mhurhangee/ep-ind-claims huggingface dataset:
A rack that can be introduced into and withdrawn from a dishwasher's tub comprising: an outer edge rib defining a space in which dishes are loaded; a lifting unit provided at the outer edge rib to move in a front-and-rear, i.e. withdrawal/insertion, direction of the outer edge rib; and a variable space loading unit provided at an inside of the outer edge rib to be movable upwardly and downwardly in the upper-and-lower direction of the outer edge rib, wherein the variable space loading unit is configured to move upwardly and downwardly relative to the outer edge rib according to movement of the lifting unit in the front-and-rear direction to decrease and increase a loading space, and wherein the variable space loading unit is coupled to the outer edge rib in a state of being suspended by a pair of support links (248a, 248b) turnably provided at the outer edge rib. an outer edge rib defining a space in which dishes are loaded; a lifting unit provided at the outer edge rib to move in a front-and-rear, i.e. withdrawal/insertion, direction of the outer edge rib; and a variable space loading unit provided at an inside of the outer edge rib to be movable upwardly and downwardly in the upper-and-lower direction of the outer edge rib, wherein the variable space loading unit is configured to move upwardly and downwardly relative to the outer edge rib according to movement of the lifting unit in the front-and-rear direction to decrease and increase a loading space, and wherein the variable space loading unit is coupled to the outer edge rib in a state of being suspended by a pair of support links (248a, 248b) turnably provided at the outer edge rib.
A control system for controlling the blood flow rate in a blood supply system in which a first pump is provided to transport blood from a reservoir via a first passage at a flow rate toward a plurality of outlets of which one or more of the outlets are openable to permit flow through the outlet and closable to block flow through the outlet, wherein the control system comprises a monitoring arrangement to determine a flow value representative of the flow rate through a first outlet of the plurality of outlets, one or more outlet pumps (28, 28a), each outlet pump provided to transport blood through an outlet (26, 26a), and a controller responsive to the monitoring arrangement, wherein the monitoring arrangement is configured to determine an outlet flow rate from outlet pump parameters or by analysing an operational status of the one or more outlet pumps, and wherein the flow value is determined based on the one or more outlet flow rates; whereby the controller is configured to control contemporaneously or proactively the first pump to maintain the flow rate through the first outlet at a pre-determined level.
A golf ball having at least 250 dimples on a surface thereof, wherein when a trajectory that is calculated based on a model by S. J. Quintavalla of the USGA being disclosed in Science and Golf IV, chapter 30, "A Generally Applicable Model for the Aerodynamic Behavior of Golf Balls" published in 2002 under conditions of a ball initial speed of 57.4 m/s, a launch angle of 13.3°, and an initial backspin rate of 2450 rpm by a program using a drag coefficient CD and a lift coefficient CL obtained through the Indoor Test Range specified in the rule of the USGA, is divided into a first segment from a launch point to a midpoint between the launch point and a top, a second segment from the midpoint between the launch point and the top to the top, a third segment from the top to a midpoint between the top and a landing point, and a fourth segment from the midpoint between the top and the landing point to the landing point, wherein the horizontal distance of the first segment is the same as that of the second segment and the horizontal distance of the third segment is the same as that of the fourth segment, an average CD1 of drag coefficients CD in the first segment is equal to or less than 0.225, an average CL1 of lift coefficients CL in the first segment is equal to or less than 0.180, an average CD2 of drag coefficients CD in the second segment is equal to or less than 0.250, an average CL2 of lift coefficients CL in the second segment is equal to or less than 0.220, an average CD3 of drag coefficients CD in the third segment is equal to or greater than 0.260, an average CL3 of lift coefficients CL in the third segment is equal to or greater than 0.220, an average CD4 of drag coefficients CD in the fourth segment is equal to or greater than 0.250, and an average CL4 of lift coefficients CL in the fourth segment is equal to or greater than 0.200, wherein the average drag and lift coefficients of each segment are determined by calculating for each segment every 5/1000 sec a respective coefficient and then calculating the average of all values obtained for the segment, wherein each dimple is obtained based on a contour of a Voronoi region assumed on a surface of a phantom sphere of the golf ball, wherein the surface of the phantom sphere is the surface that is defined by the land, and wherein a radius variation range Rh of each dimple is equal to or greater than 0.4 mm, wherein the radius variation range Rh of each dimple is measured by a method, in which 30 points P are assumed on the contour of the dimple 8 such that the length of the contour is divided into 30 equal parts, wherein these points P include a point Pp that is located on the contour of the dimple 8 and closest to a pole, wherein a coordinate of a center O is decided by averaging coordinates of the 30 points P and after the coordinate of the center O is decided, the distance between the center O and the point P is calculated, before for each point P the radius R is calculated, wherein the value obtained by subtracting the minimum value of the radius R from the maximum value of the radius R is the radius variation range Rh.
