is C 1-6 alkyl; R 3 is H, C 1-6 alkyl, or C 1-6 alkoxy-substituted C 1-6 alkyl; each of R 4, R 5, R 6, and R 7 individually is H, C 1-6 alkyl, or C 1-6 alkoxy; L 1 is a linker species selected from the group consisting of CR 8 R 9, CR 8 R 9 CR 10 R 11, and O; L 2 is a linker species selected from the group consisting of CH 2, CH 2 CH 2, CH 2 CH 2 CH 2, and CH 2 CH 2 CH 2C H 2; each of R 8, R 9, R 10, and R 11 individually is hydrogen or C 1-6 alkyl; and the dashed line indicates an optional double bond; or a pharmaceutically acceptable salt thereof.
Jack-up offshore platform, comprising a work deck supported by spud poles and adjustable in height above the water surface, wherein at least one spud pole comprises means for reducing lateral oscillating movements of the platform, the means comprising a mass, and damping means which connect the mass to the spud pole and which damp lateral oscillating movements of the mass.
A receiving sleeve of a tool set for the supporting mount of surgical tools, in particular dental rotary tools, comprising a cylindrical hollow body, having an end face provided with an insertion opening for inserting a tool, wherein the cylindrical hollow body comprises a number of circumferentially spaced inner clamping elements which have punctiform or linear engagement sections which are provided at their free, preferably radially inward protruding ends and adapted for making a force-fit and/or form-fit contact with an inserted tool for holding the tool within the receiving sleeve at a radial distance to the cylindrical hollow body, characterized in that the inner side of the hollow body is provided with a number of rigid protrusions which extend axially in rib-like fashion and are chamfered like a funnel in the area of the insertion opening, producing an insertion aid for a tool to be inserted.
A method for determining the volumetric error of a mechatronic system (20, 20'), comprising: defining a volumetric point cloud depicting the volumetric work-space of the mechatronic system (20, 20'), said volumetric point cloud comprising N points; attaching a measuring device to the mechatronic system (20, 20'); fixing M fiducial points surrounding the mechatronic system (20, 20'), where M>3; defining a common reference system for the mechatronic system (20, 20'), the measuring device and the M fiducial points; the method being characterized by: sequentially moving the measuring device to each of the N points of the volumetric point cloud and, from each point in the volumetric point cloud, sequentially orienting the measuring device to each of the M fiducial points and, at each orientation, acquiring a distance value (D ij) from the current point to each of the M fiducial points, in such a way that the mechatronic system (20, 20') and therefore, the measuring device is moved just once to each of the N points of the volumetric cloud; processing said N × M distance values D ij applying a multilateration approach for obtaining the actual coordinates of each of the N actual positions to which the measuring device has been moved. defining a volumetric point cloud depicting the volumetric work-space of the mechatronic system (20, 20'), said volumetric point cloud comprising N points; attaching a measuring device to the mechatronic system (20, 20'); fixing M fiducial points surrounding the mechatronic system (20, 20'), where M>3; defining a common reference system for the mechatronic system (20, 20'), the measuring device and the M fiducial points; the method being characterized by: sequentially moving the measuring device to each of the N points of the volumetric point cloud and, from each point in the volumetric point cloud, sequentially orienting the measuring device to each of the M fiducial points and, at each orientation, acquiring a distance value (D ij) from the current point to each of the M fiducial points, in such a way that the mechatronic system (20, 20') and therefore, the measuring device is moved just once to each of the N points of the volumetric cloud; processing said N × M distance values D ij applying a multilateration approach for obtaining the actual coordinates of each of the N actual positions to which the measuring device has been moved. sequentially moving the measuring device to each of the N points of the volumetric point cloud and, from each point in the volumetric point cloud, sequentially orienting the measuring device to each of the M fiducial points and, at each orientation, acquiring a distance value (D ij) from the current point to each of the M fiducial points, in such a way that the mechatronic system (20, 20') and therefore, the measuring device is moved just once to each of the N points of the volumetric cloud; processing said N × M distance values D ij applying a multilateration approach for obtaining the actual coordinates of each of the N actual positions to which the measuring device has been moved.
