mhurhangee/ep-ind-claims huggingface dataset:
A measurement device comprising: a device main unit being a microplate including a plurality of cavities arranged in an array, the cavities being wells adapted to accommodate an analyte containing a specimen, said cavities including a bottom section and an upper section, the device main unit including a first member comprising an array of wells forming closed bottom sections of the cavities and a second member comprising an array of through-holes corresponding to the wells of the first member, said through-holes forming the upper sections of the cavities; and a flat or film-like aperture array structure disposed between the first member and the second member, the aperture array structure including a plurality of apertures extending therethrough in a direction perpendicular to a principal surface thereof, the aperture array structure being a single aperture array structure including a plurality of effective regions arranged in the plurality of cavities, respectively, wherein the aperture array structure is sandwiched between the first member and the second member and thereby fixed to the device main unit such that the plurality of effective regions are positioned in the plurality of cavities, respectively, wherein the aperture array structure is arranged in an intermediate position in the cavities between the bottom and upper sections thereof and detachable from and attachable to the device main unit. a device main unit being a microplate including a plurality of cavities arranged in an array, the cavities being wells adapted to accommodate an analyte containing a specimen, said cavities including a bottom section and an upper section, the device main unit including a first member comprising an array of wells forming closed bottom sections of the cavities and a second member comprising an array of through-holes corresponding to the wells of the first member, said through-holes forming the upper sections of the cavities; and a flat or film-like aperture array structure disposed between the first member and the second member, the aperture array structure including a plurality of apertures extending therethrough in a direction perpendicular to a principal surface thereof, the aperture array structure being a single aperture array structure including a plurality of effective regions arranged in the plurality of cavities, respectively, wherein the aperture array structure is sandwiched between the first member and the second member and thereby fixed to the device main unit such that the plurality of effective regions are positioned in the plurality of cavities, respectively, wherein the aperture array structure is arranged in an intermediate position in the cavities between the bottom and upper sections thereof and detachable from and attachable to the device main unit.
A method of providing a transcoded web resource to a user, the method comprising establishing a record that maps a first internet domain name to a second internet domain name by prefixing data in a field of a resource record for the first internet domain name with the second internet domain name; receiving a request from the user, the request including the first internet domain name; identifying the second internet domain name based on the first internet domain name and the established record; retrieving (S14, S15) an existing web resource identified by the second internet domain name; transcoding the existing web resource into the transcoded web resource; and transmitting the transcoded web resource to the user.
A composite product with a skin having a surface effect, the composite product comprising: - a substrate (44, 144, 344) comprising a material including a substantially open-celled structure; - a surface effect material (30, 130, 330) in particulate form; and - a sheet-form curable material (40, 140, 340), wherein the sheet-form curable material (40, 140, 340) is at least partially cured and is bonded to the substrate (44, 144, 344) and the surface effect material (30, 130, 330) is embedded in an exposed surface of the sheet-form curable material (40, 140, 340). - a substrate (44, 144, 344) comprising a material including a substantially open-celled structure; - a surface effect material (30, 130, 330) in particulate form; and - a sheet-form curable material (40, 140, 340),
A filter apparatus for mechanically filtering a liquid, the filter apparatus comprising: a filter chamber containing a plurality of filter elements for filtering the liquid, the filter elements each having an open cell structure; and a steriliser unit disposed inside the filter chamber for sterilising the filter elements in the filter chamber; wherein, in use, the liquid flows through the filter chamber and causes the filter elements to form a filter pack in the filter chamber, the steriliser unit being located inside the filter chamber such that the filter elements form the filter pack around at least a portion of the steriliser unit, the steriliser unit being configured to extend at least partially into the filter pack formed in the filter chamber. a filter chamber containing a plurality of filter elements for filtering the liquid, the filter elements each having an open cell structure; and a steriliser unit disposed inside the filter chamber for sterilising the filter elements in the filter chamber; wherein, in use, the liquid flows through the filter chamber and causes the filter elements to form a filter pack in the filter chamber, the steriliser unit being located inside the filter chamber such that the filter elements form the filter pack around at least a portion of the steriliser unit, the steriliser unit being configured to extend at least partially into the filter pack formed in the filter chamber.
An actuator drive unit housing comprising: an exterior surface comprising a thrust bearing raceway; a first relief; a column (410, 411) defined by the first relief positioned adjacent to a second relief; and a load cell comprising the column and a strain gauge coupled to the column (410,411), wherein the load cell is defined by a portion of the actuator drive unit housing, and characterized in that said first relief, said second relief, and said column (410, 411) are formed in the actuator drive unit housing, and said first relief comprises an inset portion which does not traverse the entire thickness of the actuator drive unit housing. an exterior surface comprising a thrust bearing raceway; a first relief; a column (410, 411) defined by the first relief positioned adjacent to a second relief; and a load cell comprising the column and a strain gauge coupled to the column (410,411), wherein the load cell is defined by a portion of the actuator drive unit housing, and characterized in that said first relief, said second relief, and said column (410, 411) are formed in the actuator drive unit housing, and said first relief comprises an inset portion which does not traverse the entire thickness of the actuator drive unit housing.