Method for operating a processing system, in which material comprising hardness formers is abrasively removed by means of a processing tool and fed to, and separated in, a suction device which is connected to the processing tool via a liquid circuit in which a cleaning liquid is circulated, wherein at least one softening medium is contained in the liquid circuit, wherein the at least one softening medium is used at a fixed location in the liquid circuit and/or the at least one softening medium is added to the cleaning liquid upon start-up of the processing system.
Reinforcing element for absorbing forces in border areas of concrete slabs in the region of support elements, in particular supporting members and bearing walls, which reinforcing element is substantially composed of steel, characterized by a substantially vertically designed, plate-shaped rear element, on the lower region of which rear element at least one base bar, aligned substantially perpendicular thereto, is attached, on the upper region of which rear element at least one further bar (11, 12) is attached, which further bar is aligned substantially perpendicular to the rear element, is provided with a bend, the bent region is directed toward the base bar at an acute angle (α) and the end region of this bent region is connected to the base bar by means of an anchoring element.
A method of forming a component for use in a gas turbine engine comprising the steps of: (a) determining a desired shape for a cooling hole on a gas turbine engine component; (b) determining the likely deposition of a coating to be provided on the component into the cooling hole; and (c) forming an intermediate cooling hole that has an enlarged area from the desired shape to account for deposition of the coating; and (d) then coating the component, wherein the cooled hole of desired shape includes a meter section communicating with a cooling air cavity and delivering air into a diffusor section, characterised in that: the diffusor section includes a ridge and opposed side portions (94, 96) with the ridge extending closer to an outer surface of the component than do said side portions (94, 96) such that said ridge guides air into said side portions (94, 96). (a) determining a desired shape for a cooling hole on a gas turbine engine component; (b) determining the likely deposition of a coating to be provided on the component into the cooling hole; and (c) forming an intermediate cooling hole that has an enlarged area from the desired shape to account for deposition of the coating; and (d) then coating the component,
A method for a network node for load control of a cell of a wireless communication system, which method comprises: starting an interference cancellation process, for reducing interference between uplink signals, estimating an interference cancellation gain, relative to an interference reduced received uplink signal power resulting from the interference cancellation process, wherein the interference cancellation gain is estimated after the start of the interference cancellation process but before the interference cancellation process is completed, characterized in that the estimation of the interference cancellation gain comprises comparing an air interface load target value with an interference reduced load value, wherein the interference reduced load value is calculated by estimating an interference reduced received total uplink signal power value in an interference cancelling receiver, divided by an estimated noise floor power value, wherein the interference reduced received total uplink signal power value and the noise floor power value are estimated after the start of the interference cancellation process but before the interference cancellation process is completed, and controlling the traffic load of the cell, by considering the estimated interference cancellation gain. starting an interference cancellation process, for reducing interference between uplink signals, estimating an interference cancellation gain, relative to an interference reduced received uplink signal power resulting from the interference cancellation process, wherein the interference cancellation gain is estimated after the start of the interference cancellation process but before the interference cancellation process is completed, characterized in that the estimation of the interference cancellation gain comprises comparing an air interface load target value with an interference reduced load value, wherein the interference reduced load value is calculated by estimating an interference reduced received total uplink signal power value in an interference cancelling receiver, divided by an estimated noise floor power value, wherein the interference reduced received total uplink signal power value and the noise floor power value are estimated after the start of the interference cancellation process but before the interference cancellation process is completed, and controlling the traffic load of the cell, by considering the estimated interference cancellation gain.
