mhurhangee/ep-ind-claims huggingface dataset:
A random access method, comprising: when initiating random access, acquiring a Physical Random Access Channel, PRACH, resource for multi-preamble transmission from a presently associated downlink beam, wherein the PRACH resource is to indicate a multi-preamble transmission opportunity; starting preamble transmission from a time-frequency resource position in a present multi-preamble transmission opportunity, and when transmission of all preambles is ended, starting monitoring a Random Access Response, RAR, receiving window; and if an RAR is received in the RAR receiving window, determining a sending beam that the RAR corresponds to, sending a message MSG3 to a base station through the sending beam, and waiting to receive a message MSG4 returned by the base station, characterized in that determining the sending beam that the RAR corresponds to comprises: when a plurality of RARs for a same preamble identifier are received, selecting an RAR with a highest priority according to priorities of the RARs carried in the plurality of RARs; and determining the sending beam that the RAR corresponds to according to a Random Access Radio Network Temporary Identifier, RA-RNTI, corresponding to the RAR with the highest priority. when initiating random access, acquiring a Physical Random Access Channel, PRACH, resource for multi-preamble transmission from a presently associated downlink beam, wherein the PRACH resource is to indicate a multi-preamble transmission opportunity; starting preamble transmission from a time-frequency resource position in a present multi-preamble transmission opportunity, and when transmission of all preambles is ended, starting monitoring a Random Access Response, RAR, receiving window; and if an RAR is received in the RAR receiving window, determining a sending beam that the RAR corresponds to, sending a message MSG3 to a base station through the sending beam, and waiting to receive a message MSG4 returned by the base station, characterized in that determining the sending beam that the RAR corresponds to comprises: when a plurality of RARs for a same preamble identifier are received, selecting an RAR with a highest priority according to priorities of the RARs carried in the plurality of RARs; and determining the sending beam that the RAR corresponds to according to a Random Access Radio Network Temporary Identifier, RA-RNTI, corresponding to the RAR with the highest priority. when a plurality of RARs for a same preamble identifier are received, selecting an RAR with a highest priority according to priorities of the RARs carried in the plurality of RARs; and determining the sending beam that the RAR corresponds to according to a Random Access Radio Network Temporary Identifier, RA-RNTI, corresponding to the RAR with the highest priority.
Device for moving a furniture part which is held on a furniture body of a piece of furniture, wherein the device has guide means with which, when the device is mounted on the piece of furniture, the furniture part can be moved from a closed position into an open position relative to the furniture body and back, wherein the furniture part assumes a position moved at most up to a front side of the furniture body when in the closed position, wherein the device has a housing, on which the guide means are movably mounted, guide means being formed as an articulated lever, wherein there is a first and a second articulated lever (14.1, 14.2), wherein the first and the second articulated lever (14.1, 14.2) are connected to each other in an articulated manner, wherein the first articulated lever (14.1) is formed in the manner of a sandwich with at least two lever arms (38a, 38b), so that the second articulated lever (14.2) is movably held between the two lever arms (38a, 38b) of the first articulated lever (14.1), wherein the first articulated lever (14.1) is designed such that it can be arranged detachably on mounting means (15a, 15b) of the device, wherein the mounting means (15a, 15b) can be mounted on the furniture part, wherein the guide means comprise a third articulated lever (14.3), wherein the third articulated lever (14.3) is formed in the manner of a sandwich with at least two lever arms, so that the second articulated lever (14.2) is movably held between the two lever arms of the third articulated lever (14.3), characterized in that the guide means comprise a fourth articulated lever (14.4), wherein the fourth articulated lever is movably held between the two lever arms of the third articulated lever (14.3), wherein the fourth articulated lever (14.4) is movably held between the two lever arms of the first articulated lever (14.1).