An isolated anti-FcRn antibody comprising a light chain variable region (V L) and a heavy chain variable region (V H), wherein the antibody binds to human FcRn; wherein the V L comprises: (i) a V L CDR1 comprising the amino acid sequence TGTGSDVGSYNLVS (SEQ ID NO:14); (ii) a V L CDR2 comprising the amino acid sequence GDSQRPS (SEQ ID NO:15); and (iii) a V L CDR3 comprising the amino acid sequence SSYAGSGIYV (SEQ ID NO:12) or ASYAGSGIYV (SEQ ID NO:13); and the V H comprises: (i) a V H CDR1 comprising the amino acid sequence EYAMG (SEQ ID NO:22); (ii) a V H CDR2 comprising the amino acid sequence SIGSSGGQTKYADSVKG (SEQ ID NO:23); and (iii) a V H CDR3 comprising the amino acid sequence LAIGDSY (SEQ ID NO:24) and wherein the anti-FcRn antibody binds to human FcRn with a dissociation constant (K d) of less than 10 nM as measured by surface plasmon resonance in phosphate buffer saline at pH 7.2 at 30°C. (i) a V L CDR1 comprising the amino acid sequence TGTGSDVGSYNLVS (SEQ ID NO:14); (ii) a V L CDR2 comprising the amino acid sequence GDSQRPS (SEQ ID NO:15); and (iii) a V L CDR3 comprising the amino acid sequence SSYAGSGIYV (SEQ ID NO:12) or ASYAGSGIYV (SEQ ID NO:13); and (i) a V H CDR1 comprising the amino acid sequence EYAMG (SEQ ID NO:22); (ii) a V H CDR2 comprising the amino acid sequence SIGSSGGQTKYADSVKG (SEQ ID NO:23); and (iii) a V H CDR3 comprising the amino acid sequence LAIGDSY (SEQ ID NO:24)
A compound for trans-membrane delivery of a drug, the compound having a structure as set forth in Formula: wherein n and m are integers, each individually selected from null and 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19 or 20; k is an integer, selected from 2, 3, 4, 5, 6 or 7; Z is null or -S-S-; and Q is a linkage point to a drug; or having a structure as set forth in Formula: wherein Q is a linkage point to a drug; or having a structure as set forth in Formula (VIIa): wherein Q is a linkage point to a drug; or having a structure as set forth in Formula (VIII): wherein n and m are integers, each individually selected from null and 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19 or 20; Z is selected from null or -S-S-; and Q is a linkage point to a drug; or having a structure as set forth in Formula: wherein Q is a linkage point to a drug; or having a structure as set forth in Formula (IXa): wherein Q is a linkage point to a drug; or a pharmaceutically acceptable salt, hydrate, solvate or metal chelate thereof. n and m are integers, each individually selected from null and 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19 or 20; k is an integer, selected from 2, 3, 4, 5, 6 or 7; Z is null or -S-S-; and Q is a linkage point to a drug; or having a structure as set forth in Formula: wherein Q is a linkage point to a drug; or having a structure as set forth in Formula (VIIa): wherein Q is a linkage point to a drug; or having a structure as set forth in Formula (VIII): wherein n and m are integers, each individually selected from null and 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19 or 20; Z is selected from null or -S-S-; and Q is a linkage point to a drug; n and m are integers, each individually selected from null and 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19 or 20; Z is selected from null or -S-S-; and Q is a linkage point to a drug; or having a structure as set forth in Formula: wherein Q is a linkage point to a drug; or having a structure as set forth in Formula (IXa): wherein Q is a linkage point to a drug; or a pharmaceutically acceptable salt, hydrate, solvate or metal chelate thereof.
