mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting uplink control information when a plurality of cells including a primary cell and a secondary cell is configured in a wireless communication system, the method comprising: selecting a Physical Uplink Control Channel, PUCCH, resource corresponding to a plurality of Hybrid Automatic Repeat request - Acknowledgements, HARQ-ACKs, from a plurality of PUCCH resources for PUCCH format 1b; and transmitting a complex value corresponding to the plurality of HARQ-ACKs using the selected PUCCH resource, wherein the plurality of HARQ-ACKs, PUCCH resources and bit values have the relationship represented by the following table, HARQ-ACK,HARQ-ACK,HARQ-ACK PUCCH resource #1 PUCCH resource #2 PUCCH resource #3 N,N,N +1 0 0 N,N,A 0 0 -1 N,A,N +j 0 0 N,A,A 0 -1 0 A,N,N -j 0 0 A,N,A 0 +1 0 A,A,N -1 0 0 A,A,A 0 +j 0 D,D,N 0 0 +1 wherein HARQ-ACKs and indicate ACK /NACK /DTX responses to data block(s) on a Multiple Input Multiple Output, MIMO, cell, HARQ-ACK indicates an ACK /NACK /DTX response to a data block on a non-MIMO cell, PUCCH resources #1 and #2 represent PUCCH resources linked to the MIMO cell for PUCCH format 1b, and PUCCH resource #3 represents a PUCCH resource linked to the non-MIMO cell for PUCCH format 1b. selecting a Physical Uplink Control Channel, PUCCH, resource corresponding to a plurality of Hybrid Automatic Repeat request - Acknowledgements, HARQ-ACKs, from a plurality of PUCCH resources for PUCCH format 1b; and transmitting a complex value corresponding to the plurality of HARQ-ACKs using the selected PUCCH resource, wherein the plurality of HARQ-ACKs, PUCCH resources and bit values have the relationship represented by the following table, HARQ-ACK,HARQ-ACK,HARQ-ACK PUCCH resource #1 PUCCH resource #2 PUCCH resource #3 N,N,N +1 0 0 N,N,A 0 0 -1 N,A,N +j 0 0 N,A,A 0 -1 0 A,N,N -j 0 0 A,N,A 0 +1 0 A,A,N -1 0 0 A,A,A 0 +j 0 D,D,N 0 0 +1 wherein HARQ-ACKs and indicate ACK /NACK /DTX responses to data block(s) on a Multiple Input Multiple Output, MIMO, cell, HARQ-ACK indicates an ACK /NACK /DTX response to a data block on a non-MIMO cell, PUCCH resources #1 and #2 represent PUCCH resources linked to the MIMO cell for PUCCH format 1b, and PUCCH resource #3 represents a PUCCH resource linked to the non-MIMO cell for PUCCH format 1b.
An offshore structure with an offshore installation mounted thereon, the structure comprising: a top piece, a base, and a load-transferring lattice connecting the top piece to the base; wherein the top piece is located above the waterline and further comprises one or more ballast tanks integrally formed with the top piece, each ballast tank being defined by an empty region or chamber within the top piece and at least partially defined by internal walls of the top piece; wherein the base is located below the waterline and positioned on the seabed; wherein the base further comprises an upper surface, a lower surface and at least one aperture extending from the upper surface through to the lower surface, the lower surface including at least one tapering surface extending from the aperture; wherein the base includes one or more scour protection mattresses; and wherein the lattice further comprises one or more pairs of substantially vertically extending struts having a hyperboloid configuration. a top piece, a base, and a load-transferring lattice connecting the top piece to the base; wherein the top piece is located above the waterline and further comprises one or more ballast tanks integrally formed with the top piece, each ballast tank being defined by an empty region or chamber within the top piece and at least partially defined by internal walls of the top piece; wherein the base is located below the waterline and positioned on the seabed; wherein the base further comprises an upper surface, a lower surface and at least one aperture extending from the upper surface through to the lower surface, the lower surface including at least one tapering surface extending from the aperture; wherein the base includes one or more scour protection mattresses; and wherein the lattice further comprises one or more pairs of substantially vertically extending struts having a hyperboloid configuration.