Apparatus for presenting a teat cup for attaching to a teat of an animal to be milked, the apparatus comprising: a support means adapted for mounting beneath an upwardly facing major surface of a platform (2, 11) on which an animal stands during milking thereof, and a teat cup carrier for holding the teat cup, the teat cup carrier being mounted on the support means and being adapted for holding the teat cup beneath the animal in a ready state with the teat cup ready to be urged upwardly from the teat cup carrier for attaching to the teat of the animal, wherein the teat cup carrier is adapted to accommodate a vacuum hose (34, 35) therethrough extending from the teat cup, so that the vacuum hose (34, 35) can be pulled through the teat cup carrier when the teat cup is being urged from the teat cup carrier to an animal, characterised in that a pivotally mounted urging means is engageable with the vacuum hose (34, 35) extending from the teat cup, and the urging means is pivotal from a first state to a second state for urging the vacuum hose (34, 35) through the teat cup carrier for in turn urging the teat cup from the teat of an animal. a support means adapted for mounting beneath an upwardly facing major surface of a platform (2, 11) on which an animal stands during milking thereof, and a teat cup carrier for holding the teat cup, the teat cup carrier being mounted on the support means and being adapted for holding the teat cup beneath the animal in a ready state with the teat cup ready to be urged upwardly from the teat cup carrier for attaching to the teat of the animal, wherein the teat cup carrier is adapted to accommodate a vacuum hose (34, 35) therethrough extending from the teat cup, so that the vacuum hose (34, 35) can be pulled through the teat cup carrier when the teat cup is being urged from the teat cup carrier to an animal, characterised in that a pivotally mounted urging means is engageable with the vacuum hose (34, 35) extending from the teat cup, and the urging means is pivotal from a first state to a second state for urging the vacuum hose (34, 35) through the teat cup carrier for in turn urging the teat cup from the teat of an animal.
A cooling panel coupled to an inner wall of a steel making furnace, comprising: piping sinuously winding between a first end and a second end, the piping including a plurality of section pipes aligned substantially parallel to one another; an inlet formed at the first end of the piping and configured to receive a fluid for cooling the furnace; an outlet formed at the second end of the piping and being in fluid communication with the inlet; a base member configured to couple the piping to the inner wall; and a plurality of one-piece return elbows (1, 53) each coupling two of the plurality of section pipes to one another; wherein, each of the plurality of one-piece return elbows (1, 53) comprises a first leg and a second leg, the first leg being welded to a first section pipe of the two section pipes and the second leg being welded to a second section pipe of the two section pipes; wherein, the first leg comprises a first length and the second leg comprises a second length, where the first length is greater than the second length; and wherein the first leg includes a first leg beveled edge being welded to the first section pipe and wherein the second leg includes a second leg beveled edge being welded to the second section pipe. piping sinuously winding between a first end and a second end, the piping including a plurality of section pipes aligned substantially parallel to one another; an inlet formed at the first end of the piping and configured to receive a fluid for cooling the furnace; an outlet formed at the second end of the piping and being in fluid communication with the inlet; a base member configured to couple the piping to the inner wall; and a plurality of one-piece return elbows (1, 53) each coupling two of the plurality of section pipes to one another; wherein, each of the plurality of one-piece return elbows (1, 53) comprises a first leg and a second leg, the first leg being welded to a first section pipe of the two section pipes and the second leg being welded to a second section pipe of the two section pipes; wherein, the first leg comprises a first length and the second leg comprises a second length, where the first length is greater than the second length; and wherein the first leg includes a first leg beveled edge being welded to the first section pipe and wherein the second leg includes a second leg beveled edge being welded to the second section pipe.
A crystalline Form I of the compound of formula: which is characterized by an X-ray powder diffraction pattern (XPRD) comprising approximate peak positions (degrees 2 θ ± 0.2) when measured using Cu K α radiation, of 9.3, 16.6, 18.5, 19.4, 21.5, and 25.7, when the XPRD is collected from about 5 to about 38 degrees 2 θ.