A method of decoding three-dimensional video data, the method comprising: adding one or more motion vector candidates to a motion vector candidate list; identifying, from the one or more motion vector candidates in the motion vector candidate list, a disparity motion vector candidate; determining a disparity shifted motion vector (DSMV) candidate using the identified disparity motion vector candidate, wherein DSMV = mv, DSMV = mv, where mv is the identified disparity motion vector candidate, and DSMV +=4, reference indices are inherited from the first available candidate, and, when backward view synthesis prediction (BVSP) is enabled, DSMV = 0; wherein DSMV[i] and mv[i] refer to a motion vector of prediction direction i respectively, where i = 0 or 1, mv[i] and mv[i] refer to the horizontal and vertical component of mv[i] respectively and DSMV[i] and DSMV[i] refer to the horizontal and vertical component of DSMV[i] respectively; wherein reference indices refer to reference index information such as a reference picture to which the motion vector points; adding the DSMV candidate to the motion vector candidate list; for a block of video data, receiving an index value identifying a candidate from the motion vector candidate list; and, decoding the block of video data using a motion vector corresponding to the identified candidate, wherein identifying the disparity motion vector candidate comprises identifying a first available disparity motion vector candidate from the first N candidates in the motion vector candidate list, wherein N is an integer number that is less than a maximum number of candidates. adding one or more motion vector candidates to a motion vector candidate list; identifying, from the one or more motion vector candidates in the motion vector candidate list, a disparity motion vector candidate; determining a disparity shifted motion vector (DSMV) candidate using the identified disparity motion vector candidate, wherein DSMV = mv, DSMV = mv, where mv is the identified disparity motion vector candidate, and DSMV +=4, reference indices are inherited from the first available candidate, and, when backward view synthesis prediction (BVSP) is enabled, DSMV = 0; wherein DSMV[i] and mv[i] refer to a motion vector of prediction direction i respectively, where i = 0 or 1, mv[i] and mv[i] refer to the horizontal and vertical component of mv[i] respectively and DSMV[i] and DSMV[i] refer to the horizontal and vertical component of DSMV[i] respectively; wherein reference indices refer to reference index information such as a reference picture to which the motion vector points; adding the DSMV candidate to the motion vector candidate list; for a block of video data, receiving an index value identifying a candidate from the motion vector candidate list; and, decoding the block of video data using a motion vector corresponding to the identified candidate, wherein identifying the disparity motion vector candidate comprises identifying a first available disparity motion vector candidate from the first N candidates in the motion vector candidate list, wherein N is an integer number that is less than a maximum number of candidates.
A method for converting a vehicle seat of a passenger car, wherein the vehicle seat has separate upholsteries for headrest and backrest and the headrest has an upholstery carrier arranged in the upholstery, wherein an intermediate space between headrest and backrest is spanned by exposed supporting struts, so that the upholstery carrier is coupled with a support structure of the vehicle seat for receiving acting forces, characterized by the steps: removing of a cover from the original upholstery of the headrest, removing of the original upholstery of the headrest, in order to at least partially expose the upholstery carrier arranged therein, applying a conversion upholstery onto the exposed upholstery carrier, wherein the conversion upholstery is shaped differently with respect to the original upholstery and wherein the conversion upholstery surrounds the upholstery carrier and the support struts, wherein the conversion upholstery is shaped and put in place such that between backrest and conversion upholstery along the upper backrest a direct abutting of the conversion upholstery against the backrest is brought about, covering of the backrest and of the conversion upholstery with a conversion cover. removing of a cover from the original upholstery of the headrest, removing of the original upholstery of the headrest, in order to at least partially expose the upholstery carrier arranged therein, applying a conversion upholstery onto the exposed upholstery carrier, wherein the conversion upholstery is shaped differently with respect to the original upholstery and wherein the conversion upholstery surrounds the upholstery carrier and the support struts, wherein the conversion upholstery is shaped and put in place such that between backrest and conversion upholstery along the upper backrest a direct abutting of the conversion upholstery against the backrest is brought about, covering of the backrest and of the conversion upholstery with a conversion cover.
An immunoconjugate comprising at least one naturally occurring T cell response eliciting peptide that is presentable via MHC class I coupled to a target cell binding antibody via a cleavable bond, wherein the cleavable bond is arranged such that upon cleavage said T cell response eliciting peptide, which is directly presentable via a MHC class I molecule, is released from the immunoconjugate, characterized in that the naturally occurring T cell response eliciting peptide comprises at least one cysteine residue and in that the unmodified T cell response eliciting peptide is covalently coupled to the target cell binding antibody via a disulfide bond.