An optically readable code support (60a, 60b) to be attached to or part of a capsule for delivering a beverage in a beverage producing device by centrifugation of the capsule, the support comprising at least one sequence of symbols arranged on the support circumferentially about an axis of rotation so that each symbol is sequentially readable by a reading arrangement of an external reading device while the capsule is driven in rotation along the axis of rotation, wherein the symbols are at least partly formed of surfaces arranged to reflect mainly diffusively, in any direction forming an angle comprised between 3° and 10° with respect to a normal of said surface, any incoming beam of light with an incoming direction forming an angle comprise between 0 and 10° with respect to a normal of said surface.
A compound of the formula wherein: Ar 1 is chosen from phenyl, cyclohexyl, tetrahydropyranyl, 1-Dioxo-1λ 6 -thiomorpholinyl, morpholinyl and pyridinyl, each optionally substituted by 1-3 C 1-3 alkyl, trifluoromethyl or halogen; Ar 2 is chosen from R 1 is hydrogen; L 1 is a bond, -CH 2 -, C or S 2; L 2 is a bond; or a pharmaceutically acceptable salt thereof. Ar 1 is chosen from phenyl, cyclohexyl, tetrahydropyranyl, 1-Dioxo-1λ 6 -thiomorpholinyl, morpholinyl and pyridinyl, each optionally substituted by 1-3 C 1-3 alkyl, trifluoromethyl or halogen; Ar 2 is chosen from R 1 is hydrogen; L 1 is a bond, -CH 2 -, C or S 2; L 2 is a bond;
A carbon brush with a metal insert for a sliding contact element, which is able to be brought into contact with a grounding ring of an electric machine in a wind turbine, characterised in that the carbon brush with a metal insert has a gross density of 1.2 to 1.28 g/cm 3 and a silver content between 2 and 5 wt% with respect to the carbon brush.
A thermal increase system comprising: a radio frequency, RF, signal source configured to supply an RF signal; an electrode coupled to the RF signal source; power detection circuitry coupled along a transmission path between the RF signal source and the electrode and configured to detect reflected RF signal power; at least one variable impedance network that includes at least one variable passive component having at least one current variable component value, wherein the at least one variable impedance network is coupled between the RF signal source and the electrode; and a controller coupled to the power detection circuitry, the RF signal source and the at least one variable impedance network and configured to: modify the at least one variable passive component value to reduce the reflected RF signal power; determine an estimated mass of a load that is proximate to the electrode based at least on the at least one current variable component value of the at least one variable impedance network; determine one or more desired signal parameters for the RF signal based on at least the estimated mass of the load; and control the RF signal source to supply a mass-estimate-based RF signal with the one or more desired signal parameters. a radio frequency, RF, signal source configured to supply an RF signal; an electrode coupled to the RF signal source; power detection circuitry coupled along a transmission path between the RF signal source and the electrode and configured to detect reflected RF signal power; at least one variable impedance network that includes at least one variable passive component having at least one current variable component value, wherein the at least one variable impedance network is coupled between the RF signal source and the electrode; and a controller coupled to the power detection circuitry, the RF signal source and the at least one variable impedance network and configured to: modify the at least one variable passive component value to reduce the reflected RF signal power; determine an estimated mass of a load that is proximate to the electrode based at least on the at least one current variable component value of the at least one variable impedance network; determine one or more desired signal parameters for the RF signal based on at least the estimated mass of the load; and control the RF signal source to supply a mass-estimate-based RF signal with the one or more desired signal parameters. modify the at least one variable passive component value to reduce the reflected RF signal power; determine an estimated mass of a load that is proximate to the electrode based at least on the at least one current variable component value of the at least one variable impedance network; determine one or more desired signal parameters for the RF signal based on at least the estimated mass of the load; and control the RF signal source to supply a mass-estimate-based RF signal with the one or more desired signal parameters.