Waste bin for used paper towels or the like waste, comprising a rear wall, two side walls (4, 5), a front wall, and compacting means (6, 7) in an upper part of the waste bin, said compacting means (6, 7) in a closed rest position divides the inner space of the waste bin into an upper and lower compartment and wherein the compacting means (6,7) are movable from the closed rest position to an open position and back to the closed rest position, the compacting means consisting of at least one plate (6, 7), characterised in that the at least one plate (6, 7) performs from said closed rest position, in which the waste is prevented from falling from the upper compartment into the lower compartment, a rotational and linear movement to open and thereby create an opening into the lower compartment whereby the waste will drop from the upper compartment into the lower compartment and re-close said opening into the lower compartment by a true rotational movement, whereby said plate (6, 7) is turned upside-down during the movement from the closed position to the re-closed position.
Method for determining wind speed in the plane of a rotor of a wind turbine, wherein the following steps are implemented: a) measuring the rotational speed of said rotor of said wind turbine, the tilt angle of the blades of said wind turbine, and the power generated by a conversion machine of said wind turbine; b) constructing a dynamic model of said wind turbine that links the rotational speed of said rotor of said wind turbine to said wind speed in said plane of the rotor, to said tilt angle of said blades of said wind turbine and to said power generated by said conversion machine of said wind turbine; c) constructing a dynamic model of the wind by way of a second-order random walk model; and d) determining said wind speed on said plane of said rotor by way of an unscented Kalman filter applied to said dynamic model of said wind turbine, to said dynamic model of the wind, and based on said measurements of said rotational speed of said rotor, of said tilt angle of said blades of the wind turbine, and of said power generated by said conversion machine of the wind turbine. a) measuring the rotational speed of said rotor of said wind turbine, the tilt angle of the blades of said wind turbine, and the power generated by a conversion machine of said wind turbine; b) constructing a dynamic model of said wind turbine that links the rotational speed of said rotor of said wind turbine to said wind speed in said plane of the rotor, to said tilt angle of said blades of said wind turbine and to said power generated by said conversion machine of said wind turbine; c) constructing a dynamic model of the wind by way of a second-order random walk model; and d) determining said wind speed on said plane of said rotor by way of an unscented Kalman filter applied to said dynamic model of said wind turbine, to said dynamic model of the wind, and based on said measurements of said rotational speed of said rotor, of said tilt angle of said blades of the wind turbine, and of said power generated by said conversion machine of the wind turbine.
A method for exposing a light-sensitive layer to light using an optical system with an optical path, wherein at least one light beam (6, 6') is generated by at least one light source, respectively, and pixels of an exposure pattern grid (24, 24', 24", 24''') are illuminated by at least one micro-mirror device with a plurality of micro-mirrors, characterised in that horizontal and/or vertical exposure pattern grid lines of the exposure pattern grid (24, 24', 24", 24"') are sheared by means of optical elements, wherein shearing of a DMD image leaving the micro-mirror device is effected along the optical path.
An inlet header for a fuel cell comprising: an inner end configured to be located against a plate stack of the fuel cell, an outer end spaced apart from the inner end, and a plurality of segments between the inner end and the outer end, and the plurality of segments include: an outer segment that extends from the outer end to a first intermediate end, wherein the outer segment defines a cylindrical profile; a first intermediate segment that forms an outer elbow and extends from the first intermediate end to a second intermediate end, wherein the second intermediate end has a rectangular shape, and wherein the first intermediate segment increases in width proportionally as it extends toward the second intermediate end; a second intermediate segment that extends from the second intermediate end to a third intermediate end, wherein the third intermediate end has a rectangular shape, and wherein the second intermediate segment increases in width and height proportionally as it extends toward the third intermediate end; and an inner segment that forms an inner elbow and extends from the third intermediate end to the inner end of the inlet header. an outer segment that extends from the outer end to a first intermediate end, wherein the outer segment defines a cylindrical profile; a first intermediate segment that forms an outer elbow and extends from the first intermediate end to a second intermediate end, wherein the second intermediate end has a rectangular shape, and wherein the first intermediate segment increases in width proportionally as it extends toward the second intermediate end; a second intermediate segment that extends from the second intermediate end to a third intermediate end, wherein the third intermediate end has a rectangular shape, and wherein the second intermediate segment increases in width and height proportionally as it extends toward the third intermediate end; and an inner segment that forms an inner elbow and extends from the third intermediate end to the inner end of the inlet header.
