mhurhangee/patent-ind-claim-en huggingface dataset:
Method for controlling a multi winding set permanent magnet electrical machine in case of a fault in a first group of the winding sets leaving a second group of the winding sets functional, the multi winding set permanent magnet electrical machine being configured as a generator of a wind turbine, the method comprising: determining a value of a torque generated by all winding sets; and controlling values of currents of the second group of winding sets based on the value of a torque, in order to reduce a damaging torque and/or a torque oscillation occurring and/or to break the machine, wherein controlling values of currents of the second group comprises controlling values of a d-component of the currents of the second group of winding sets based on the value of the torque, characterised by controlling the values of the d-component of the currents of the second group of winding sets comprises setting a fault reference value of the d-component of the currents of the second group of winding sets based on a sign of the value of the torque. determining a value of a torque generated by all winding sets; and controlling values of currents of the second group of winding sets based on the value of a torque, in order to reduce a damaging torque and/or a torque oscillation occurring and/or to break the machine, wherein controlling values of currents of the second group comprises controlling values of a d-component of the currents of the second group of winding sets based on the value of the torque, characterised by controlling the values of the d-component of the currents of the second group of winding sets comprises setting a fault reference value of the d-component of the currents of the second group of winding sets based on a sign of the value of the torque.
Bearing cap for a split bearing arrangement comprising a first passage opening such as a drilled hole and a second passage opening such as a drilled hole which pass through bearing cap clamping surfaces at a distance from one another respectively, the first passage opening being surrounded by a first projection protruding above the clamping surface and the second passage opening by a second projection protruding above the clamping surface, and the first projection having a geometry diverging from the second projection, wherein the volume (V 1 ) of the first projection is equal to the volume (V 2 ) of the second projection , and the first projection has in the plan view a circular ring geometry and the second projection has in the plan view an oval or elliptical ring geometry.
Tensioning assembly for a process valve , the tensioning assembly comprising: - a housing having an interface for rigid connection to a valve body ; - a gearing supported on the housing ; - a tensioning element arranged on the output of the gearing , wherein the tensioning element comprises a contact surface which is designed to clamp a lateral outer collar of a diaphragm of the process valve between the tensioning element and the valve body ; characterized by a drive , wherein the drive is arranged so as to be fixed with respect to and in the housing , and wherein the drive is coupled to the gearing in order to drive the gearing . - a housing having an interface for rigid connection to a valve body ; - a gearing supported on the housing ; - a tensioning element arranged on the output of the gearing , wherein the tensioning element comprises a contact surface which is designed to clamp a lateral outer collar of a diaphragm of the process valve between the tensioning element and the valve body ;
A pump assembly for dispensing fluid from a reservoir , comprising: a hollow dip tube for insertion into the reservoir , through an outlet opening , the hollow dip tube having an open first end for communication with the fluid in the reservoir , and an open second end spaced from the first open end ; a pump removably coupled to the second end of the hollow dip tube , the pump being operable to draw the fluid from the reservoir through the hollow dip tube , and dispense the fluid from a discharge outlet , characterized in that a locking member is coupled to the hollow dip tube and is configured, after the hollow dip tube has been inserted into the reservoir , to prevent the hollow dip tube from being extracted from the reservoir through the outlet opening ; and in that the dip tube is required to be coupled to the pump to place the pump in communication with the fluid in the reservoir , and the pump is inoperative to draw the fluid from the reservoir through the dip tube and dispense the fluid from the discharge outlet when the pump is uncoupled from the hollow dip tube . a hollow dip tube for insertion into the reservoir , through an outlet opening , the hollow dip tube having an open first end for communication with the fluid in the reservoir , and an open second end spaced from the first open end ; a pump removably coupled to the second end of the hollow dip tube , the pump being operable to draw the fluid from the reservoir through the hollow dip tube , and dispense the fluid from a discharge outlet , characterized in that a locking member is coupled to the hollow dip tube and is configured, after the hollow dip tube has been inserted into the reservoir , to prevent the hollow dip tube from being extracted from the reservoir through the outlet opening ; and in that the dip tube is required to be coupled to the pump to place the pump in communication with the fluid in the reservoir , and the pump is inoperative to draw the fluid from the reservoir through the dip tube and dispense the fluid from the discharge outlet when the pump is uncoupled from the hollow dip tube .