A polypeptide comprising or consisting of the amino acid sequence shown in SEQ ID NO:2-7: GKYGFYTHVFRLKKWIQKVIDQFGE [SEQ ID NO:2]; GKYGFYTHVFRLKKWIQKVI [SEQ ID NO:3]; KYGFYTHVFRLKKWIQKVID [SEQ ID NO:4]; FYTHVFRLKKWIQKVIDQFGE [SEQ ID NO:7]; for use in the treatment or prevention of a disease selected from the following: coagulative disorders including thrombosis, disseminated intravasal coagulation, postoperative coagulation disorders, and coagulative disorders related to contact with foreign material, including extracorporeal circulation, and use of biomaterials and excessive contact activation and/or coagulation in relation to stroke. GKYGFYTHVFRLKKWIQKVIDQFGE [SEQ ID NO:2]; GKYGFYTHVFRLKKWIQKVI [SEQ ID NO:3]; KYGFYTHVFRLKKWIQKVID [SEQ ID NO:4]; FYTHVFRLKKWIQKVIDQFGE [SEQ ID NO:7]; for use in the treatment or prevention of a disease selected from the following: coagulative disorders including thrombosis, disseminated intravasal coagulation, postoperative coagulation disorders, and coagulative disorders related to contact with foreign material, including extracorporeal circulation, and use of biomaterials and excessive contact activation and/or coagulation in relation to stroke. coagulative disorders including thrombosis, disseminated intravasal coagulation, postoperative coagulation disorders, and coagulative disorders related to contact with foreign material, including extracorporeal circulation, and use of biomaterials and excessive contact activation and/or coagulation in relation to stroke.
An image forming apparatus comprising: a conveying unit configured to convey a continuous sheet at least longer than a length of the apparatus itself in a sheet conveying direction; an image forming unit configured to form an image on the continuous sheet conveyed by the conveying unit; a first rotating member; a second rotating member configured on a side opposite of the first rotating member with respect to the conveying unit; and a deformation amount detecting unit which detects an amount of deformation of the continuous sheet, wherein, the first rotating member is configured to be pressed on to and separated from the second rotating member; the first rotating member is configured to be rotated separated from the second rotating member; the continuous sheet can be stopped and held when the first rotating member is separated from the second rotating member; and the image forming apparatus further comprises a control unit configured such that, when the continuous sheet is stopped and held and the rotation of the first rotating member is started separated from the second rotating member, the control unit moves at least one of the first rotating member and the continuous sheet, based on detection results by the deformation amount detecting unit, so that the continuous sheet is not in contact with the first rotating member, and then the control unit starts rotation of the first rotating member. a conveying unit configured to convey a continuous sheet at least longer than a length of the apparatus itself in a sheet conveying direction; an image forming unit configured to form an image on the continuous sheet conveyed by the conveying unit; a first rotating member; a second rotating member configured on a side opposite of the first rotating member with respect to the conveying unit; and a deformation amount detecting unit which detects an amount of deformation of the continuous sheet, the first rotating member is configured to be pressed on to and separated from the second rotating member; the first rotating member is configured to be rotated separated from the second rotating member; the continuous sheet can be stopped and held when the first rotating member is separated from the second rotating member; and the image forming apparatus further comprises a control unit configured such that, when the continuous sheet is stopped and held and the rotation of the first rotating member is started separated from the second rotating member, the control unit moves at least one of the first rotating member and the continuous sheet, based on detection results by the deformation amount detecting unit, so that the continuous sheet is not in contact with the first rotating member, and then the control unit starts rotation of the first rotating member.