A microfluidic device, comprising: a microfluidic channel wherein an internal surface of at least one wall of the microfluidic channel comprises a plurality of grooves or ridges, or both grooves and ridges, arranged and configured to generate chaotic mixing within a fluid sample flowing through the microfluidic channel; and a plurality of elongate flexible linker molecules, each having a molecular weight approximately between 1.8-4.8 kDa, wherein each elongate flexible linker molecule is bound at a first end to an internal surface of at least one wall of the microfluidic channel and is bound at a second end to one or more binding moieties that specifically bind to a target extracellular vesicle. a microfluidic channel wherein an internal surface of at least one wall of the microfluidic channel comprises a plurality of grooves or ridges, or both grooves and ridges, arranged and configured to generate chaotic mixing within a fluid sample flowing through the microfluidic channel; and a plurality of elongate flexible linker molecules, each having a molecular weight approximately between 1.8-4.8 kDa, wherein each elongate flexible linker molecule is bound at a first end to an internal surface of at least one wall of the microfluidic channel and is bound at a second end to one or more binding moieties that specifically bind to a target extracellular vesicle.
A magnetic resonance imaging compatible drive system for controlling an elongate medical device, the system comprising: a follower assembly configured to secure to a mount, the follower assembly comprising a tubular member defining an aperture configured for receiving an elongate medical device, a guide rail having a gear track parallel with a center axis of the tubular member and extending in a longitudinal direction with respect to the tubular member; and a follower device comprising an alignment device configured to secure the elongate medical device configured to be aligned with the aperture of the tubular member, a first pulley assembly configured to move the follower device along the guide rail in the longitudinal direction, and a second pulley assembly configured to rotate the alignment device about the center axis; and a commander unit comprising a first drive spool shaft remotely connected to the first pulley assembly via a first wire, and a second drive spool shaft remotely connected to the second pulley assembly via a second wire. a follower assembly configured to secure to a mount, the follower assembly comprising a tubular member defining an aperture configured for receiving an elongate medical device, a guide rail having a gear track parallel with a center axis of the tubular member and extending in a longitudinal direction with respect to the tubular member; and a follower device comprising an alignment device configured to secure the elongate medical device configured to be aligned with the aperture of the tubular member, a first pulley assembly configured to move the follower device along the guide rail in the longitudinal direction, and a second pulley assembly configured to rotate the alignment device about the center axis; and a tubular member defining an aperture configured for receiving an elongate medical device, a guide rail having a gear track parallel with a center axis of the tubular member and extending in a longitudinal direction with respect to the tubular member; and a follower device comprising an alignment device configured to secure the elongate medical device configured to be aligned with the aperture of the tubular member, a first pulley assembly configured to move the follower device along the guide rail in the longitudinal direction, and a second pulley assembly configured to rotate the alignment device about the center axis; and an alignment device configured to secure the elongate medical device configured to be aligned with the aperture of the tubular member, a first pulley assembly configured to move the follower device along the guide rail in the longitudinal direction, and a second pulley assembly configured to rotate the alignment device about the center axis; and a commander unit comprising a first drive spool shaft remotely connected to the first pulley assembly via a first wire, and a second drive spool shaft remotely connected to the second pulley assembly via a second wire. a first drive spool shaft remotely connected to the first pulley assembly via a first wire, and a second drive spool shaft remotely connected to the second pulley assembly via a second wire.