A method of wireless communication at a user equipment, UE (115; 115-a; 115-b; 115-c; 115-d; 115-e; 115-f; 155-g; 115-h), comprising: receiving a configuration for resources of a control channel associated with a node (115; 115-a; 115-b; 115-c; 115-d; 115-e; 115-f; 155-g; 115-h; 105; 105-a; 105-b; 105-c; 105-d; 105-e; 105-f; 105-g; 105-h), wherein the resources are included in a narrowband region of a wideband system; excluding, based at least in part on a message received from a base station (105; 105ah), resources of the narrowband region that comprise a control region for broadband communications from the control channel; identifying a plurality of subframes during which to monitor a demodulation reference signal, DM-RS, for decoding the resources of the control channel, wherein the plurality of subframes have a same precoding applied to the DM-RS across the plurality of subframes; and decoding the control channel based at least in part on the DM-RS. receiving a configuration for resources of a control channel associated with a node (115; 115-a; 115-b; 115-c; 115-d; 115-e; 115-f; 155-g; 115-h; 105; 105-a; 105-b; 105-c; 105-d; 105-e; 105-f; 105-g; 105-h), wherein the resources are included in a narrowband region of a wideband system; excluding, based at least in part on a message received from a base station (105; 105ah), resources of the narrowband region that comprise a control region for broadband communications from the control channel; identifying a plurality of subframes during which to monitor a demodulation reference signal, DM-RS, for decoding the resources of the control channel, wherein the plurality of subframes have a same precoding applied to the DM-RS across the plurality of subframes; and decoding the control channel based at least in part on the DM-RS.
A unit dose formulation comprising a pharmaceutically acceptable excipient and from 400 milligrams to 900 milligrams of a two-chain polypeptide comprising the amino acid sequence of SEQ ID NO. 13 or an amino acid sequence having at least 95% sequence identity to SEQ ID NO. 13, wherein the amino acid sequence having at least 95% sequence identity to SEQ ID NO. 13 (a) has reduced procoagulant activity compared to wild-type factor Xa and (b) does not assemble into a prothrombinase complex, for use in preventing, reducing, or ceasing bleeding in a human subject undergoing anticoagulant therapy with a factor Xa inhibitor, wherein the preventing, reducing or ceasing bleeding comprises administering to the subject the unit dose formulation by an intravenous bolus injection or a combination of a bolus injection and infusion wherein 400 milligrams to 900 milligrams of the two-chain polypeptide is administered.
A catheter (12, 212, 312), comprising: an outer layer defining a plurality of apertures (44, 46) therethrough; a body defining at least one longitudinal lumen therein, wherein at least a portion of the body is within the outer layer, and the apertures (44, 46) are radially outward of the lumen; a plurality of electrodes (48, 50) positioned in or on the catheter (12, 212, 312), each electrode (48, 50) being electrically exposed through an aperture (44, 46) of the plurality of apertures (44, 46); a ribbon cable (70', 70", 70′′′) including a plurality of leads, the plurality of leads being electrically connected to the plurality of electrodes (48, 50);wherein the plurality of leads are at least partially surrounded by a non conducting material; and wherein the ribbon cable (70', 70", 70′′′) is electrically connected to at least one electrode (48, 50) via a connection, wherein the plurality of electrodes (48, 50) includes a distal set of electrodes (48, 50) and a proximal set of electrodes (48, 50); and characterized in that the catheter (12, 212, 312) further comprises: a first radiopaque structure located distal to at least one electrode of the proximal set of electrodes; and a second radiopaque structure located proximal to at least one electrode of the distal set of electrodes. an outer layer defining a plurality of apertures (44, 46) therethrough; a body defining at least one longitudinal lumen therein, wherein at least a portion of the body is within the outer layer, and the apertures (44, 46) are radially outward of the lumen; a plurality of electrodes (48, 50) positioned in or on the catheter (12, 212, 312), each electrode (48, 50) being electrically exposed through an aperture (44, 46) of the plurality of apertures (44, 46); a ribbon cable (70', 70", 70′′′) including a plurality of leads, the plurality of leads being electrically connected to the plurality of electrodes (48, 50);wherein the plurality of leads are at least partially surrounded by a non conducting material; and wherein the ribbon cable (70', 70", 70′′′) is electrically connected to at least one electrode (48, 50) via a connection, wherein the plurality of electrodes (48, 50) includes a distal set of electrodes (48, 50) and a proximal set of electrodes (48, 50); and characterized in that the catheter (12, 212, 312) further comprises: a first radiopaque structure located distal to at least one electrode of the proximal set of electrodes; and a second radiopaque structure located proximal to at least one electrode of the distal set of electrodes. a first radiopaque structure located distal to at least one electrode of the proximal set of electrodes; and a second radiopaque structure located proximal to at least one electrode of the distal set of electrodes.
Folding roller with at least one circumferential groove and a collar arranged at least partially in the circumferential groove and comprising a material with a Shore A hardness in the range between 50 and 95 Shore, characterized in that the collar projects slightly beyond the surface of the folding roller (1, 2) and comprises at least one flexible axial section which is either radially movable and/or positionable at least in part with respect to the folding roller (1, 2), the groove and/or a base of the groove.