A process for forming a reinforced UV-A curable composite on a substrate, the process comprising: applying to a substrate at least one reinforcing layer and at least one resin layer to form the composite, the resin comprising at least one urethane acrylate oligomer, at least one polyfunctional acrylate monomer, and at least one photoinitiator; exposing the composite to UV-A radiation; characterized in that the composite is cured within 10 minutes of exposure to UV-A radiation; wherein the process is performed without creating a vacuum or oxygen-free atmosphere across the composite during cure; and wherein the resin composition further comprises a silane acrylate. applying to a substrate at least one reinforcing layer and at least one resin layer to form the composite, the resin comprising at least one urethane acrylate oligomer, at least one polyfunctional acrylate monomer, and at least one photoinitiator; exposing the composite to UV-A radiation; characterized in that the composite is cured within 10 minutes of exposure to UV-A radiation; wherein the process is performed without creating a vacuum or oxygen-free atmosphere across the composite during cure; and wherein the resin composition further comprises a silane acrylate.
A honeycomb, formed from a plurality of polygonal cells arranged in an array, wherein: each polygonal cell has lateral cell walls extending between vertices of each polygonal cell, each polygonal cell being bounded on two sides by covering-layer planes, the lateral cell walls of each polygonal cell forming a polygonal ring, and for each polygonal cell at least one lateral cell wall has a wavy shape , the wavy shape being defined by an offset from a straight line joining two neighbouring vertices of one polygonal cell, characterized in that a slope of the offset of the lateral cell wall with the wavy shape is zero where the lateral cell wall meets a connection to other lateral cell walls.
A nozzle plate for an inkjet head , the nozzle plate comprising at least a substrate , a base layer , an intermediate layer and a liquid repellent layer , wherein the base layer is provided adjacent to the substrate and contains a silane coupling agent A having reactive functional groups at both terminals; the intermediate layer is provided adjacent to the base layer and contains an inorganic oxide; and the liquid repellent layer is provided on the intermediate layer and contains a fluorine (F)-containing coupling agent B, characterized in that the silane coupling agent A contained in the base layer includes a hydrocarbon chain and a benzene ring at an intermediate part. wherein the base layer is provided adjacent to the substrate and contains a silane coupling agent A having reactive functional groups at both terminals; the intermediate layer is provided adjacent to the base layer and contains an inorganic oxide; and the liquid repellent layer is provided on the intermediate layer and contains a fluorine (F)-containing coupling agent B, characterized in that the silane coupling agent A contained in the base layer includes a hydrocarbon chain and a benzene ring at an intermediate part.
A first mobility management node located in a core network , the first mobility management node comprising: at least one memory ; and at least one processor coupled to the at least one memory and configured to: perform mobility management and bearer management of a plurality of mobile terminals having attached to the core network ; receive a relocation command (S12) from a control node coupled to the core network ; and perform a relocation procedure for relocating the mobility management and the bearer management of the plurality of mobile terminals to a second mobility management node in the core network in accordance with the relocation command (S12), wherein the relocation procedure includes notifying (S903, S923, S945) each of the plurality of mobile terminals about both a second identifier indicating the second mobility management node and a third identifier indicating a third mobility management node , wherein the third identifier is used by each of the plurality of mobile terminals for initiating (S924, S949) a signaling procedure using the third identifier when a signaling procedure using the second identifier has failed. at least one memory ; and at least one processor coupled to the at least one memory and configured to: perform mobility management and bearer management of a plurality of mobile terminals having attached to the core network ; receive a relocation command (S12) from a control node coupled to the core network ; and perform a relocation procedure for relocating the mobility management and the bearer management of the plurality of mobile terminals to a second mobility management node in the core network in accordance with the relocation command (S12), wherein the relocation procedure includes notifying (S903, S923, S945) each of the plurality of mobile terminals about both a second identifier indicating the second mobility management node and a third identifier indicating a third mobility management node , wherein the third identifier is used by each of the plurality of mobile terminals for initiating (S924, S949) a signaling procedure using the third identifier when a signaling procedure using the second identifier has failed. perform mobility management and bearer management of a plurality of mobile terminals having attached to the core network ; receive a relocation command (S12) from a control node coupled to the core network ; and perform a relocation procedure for relocating the mobility management and the bearer management of the plurality of mobile terminals to a second mobility management node in the core network in accordance with the relocation command (S12), wherein the relocation procedure includes notifying (S903, S923, S945) each of the plurality of mobile terminals about both a second identifier indicating the second mobility management node and a third identifier indicating a third mobility management node , wherein the third identifier is used by each of the plurality of mobile terminals for initiating (S924, S949) a signaling procedure using the third identifier when a signaling procedure using the second identifier has failed.