A method for producing a Class "A" paintable surface on a fiber filled substrate part comprising: a. Providing a fiber filled polymer part having an outer show surface for use on a vehicle, wherein the fiber filled polymer part is formed of a thermoplastic matrix wherein the thermoplastic matrix includes fiber reinforcements dispersed in a thermoplastic resin that consists essentially of one of the following groups: polyamide, polypropylene, acrylonitrile butadiene styrene; and b. Coating the molded outer surface with a flexible primer coating substantially free of pigments for forming a primed surface capable of being painted for forming a Class "A" show surface for a vehicle, wherein the short wave intensity value of the part is less than or equal to about 50, wherein short wave is a quantitative measurement of an automotive vehicle surface determined using a wave scan device. a. Providing a fiber filled polymer part having an outer show surface for use on a vehicle, wherein the fiber filled polymer part is formed of a thermoplastic matrix wherein the thermoplastic matrix includes fiber reinforcements dispersed in a thermoplastic resin that consists essentially of one of the following groups: polyamide, polypropylene, acrylonitrile butadiene styrene; and b. Coating the molded outer surface with a flexible primer coating substantially free of pigments for forming a primed surface capable of being painted for forming a Class "A" show surface for a vehicle, wherein the short wave intensity value of the part is less than or equal to about 50, wherein short wave is a quantitative measurement of an automotive vehicle surface determined using a wave scan device.
A wind turbine comprising: a nacelle; an electrical generator inside the nacelle; a rotor having at least one blade (310, 320, 330) operatively coupled to the electrical generator; characterized by: a first set of sensors (500, 550) mounted on said wind turbine at locations (510, 560) selected for measuring vector loads in a nacelle-based set of coordinates; a second set of sensors (600, 650) mounted on said at least one blade (310, 320, 330) at locations (610, 660) selected for measuring vector loads in a rotor-based set of coordinates, wherein the second set of coordinates rotate with respect to the first set of coordinates with said wind turbine operating; and a controller configured to utilize vector load measurements from either or both the first set of sensors and the second set of sensors to correct offset errors in vector loads measured by the other set of sensors. a nacelle; an electrical generator inside the nacelle; a rotor having at least one blade (310, 320, 330) operatively coupled to the electrical generator; characterized by: a first set of sensors (500, 550) mounted on said wind turbine at locations (510, 560) selected for measuring vector loads in a nacelle-based set of coordinates; a second set of sensors (600, 650) mounted on said at least one blade (310, 320, 330) at locations (610, 660) selected for measuring vector loads in a rotor-based set of coordinates, wherein the second set of coordinates rotate with respect to the first set of coordinates with said wind turbine operating; and a controller configured to utilize vector load measurements from either or both the first set of sensors and the second set of sensors to correct offset errors in vector loads measured by the other set of sensors. a first set of sensors (500, 550) mounted on said wind turbine at locations (510, 560) selected for measuring vector loads in a nacelle-based set of coordinates; a second set of sensors (600, 650) mounted on said at least one blade (310, 320, 330) at locations (610, 660) selected for measuring vector loads in a rotor-based set of coordinates, wherein the second set of coordinates rotate with respect to the first set of coordinates with said wind turbine operating; and a controller configured to utilize vector load measurements from either or both the first set of sensors and the second set of sensors to correct offset errors in vector loads measured by the other set of sensors.
Crosscut and/or pull saw, having an under-table with a surface for receiving and supporting a workpiece to be machined, the under-table comprising at least two supporting extensions with a bearing section which serves to receive and support the workpiece to be machined, wherein each support extension is movable to and fro relative to the lower table between a retracted position and an extended position in a plane parallel to the surface of the lower table and has at least one connecting web for this purpose, which can be inserted at least in sections into a corresponding recess on the lower table in the plane parallel to the surface of the lower table in order to connect the support extension to the lower table and can be pulled completely out of the recess in order to release the connection in the plane parallel to the surface of the lower table, as well as at least one support leg for the stable support of the support extension, wherein the support extension can be used as a separate support for the workpiece to be machined in a position of the connecting web which is detached from the lower table, characterized in that the at least two support extensions can be connected to each other in a state of being detached from the lower table, wherein at least one corresponding receiving recess is provided on each support leg of the support extensions which can be connected to each other for receiving the at least one connecting web of the respective support extension to be connected.