A bit interleaving method for interleaving bits of a codeword generated based on a repeat-accumulate quasi-cyclic low-density parity check coding scheme, the bit interleaving method comprising: a parity interleaving step of permuting parity bits of the codeword such that the parity bits have a quasi-cyclic structure; a bit permutation step of applying a bit permutation process to the codeword after the parity interleaving step, the codeword being made up of N cyclic blocks each consisting of Q bits, to reorder the bits of the codeword in accordance with a bit permutation rule defining a reordering of the bits; and a dividing step of dividing the codeword after the bit permutation process into a plurality of constellation words, each of the constellation words being made up of M bits, wherein N is not a multiple of M, the bit permutation rule includes a first rule and a second rule, the first rule being applied to N'=N-X cyclic blocks among the N cyclic blocks, the second rule being applied to X cyclic blocks that are the ones of the N cyclic blocks excluding the N' cyclic blocks, the first rule and the second rule differing from each other, where X is the remainder of N divided by M, and the first rule defines the reordering of the bits of the codeword, such that the Q bits in each of the N'=N-X cyclic blocks are each allocated to a bit of an identical bit index in Q constellation words and said Q constellation words are each made up of one bit from each of M different cyclic blocks, said M different cyclic blocks being common to said Q constellation words. a parity interleaving step of permuting parity bits of the codeword such that the parity bits have a quasi-cyclic structure; a bit permutation step of applying a bit permutation process to the codeword after the parity interleaving step, the codeword being made up of N cyclic blocks each consisting of Q bits, to reorder the bits of the codeword in accordance with a bit permutation rule defining a reordering of the bits; and a dividing step of dividing the codeword after the bit permutation process into a plurality of constellation words, each of the constellation words being made up of M bits, wherein N is not a multiple of M, the bit permutation rule includes a first rule and a second rule, the first rule being applied to N'=N-X cyclic blocks among the N cyclic blocks, the second rule being applied to X cyclic blocks that are the ones of the N cyclic blocks excluding the N' cyclic blocks, the first rule and the second rule differing from each other, where X is the remainder of N divided by M, and the first rule defines the reordering of the bits of the codeword, such that the Q bits in each of the N'=N-X cyclic blocks are each allocated to a bit of an identical bit index in Q constellation words and said Q constellation words are each made up of one bit from each of M different cyclic blocks, said M different cyclic blocks being common to said Q constellation words.
Method of producing a polarizing optical element by applying a multilayer structure to one surface of a base optical element, the method comprising the following steps: a) producing the multilayer structure on a support; b) placing the base optical element and the multilayer structure carried by the support between a first pressing device having a bearing surface and a second pressing device having an inflatable membrane, the multilayer structure being turned towards the base optical element and a portion of an adhesive being placed between said structure and said base element; c) pressing the multilayer structure against the surface of the base optical element by inflating the membrane of the second device and keeping a fixed distance between the first and second pressing devices; and d) releasing the optical element and withdrawing the support so as to leave the multilayer structure bonded to the surface of said base optical element, said method being characterized in that the structure comprising an orienting first layer and a polarizing second layer comprising liquid-crystal polymers and at least one dichroic dye, said dichroic dye having an angular orientation determined by the first layer, and in that in that said polarizing second layer is undercured during steps b) and c) and the method includes a step of supplementarily curing the polarizing second layer, carried out after step c). a) producing the multilayer structure on a support; b) placing the base optical element and the multilayer structure carried by the support between a first pressing device having a bearing surface and a second pressing device having an inflatable membrane, the multilayer structure being turned towards the base optical element and a portion of an adhesive being placed between said structure and said base element; c) pressing the multilayer structure against the surface of the base optical element by inflating the membrane of the second device and keeping a fixed distance between the first and second pressing devices; and d) releasing the optical element and withdrawing the support so as to leave the multilayer structure bonded to the surface of said base optical element,
A carrier (5; 205) holding a plurality of bottles, the carrier comprising: a plurality of panels (20, 21, 22, 26, 30, 34; 220, 221, 222, 226, 230, 234) that extends at least partially around an interior of the carrier, the plurality of panels comprising a first top panel (20; 220), a second top panel (21; 221), and a back panel (30; 230), the first top panel (20; 220) being foldably connected to the second top panel (21; 221) and the back panel (30; 230), the second top panel (21; 221) being oblique with respect to the first top panel (20; 220) and the back panel (30; 230); a crown retention feature (90; 290) in the back panel (30; 230) adjacent the first top panel (20; 220) at least partially retaining a crown of a first bottle of the plurality of bottles; and a crown receiving opening (104; 304) in the second top panel (21; 221), characterized by the crown receiving opening (104; 304) being spaced apart from the first top panel (20; 220) for at least partially receiving a crown and a neck of a second bottle of the plurality of bottles so that the crown and the neck of the second bottle extend at least partially through the crown receiving opening (104; 304) which can display a label on a top portion of the second bottle, the plurality of bottles comprises a back row of bottles including the first bottle and a front row of bottles including the second bottle, and the carrier (5; 205) is asymmetric so that the carrier (5; 205) is configured differently adjacent the back row than it is configured adjacent the front row. a plurality of panels (20, 21, 22, 26, 30, 34; 220, 221, 222, 226, 230, 234) that extends at least partially around an interior of the carrier, the plurality of panels comprising a first top panel (20; 220), a second top panel (21; 221), and a back panel (30; 230), the first top panel (20; 220) being foldably connected to the second top panel (21; 221) and the back panel (30; 230), the second top panel (21; 221) being oblique with respect to the first top panel (20; 220) and the back panel (30; 230); a crown retention feature (90; 290) in the back panel (30; 230) adjacent the first top panel (20; 220) at least partially retaining a crown of a first bottle of the plurality of bottles; and a crown receiving opening (104; 304) in the second top panel (21; 221), characterized by the crown receiving opening (104; 304) being spaced apart from the first top panel (20; 220) for at least partially receiving a crown and a neck of a second bottle of the plurality of bottles so that the crown and the neck of the second bottle extend at least partially through the crown receiving opening (104; 304) which can display a label on a top portion of the second bottle, the plurality of bottles comprises a back row of bottles including the first bottle and a front row of bottles including the second bottle, and the carrier (5; 205) is asymmetric so that the carrier (5; 205) is configured differently adjacent the back row than it is configured adjacent the front row.