Apparatus to automatically bind at least two elements to each other, comprising a first arm in which a binding element is disposed and a second arm , wherein at least one of said arms is mobile with respect to the other between an inactive position, in which two ends of said arms are distant from each other, and at least one operating position in which said two ends are in contact, or near, each other, wherein there is a feed device on said first arm configured to make said binding element selectively advance at least as far as said end of said first arm , and wherein there is a clamping device on said second arm configured to temporarily and selectively clamp said binding element at least when said arms are in said operating position, characterized in that a feed electric motor is provided to command said feed device , in that an arm electric motor is provided to selectively command the movement of at least one of said arms from said inactive position to said operating position, in that said apparatus comprises a stapling device configured to affix a closing staple around said binding element after a ring has been formed with the latter around said two elements to be bound to each other, in that a stapler electric motor is provided to command said stapling device , and in that said apparatus also comprises a handle in which at least a push button is mounted configured to selectively command each of said three electric motors .
A work machine (T) comprising: a transmission case provided on a machine body (A) and extending in a front-back direction of the machine body (A), the transmission case having mutually opposite wall portions ; a first hydraulic unit (V) and a second hydraulic unit ; and a supply passage for supplying operating oil from the first hydraulic unit (V) to the second hydraulic unit , characterized in that the first hydraulic unit (V) is provided on one of the wall portions and the second hydraulic unit is provided on the other of the wall portions , wherein the first hydraulic unit (V) and second hydraulic unit are aligned to be overlapped with each other as viewed in a direction orthogonal to a case axis (X) extending along a front-back direction of the transmission case , and the supply passage extends inside the transmission case in a straight line over the shortest distance orthogonal to the case axis (X) between the first hydraulic unit (V) and the second hydraulic unit . a transmission case provided on a machine body (A) and extending in a front-back direction of the machine body (A), the transmission case having mutually opposite wall portions ; a first hydraulic unit (V) and a second hydraulic unit ; and a supply passage for supplying operating oil from the first hydraulic unit (V) to the second hydraulic unit , characterized in that the first hydraulic unit (V) is provided on one of the wall portions and the second hydraulic unit is provided on the other of the wall portions , wherein the first hydraulic unit (V) and second hydraulic unit are aligned to be overlapped with each other as viewed in a direction orthogonal to a case axis (X) extending along a front-back direction of the transmission case , and the supply passage extends inside the transmission case in a straight line over the shortest distance orthogonal to the case axis (X) between the first hydraulic unit (V) and the second hydraulic unit .
A method for increasing the level of glutathione (GSH) in mammalian cells comprising adding to said cells S-sulfocysteine and/or a S-sulfocysteine salt in an amount effective to increase the intracellular glutathione level whereby the level of glutathione is increased by at least 10% for more than half of the time of the cell culture compared to a cell culture under equivalent conditions but without the addition of S-sulfocysteine and/or its salts.
Impeller, designed for a flowmeter, comprising - an impeller body which has a vane arrangement and is configured to rotate about an impeller rotation axis , and - a one-piece scanning area element which is connected in a rotationally fixed manner to the impeller body and has an outer edge surrounding the impeller rotation axis in the shape of part of a ring, characterized in that - the scanning area element has a perforation part with one or more perforation regions (6 1 , 6 2 , ...) in its areal extent which is delimited by the outer edge . - an impeller body which has a vane arrangement and is configured to rotate about an impeller rotation axis , and - a one-piece scanning area element which is connected in a rotationally fixed manner to the impeller body and has an outer edge surrounding the impeller rotation axis in the shape of part of a ring, - the scanning area element has a perforation part with one or more perforation regions (6 1 , 6 2 , ...) in its areal extent which is delimited by the outer edge .