An apparatus for making cheese, comprising at least one vertical tubular draining column for receiving and draining cheese curd, which column at the lower end is provided with a dosing device for cutting off and discharging blocks of curd, which dosing device comprises a dosing plate vertically reciprocable in a sliding sleeve, for positioning a cut-off curd block in the sliding sleeve, which sliding sleeve is horizontally reciprocable between a first position just under the draining column and a second position above a set-up point for a cheese mold, wherein supporting means are provided for supporting a curd block during a movement of the sliding sleeve from the first to the second position, as well as operating means for removing the supporting means when the sliding sleeve is in the second position, and wherein the reciprocable dosing plate is further designed as supporting means for a curd block during the movement of the sliding sleeve from the first to the second position, characterized in that the dosing plate is coupled with said operating means, such that the dosing plate can be pulled away horizontally from under the curd block and into said first position when the sliding sleeve is in the second position.
A polypeptide comprising an amino acid sequence of SEQ ID NO: 4, wherein: (a) the residue at position 180 is glutamic acid; (b) the residue at position 171 is glycine; and (c) the residue at position 98 is arginine, and wherein the polypeptide is capable of lowering blood glucose levels in a mammal. (a) the residue at position 180 is glutamic acid; (b) the residue at position 171 is glycine; and (c) the residue at position 98 is arginine,
1. A wireless communication terminal, the terminal comprising: a communication unit; and a processor configured to process signals transmitted and received through the communication unit, wherein the processor is configured to: receive, through the communication unit, a high efficiency multi-user PHY protocol data unit, HE MU PPDU, wherein a preamble of the HE MU PPDU includes high efficiency signal A, HE-SIG-A, field and high efficiency signal B, HE-SIG-B, field, wherein the HE-SIG-A field includes a SIG-B compression subfield, an uplink/ downlink subfield, and a Number of HE-SIG-B Symbols subfield, and wherein the Number of HE-SIG-B Symbols field indicates a number of MU-MIMO users or a number of OFDM symbols in the HE-SIG-B field according to a value of the SIG-B compression subfield, and decode the received HE MU PPDU based on information obtained from the HE-SIG-A, wherein a user specific field included in the HE-SIG-B field consists of a user field for MU-MIMO allocation or non-MU-MIMO allocation depending on whether the Number of HE-SIG-B Symbols field indicates the number of MU-MIMO users or the number of symbols in the HE-SIG-B field. a communication unit; and a processor configured to process signals transmitted and received through the communication unit, wherein the processor is configured to: receive, through the communication unit, a high efficiency multi-user PHY protocol data unit, HE MU PPDU, wherein a preamble of the HE MU PPDU includes high efficiency signal A, HE-SIG-A, field and high efficiency signal B, HE-SIG-B, field, wherein the HE-SIG-A field includes a SIG-B compression subfield, an uplink/ downlink subfield, and a Number of HE-SIG-B Symbols subfield, and wherein the Number of HE-SIG-B Symbols field indicates a number of MU-MIMO users or a number of OFDM symbols in the HE-SIG-B field according to a value of the SIG-B compression subfield, and receive, through the communication unit, a high efficiency multi-user PHY protocol data unit, HE MU PPDU, wherein a preamble of the HE MU PPDU includes high efficiency signal A, HE-SIG-A, field and high efficiency signal B, HE-SIG-B, field, wherein the HE-SIG-A field includes a SIG-B compression subfield, an uplink/ downlink subfield, and a Number of HE-SIG-B Symbols subfield, and wherein the Number of HE-SIG-B Symbols field indicates a number of MU-MIMO users or a number of OFDM symbols in the HE-SIG-B field according to a value of the SIG-B compression subfield, and decode the received HE MU PPDU based on information obtained from the HE-SIG-A, wherein a user specific field included in the HE-SIG-B field consists of a user field for MU-MIMO allocation or non-MU-MIMO allocation depending on whether the Number of HE-SIG-B Symbols field indicates the number of MU-MIMO users or the number of symbols in the HE-SIG-B field.
A method for decomposing biogenic material, wherein a percolator is loaded with biogenic material, percolation liquid is separated through a sieve and the separated percolation liquid is again sprayed by means of pumps continuously or discontinuously onto the biogenic material. excess percolation liquid is introduced into a buffer tank, from there pumped into a biogas reactor and fermented to biogas, wherein the in the biogas reactor cleaned percolation liquid is transferred as wastewater into a storage buffer tank and wherein the wastewater can be transferred from there again into the percolator.