A system of reconditioning a medical instrument comprising a device and distinct dedicated reconditioning machines (13, 14, 15) to recondition said medical instrument, said device comprising a single connector configured to be removably connected to the medical instrument and to counter-connectors (12a, 12b, 12c) of said distinct dedicated reconditioning machines (13, 14, 15), said connector and said counter-connector (12a, 12b, 12c) being mating, wherein said connector comprises a connection head provided with a series of connection elements and on one side a plurality of tubular elements, wherein a specific tubular treatment element is connected to each of the connection elements, inside a casing of the connector, in which tubular treatment element fluid for washing or disinfection can flow, wherein each of the tubular elements is flexible and is connectable by means of suitable connection means to apertures or inlets of the medical instrument, so as to reach the channels and the internal zones, wherein the counter-connector (12a, 12b, 12c) is installed on each of the machines (13, 14, 15) and comprises a support plate which is connectable to one of the walls of the machine (13, 14, 15) and a seating and wherein the connection head of the connector is inserted into the seating of the counter-connector (12a, 12b, 12c), so as to obtain a stable and sealed connection. wherein said connector comprises a connection head provided with a series of connection elements and on one side a plurality of tubular elements, wherein a specific tubular treatment element is connected to each of the connection elements, inside a casing of the connector, in which tubular treatment element fluid for washing or disinfection can flow, wherein each of the tubular elements is flexible and is connectable by means of suitable connection means to apertures or inlets of the medical instrument, so as to reach the channels and the internal zones, wherein the counter-connector (12a, 12b, 12c) is installed on each of the machines (13, 14, 15) and comprises a support plate which is connectable to one of the walls of the machine (13, 14, 15) and a seating and wherein the connection head of the connector is inserted into the seating of the counter-connector (12a, 12b, 12c), so as to obtain a stable and sealed connection.
A power transmitter for a wireless power transfer system including a power receiving device for receiving a power transfer from the power transmitter via a wireless inductive power transfer signal; the power transmitter comprising: a power output circuit (201, 103) comprising a transmit power coil arranged to generate the wireless inductive power transfer signal; a test signal coil arranged to generate a magnetic test signal; a test signal generator coupled to the test signal coil and arranged to feed a test signal to the test signal coil resulting in the generation of the magnetic test signal; a plurality of spatially distributed detection coils; a measurement unit arranged to generate a set of measurement values reflecting signals induced in the spatially distributed detection coils by the magnetic test signal; a processor arranged to determine a measurement spatial distribution of the measurement values, the spatial distribution reflecting positions of the detection coils; and a foreign object detector arranged to detect a presence of a foreign object in response to a comparison of the measurement spatial distribution to a reference spatial distribution, characterized in that the foreign object detector is arranged to determine the reference spatial distribution in response to data received from the power receiving device. a power output circuit (201, 103) comprising a transmit power coil arranged to generate the wireless inductive power transfer signal; a test signal coil arranged to generate a magnetic test signal; a test signal generator coupled to the test signal coil and arranged to feed a test signal to the test signal coil resulting in the generation of the magnetic test signal; a plurality of spatially distributed detection coils; a measurement unit arranged to generate a set of measurement values reflecting signals induced in the spatially distributed detection coils by the magnetic test signal; a processor arranged to determine a measurement spatial distribution of the measurement values, the spatial distribution reflecting positions of the detection coils; and a foreign object detector arranged to detect a presence of a foreign object in response to a comparison of the measurement spatial distribution to a reference spatial distribution, characterized in that the foreign object detector is arranged to determine the reference spatial distribution in response to data received from the power receiving device.
A method of notifying a system message, comprising: receiving, by a Distributed Unit, DU, information related to a system message sent by a Central Unit, CU; notifying, by the DU, a terminal of the information; wherein: the information related to the system message is access control auxiliary information of a part or all of service categories, and the access control auxiliary information is access control configuration parameters for some or all of service categories, or overload level information for some or all of service categories, or new access control configuration parameters for some or all of service categories, or new overload level information for some or all of service categories; wherein the access control configuration parameters or the new access control configuration parameters include blocking probability factor or blocking time; when the DU notifies the terminal of the information, the DU generates system information related to the system message according to the access control auxiliary information and sends the system information to the terminal. receiving, by a Distributed Unit, DU, information related to a system message sent by a Central Unit, CU; notifying, by the DU, a terminal of the information; wherein: the information related to the system message is access control auxiliary information of a part or all of service categories, and the access control auxiliary information is access control configuration parameters for some or all of service categories, or overload level information for some or all of service categories, or new access control configuration parameters for some or all of service categories, or new overload level information for some or all of service categories; wherein the access control configuration parameters or the new access control configuration parameters include blocking probability factor or blocking time; when the DU notifies the terminal of the information, the DU generates system information related to the system message according to the access control auxiliary information and sends the system information to the terminal. the information related to the system message is access control auxiliary information of a part or all of service categories, and the access control auxiliary information is access control configuration parameters for some or all of service categories, or overload level information for some or all of service categories, or new access control configuration parameters for some or all of service categories, or new overload level information for some or all of service categories; wherein the access control configuration parameters or the new access control configuration parameters include blocking probability factor or blocking time; when the DU notifies the terminal of the information, the DU generates system information related to the system message according to the access control auxiliary information and sends the system information to the terminal.