A centrifugal compressor , comprising: an impeller ; a compressor inlet tube configured to guide air to the impeller ; a scroll flow passage disposed on a radially outer side of the impeller ; a bypass flow passage branching from the scroll flow passage via a branch port , the bypass flow passage bypassing the impeller , the bypass flow passage connecting to the compressor inlet tube ; and a bypass valve capable of opening and closing a valve port disposed in the bypass flow passage , wherein the valve port is an opening on a valve seat surface which is to be in direct contact with a valve body of the bypass valve , wherein the branch port has a non-circular shape when viewed along a normal N1 of the branch port passing through a center of the branch port , the non-circular shape being an oval shape or a rectangular shape or a slit shape or a rounded rectangular shape or an ellipse shape or a rounded rhombic shape, and wherein, when G is a flow-passage cross section including the center of the branch port in the scroll flow passage , T is a dimension of the branch port in a flow direction F orthogonal to the flow-passage cross section G, and L is a dimension of the branch port in a flow direction H orthogonal to each of the flow direction F and the normal N1, T is smaller than L; and wherein the branch port has a length larger than a diameter of the valve port , the branch port having a width smaller than the diameter of the valve port . an impeller ; a compressor inlet tube configured to guide air to the impeller ; a scroll flow passage disposed on a radially outer side of the impeller ; a bypass flow passage branching from the scroll flow passage via a branch port , the bypass flow passage bypassing the impeller , the bypass flow passage connecting to the compressor inlet tube ; and a bypass valve capable of opening and closing a valve port disposed in the bypass flow passage , wherein the valve port is an opening on a valve seat surface which is to be in direct contact with a valve body of the bypass valve , wherein the branch port has a non-circular shape when viewed along a normal N1 of the branch port passing through a center of the branch port , the non-circular shape being an oval shape or a rectangular shape or a slit shape or a rounded rectangular shape or an ellipse shape or a rounded rhombic shape, and wherein, when G is a flow-passage cross section including the center of the branch port in the scroll flow passage , T is a dimension of the branch port in a flow direction F orthogonal to the flow-passage cross section G, and L is a dimension of the branch port in a flow direction H orthogonal to each of the flow direction F and the normal N1, T is smaller than L; and wherein the branch port has a length larger than a diameter of the valve port , the branch port having a width smaller than the diameter of the valve port .
An aquaculture environment control system , the system comprising: a plurality of discharge conduits positionable in a vessel configured to house one or more aquatic organisms, the discharge conduits including one or more orifices; a fluid source in fluid communication with the plurality of discharge conduits; a gas supply source in fluid communication with at least one of the plurality of discharge conduits ; wherein discharging fluid and gas from the plurality of discharge conduits into the vessel creates or maintains a current throughout fluid present within the vessel, wherein at least a portion of the fluid and gas discharged from one or more of the plurality of discharge conduits is discharged at an angle relative to a proximal vessel wall such that the fluid and gas converges upon the proximal vessel wall. a plurality of discharge conduits positionable in a vessel configured to house one or more aquatic organisms, the discharge conduits including one or more orifices; a fluid source in fluid communication with the plurality of discharge conduits; a gas supply source in fluid communication with at least one of the plurality of discharge conduits ; wherein discharging fluid and gas from the plurality of discharge conduits into the vessel creates or maintains a current throughout fluid present within the vessel, wherein at least a portion of the fluid and gas discharged from one or more of the plurality of discharge conduits is discharged at an angle relative to a proximal vessel wall such that the fluid and gas converges upon the proximal vessel wall.
A method of purifying messenger RNA (mRNA), comprising (a) subjecting an impure preparation comprising in vitro synthesized mRNA to a denaturing condition by adding a protein denaturing agent to the impure preparation; and (b) purifying the mRNA from the impure preparation from step (a) by tangential flow filtration; wherein said impure preparation is an in vitro synthesis reaction mixture, wherein the filter used in the tangential flow filtration has a nominal molecular weight limit of between 100 kDa and 1000 kDa, wherein the tangential flow filtration comprises: (i) a transmembrane pressure between 1 and 30 pounds per square inch; (ii) a feed rate between 50 and 500 mL/minute; and (iii) a flow rate between 10 and 100 mL/minute; and wherein the mRNA purified from step (b) contains less than 5% of prematurely aborted RNA sequences comprising less than 15 bases. (a) subjecting an impure preparation comprising in vitro synthesized mRNA to a denaturing condition by adding a protein denaturing agent to the impure preparation; and (b) purifying the mRNA from the impure preparation from step (a) by tangential flow filtration; wherein said impure preparation is an in vitro synthesis reaction mixture, wherein the filter used in the tangential flow filtration has a nominal molecular weight limit of between 100 kDa and 1000 kDa, wherein the tangential flow filtration comprises: (i) a transmembrane pressure between 1 and 30 pounds per square inch; (ii) a feed rate between 50 and 500 mL/minute; and (iii) a flow rate between 10 and 100 mL/minute; (i) a transmembrane pressure between 1 and 30 pounds per square inch; (ii) a feed rate between 50 and 500 mL/minute; and (iii) a flow rate between 10 and 100 mL/minute; and wherein the mRNA purified from step (b) contains less than 5% of prematurely aborted RNA sequences comprising less than 15 bases.