An inductive vapor generator (100; 528), comprising: an outer support assembly; a coil disposed around the outer support assembly; an inner assembly disposed within the outer support assembly; a plurality of microtubes disposed within the inner assembly, the microtubes being configured to receive a fluid from a fluid source (118; 518); and a RF generator electrically coupled to the coil, the RF generator being configured to apply a current to the coil to inductively heat fluid in the plurality of microtubes to convert the fluid into a heated condensable vapor; characterized in that the inner assembly comprises a solid metal rod and the plurality of microtubes comprises an array of channels drilled through the solid metal rod. an outer support assembly; a coil disposed around the outer support assembly; an inner assembly disposed within the outer support assembly; a plurality of microtubes disposed within the inner assembly, the microtubes being configured to receive a fluid from a fluid source (118; 518); and a RF generator electrically coupled to the coil, the RF generator being configured to apply a current to the coil to inductively heat fluid in the plurality of microtubes to convert the fluid into a heated condensable vapor; characterized in that the inner assembly comprises a solid metal rod and the plurality of microtubes comprises an array of channels drilled through the solid metal rod.
A wet electrostatic precipitator comprising a component intended to be in direct contact with a process stream gas passing through the electrostatic precipitator, said component being a collection tube, a bundle of collection tubes or a collection surface fabricated from electrically-conductive, corrosion and spark- and/or temperature-resistant composite material consisting of carbon fiberglass within a thermosetting resin in a cross-linked structure or carbon fibre woven into a seamless biaxial material tube within a thermosetting resin.
A mixture of isolated peptides comprising three or more different isolated peptides, wherein each isolated peptide comprises a sequence selected from SEQ ID NOs: 3-146, wherein each isolated peptide further comprises: an additional N-terminal peptide sequence wherein the sequence is n 1 -n 2 -S-P-n 5 -n 6 -P (SEQ ID NO: 149), wherein n 1 is an amino acid selected from the group consisting of A and V, n 2 is an amino acid selected from the group consisting of E and D, n 5 is an amino acid selected from the group consisting of K and R, and n 6 is an amino acid selected from the group consisting of K and R; and an additional C-terminal peptide sequence wherein the sequence is: (i) V-c 2 -E-G-c 5 -Q-Q-E-G-A-Q-Q-P-S-C (SEQ ID NO: 150), wherein c 2 is an amino acid selected from the group consisting of Q and R, and c 5 is an amino acid selected from the group consisting of V and A; or (ii) A-V-c 3 -E-G-c 6 -Q-Q-E-G-A-Q-Q-P-S (SEQ ID NO: 151), wherein C 3 is an amino acid selected from the group consisting of Q and R, and C 6 is an amino acid selected from the group consisting of V and A. an additional N-terminal peptide sequence wherein the sequence is n 1 -n 2 -S-P-n 5 -n 6 -P (SEQ ID NO: 149), wherein n 1 is an amino acid selected from the group consisting of A and V, n 2 is an amino acid selected from the group consisting of E and D, n 5 is an amino acid selected from the group consisting of K and R, and n 6 is an amino acid selected from the group consisting of K and R; and an additional C-terminal peptide sequence wherein the sequence is: (i) V-c 2 -E-G-c 5 -Q-Q-E-G-A-Q-Q-P-S-C (SEQ ID NO: 150), wherein c 2 is an amino acid selected from the group consisting of Q and R, and c 5 is an amino acid selected from the group consisting of V and A; or (ii) A-V-c 3 -E-G-c 6 -Q-Q-E-G-A-Q-Q-P-S (SEQ ID NO: 151), wherein C 3 is an amino acid selected from the group consisting of Q and R, and C 6 is an amino acid selected from the group consisting of V and A. (i) V-c 2 -E-G-c 5 -Q-Q-E-G-A-Q-Q-P-S-C (SEQ ID NO: 150), wherein c 2 is an amino acid selected from the group consisting of Q and R, and c 5 is an amino acid selected from the group consisting of V and A; or (ii) A-V-c 3 -E-G-c 6 -Q-Q-E-G-A-Q-Q-P-S (SEQ ID NO: 151), wherein C 3 is an amino acid selected from the group consisting of Q and R, and C 6 is an amino acid selected from the group consisting of V and A.