Fluid-injected compressor installation which is provided with at least: - a screw compressor with a compression chamber which is formed by a compression housing in which a pair of cooperating screw-shaped compressor rotors (6a, 6b) are rotatably mounted; - a drive motor which is provided with a motor chamber formed by a motor housing in which a motor shaft is rotatably mounted which drives at least one of the two aforementioned screw-shaped compressor rotors (6a, 6b); - an inlet and an outlet on the screw compressor for the supply of a gas respectively for the discharge of compressed gas; with the compression housing and the motor housing being directly joined to each other to form a compressor housing; - a gear transmission between the shaft of one of the compressor rotors (6a, 6b) and the motor shaft, consisting of a driven gear on the shaft of the one of the compressor rotors (6a, 6b) and a driving gear on the motor shaft; characterised in that the compressor installation is further provided with: - a motor bearing on the motor shaft next to the driving gear on the drive motor side; - a dynamic seal next to the aforementioned motor bearing, on the drive motor side, such that the motor bearing is between the driving gear and the seal, whereby the aforementioned dynamic seal is a labyrinth seal, and whereby the labyrinth seal is made as a semi-circular groove in the motor shaft and a recess in the compressor housing with a slanting side towards the motor shaft in the direction of the motor bearing, with the recess being opposite to the groove such that fluid that reaches the labyrinth seal via the motor bearing ends up in the groove, is pushed back upwards and away from the motor shaft to the recess in the compressor housing, and is sent through this recess back in the direction of the motor bearing. - a screw compressor with a compression chamber which is formed by a compression housing in which a pair of cooperating screw-shaped compressor rotors (6a, 6b) are rotatably mounted; - a drive motor which is provided with a motor chamber formed by a motor housing in which a motor shaft is rotatably mounted which drives at least one of the two aforementioned screw-shaped compressor rotors (6a, 6b); - an inlet and an outlet on the screw compressor for the supply of a gas respectively for the discharge of compressed gas; - a gear transmission between the shaft of one of the compressor rotors (6a, 6b) and the motor shaft, consisting of a driven gear on the shaft of the one of the compressor rotors (6a, 6b) and a driving gear on the motor shaft; characterised in that the compressor installation is further provided with: - a motor bearing on the motor shaft next to the driving gear on the drive motor side; - a dynamic seal next to the aforementioned motor bearing, on the drive motor side, such that the motor bearing is between the driving gear and the seal, - a motor bearing on the motor shaft next to the driving gear on the drive motor side; - a dynamic seal next to the aforementioned motor bearing, on the drive motor side, such that the motor bearing is between the driving gear and the seal,
A communication control device that controls a communication in a parallel computing device that includes a plurality of communicatively interconnected nodes for performing an arithmetic process, the communication control device comprising: a measurement unit configured to measure a communication bandwidth between nodes based on a communication scheme among the nodes; and a control unit configured to control a size of a packet transmitted between the nodes according to a result of the measurement by the measurement unit, wherein the communication control device is further characterised in that the measurement unit measures the communication bandwidth based on the number of transfer units of a packet, which are provided on a communication path between a communication source node and a communication destination node of the communication source node, and the control unit makes a packet transmitted between the nodes larger as the communication bandwidth measured by the measurement unit becomes narrower, and the control unit makes a packet transmitted between the nodes smaller as the communication bandwidth measured by the measurement unit becomes broader. a measurement unit configured to measure a communication bandwidth between nodes based on a communication scheme among the nodes; and a control unit configured to control a size of a packet transmitted between the nodes according to a result of the measurement by the measurement unit, wherein the communication control device is further characterised in that the measurement unit measures the communication bandwidth based on the number of transfer units of a packet, which are provided on a communication path between a communication source node and a communication destination node of the communication source node, and the control unit makes a packet transmitted between the nodes larger as the communication bandwidth measured by the measurement unit becomes narrower, and the control unit makes a packet transmitted between the nodes smaller as the communication bandwidth measured by the measurement unit becomes broader.