A method for processing micro-operations, the method comprising: fetching a plurality of micro-operations, wherein the plurality of micro-operations includes a first micro-operation; in response to a queue entry in a first queue (138;140) not being available for the first micro-operation, dispatching the first micro-operation to an age-ordered scheduler queue without dispatching the first micro-operation to the first queue, wherein the scheduler queue holds a dispatch payload associated with the first micro-operation, where the first queue is a load queue or a store queue; associating, at dispatch time, each micro-operation with a queue entry in the first queue (138;140) in program order to maintain age-order; determining a queue entry in the first queue (138;140) identified by the first micro-operation becoming available and source information required by the first micro-operation becoming ready; and in response to the queue entry in the first queue (138;140) identified by the first micro-operation becoming available and source information required by the first micro-operation becoming ready: performing address generation for the micro-operation; reading the dispatch payload including the first micro-operation; and sending the dispatch payload including data to be stored as specified by the first micro-operation to the available queue entry identified by the first micro-operation in the first queue (138;140). fetching a plurality of micro-operations, wherein the plurality of micro-operations includes a first micro-operation; in response to a queue entry in a first queue (138;140) not being available for the first micro-operation, dispatching the first micro-operation to an age-ordered scheduler queue without dispatching the first micro-operation to the first queue, wherein the scheduler queue holds a dispatch payload associated with the first micro-operation, where the first queue is a load queue or a store queue; associating, at dispatch time, each micro-operation with a queue entry in the first queue (138;140) in program order to maintain age-order; determining a queue entry in the first queue (138;140) identified by the first micro-operation becoming available and source information required by the first micro-operation becoming ready; and in response to the queue entry in the first queue (138;140) identified by the first micro-operation becoming available and source information required by the first micro-operation becoming ready: performing address generation for the micro-operation; reading the dispatch payload including the first micro-operation; and sending the dispatch payload including data to be stored as specified by the first micro-operation to the available queue entry identified by the first micro-operation in the first queue (138;140). performing address generation for the micro-operation; reading the dispatch payload including the first micro-operation; and sending the dispatch payload including data to be stored as specified by the first micro-operation to the available queue entry identified by the first micro-operation in the first queue (138;140).
An image processing method, comprising: controlling a first camera to capture a plurality of first images (11, 12, 13, 14) and controlling a second camera to capture a plurality of second images (21, 22, 23, 24), when a brightness of a capturing environment is less than a predetermined threshold; wherein the image processing method further comprises: acquiring a first reference image from the plurality of first images (11, 12, 13, 14) and acquiring a second reference image from the plurality of second images (21, 22, 23, 24), the second reference image and the first reference image being captured in an association manner and forming a pair of images; performing composition and noise reduction processing on the plurality of first images (11, 12, 13, 14) by a first thread to generate a composited and noise-reduced image and processing the composited and noise-reduced image according to a preset image processing strategy to generate a target image, and acquiring depth of field information based on the first reference image and the second reference image by a second thread; and blurring a background region of the target image according to the depth of field information. controlling a first camera to capture a plurality of first images (11, 12, 13, 14) and controlling a second camera to capture a plurality of second images (21, 22, 23, 24), when a brightness of a capturing environment is less than a predetermined threshold; wherein the image processing method further comprises: acquiring a first reference image from the plurality of first images (11, 12, 13, 14) and acquiring a second reference image from the plurality of second images (21, 22, 23, 24), the second reference image and the first reference image being captured in an association manner and forming a pair of images; performing composition and noise reduction processing on the plurality of first images (11, 12, 13, 14) by a first thread to generate a composited and noise-reduced image and processing the composited and noise-reduced image according to a preset image processing strategy to generate a target image, and acquiring depth of field information based on the first reference image and the second reference image by a second thread; and blurring a background region of the target image according to the depth of field information.