mhurhangee/patent-ind-claim-en huggingface dataset:
Coolant pump assembly for the automotive sector, comprising a housing assembly with a main pump and an auxiliary pump designed as a side channel pump, with a main inlet and a main outlet adapted to be fluidly connected to a main coolant circuit , with a drive shaft , with a coolant pump impeller of the main pump , which is arranged on the drive shaft at least for rotation therewith and via which coolant can be conveyed into a conveyor channel surrounding the coolant pump impeller , with an adjustable control slide , via which a flow cross-section of an annular gap between an outlet of the coolant pump impeller and the delivery channel can be adjusted, with a side channel pump impeller of the side channel pump , which is arranged on the drive shaft is arranged at least for rotation therewith, with a side channel of the side channel pump , in which by rotation d the side channel pump impeller , a pressure can be generated, wherein the side channel has a secondary inlet and at least one secondary outlet , with a pressure channel through which the secondary outlet of the side channel can be fluidically connected with a first pressure chamber of the control slide , with a valve via which a flow cross section of the pressure channel can be closed and released, characterized in that the side channel has a second secondary outlet which is connected with the main cooling circuit via a secondary coolant line .
Lipopolyphosphonoxin of the general formula I wherein: the X substituent is independently selected from the following structures: wherein m = 1-3; the Y substituent is independently selected from the following structures: wherein n = 0-12, , and o = 0-12, and p = 0-12, and R 1 , R 2 , R 3 , R 4 , and R 5 are independently selected from the group consisting of: H-, CH 3 -, CH 2 CH 3 , propyl, isopropyl, isobutyl, tert- butyl , CH 3 O-, CH 2 CH 3 O-, propoxy, isopropoxy, isobutyloxy or tert- butyloxy; and the Z substituent is selected from the following structures: wherein q = 2-14, and r = 0-10, and s = 0-10, or a diastereomer or a mixture of diastereomers of the compound of formula I, or a pharmaceutically acceptable salt or hydrate thereof. the X substituent is independently selected from the following structures: wherein m = 1-3; the Y substituent is independently selected from the following structures: wherein n = 0-12, , and o = 0-12, and p = 0-12, and R 1 , R 2 , R 3 , R 4 , and R 5 are independently selected from the group consisting of: H-, CH 3 -, CH 2 CH 3 , propyl, isopropyl, isobutyl, tert- butyl , CH 3 O-, CH 2 CH 3 O-, propoxy, isopropoxy, isobutyloxy or tert- butyloxy; and the Z substituent is selected from the following structures: wherein q = 2-14, and r = 0-10, and s = 0-10, or a diastereomer or a mixture of diastereomers of the compound of formula I, or a pharmaceutically acceptable salt or hydrate thereof.
An abrasive article having first and second major surfaces and comprising: a lofty open nonwoven fiber web comprising entangled fibers , wherein the lofty open nonwoven fiber web further comprises: a densified outer layer comprising a portion of nonwoven fiber web proximate to the first major surface , wherein at least a portion the entangled fibers in the densified outer layer are melt-bonded to one another; and an abrasive material coated on the densified outer layer , wherein the abrasive material comprises abrasive particles retained in a binder material , and wherein the abrasive particles have a median particle diameter D 50 in the range of 1 to 15 microns, and wherein the abrasive article has a Stiffness Test force of 0.1 to 5.0 pounds (0.45 to 2.27 kg) or less. a lofty open nonwoven fiber web comprising entangled fibers , wherein the lofty open nonwoven fiber web further comprises: a densified outer layer comprising a portion of nonwoven fiber web proximate to the first major surface , wherein at least a portion the entangled fibers in the densified outer layer are melt-bonded to one another; and an abrasive material coated on the densified outer layer , wherein the abrasive material comprises abrasive particles retained in a binder material , and wherein the abrasive particles have a median particle diameter D 50 in the range of 1 to 15 microns, and a densified outer layer comprising a portion of nonwoven fiber web proximate to the first major surface , wherein at least a portion the entangled fibers in the densified outer layer are melt-bonded to one another; and an abrasive material coated on the densified outer layer , wherein the abrasive material comprises abrasive particles retained in a binder material , and wherein the abrasive particles have a median particle diameter D 50 in the range of 1 to 15 microns, and wherein the abrasive article has a Stiffness Test force of 0.1 to 5.0 pounds (0.45 to 2.27 kg) or less.
Method for operating a motor vehicle , in which a first length of a first free area in front of the motor vehicle and a second length of a second free area behind the motor vehicle are determined by means of a distance detection device , characterized in that a sum of the first length and the second length is compared with a predefined total parking length by means of an electronic computing device , and, for adjusting the free areas , the motor vehicle is maneuvered by means of a control device in dependence on the comparison, the first length or the second length being adjusted to the predefined total parking length during the maneuvering of the motor vehicle if the first length and/or the second length are in each case greater than a limit value predefined for the free areas and the sum of the first length and the second length is greater than the predefined total parking length.
A method performed by a user equipment, UE, the method comprising: receiving, from a base station through a higher layer signaling, a configuration of a candidate time domain position to monitor a physical downlink control channel, PDCCH, for downlink control information, DCI, wherein the DCI includes an ultra-reliability low latency communication, URLLC, preemption indication, UPI, information; receiving, from the base station, the DCI including the UPI information by monitoring the PDCCH based on the configuration (S202); determining at least one time domain position for the UPI information, using a higher layer signaling, the UPI information indicating a resource within the at least one time domain position; determining whether a physical uplink shared channel, PUSCH resource and the resource indicated by the UPI information overlap or not (S202); and wherein a PUSCH transmission is not performed in the PUSCH resource overlapped with the resource indicated by the UPI information, in case that the PUSCH resource and the resource indicated by the UPI information overlap (S203). receiving, from a base station through a higher layer signaling, a configuration of a candidate time domain position to monitor a physical downlink control channel, PDCCH, for downlink control information, DCI, wherein the DCI includes an ultra-reliability low latency communication, URLLC, preemption indication, UPI, information; receiving, from the base station, the DCI including the UPI information by monitoring the PDCCH based on the configuration (S202); determining at least one time domain position for the UPI information, using a higher layer signaling, the UPI information indicating a resource within the at least one time domain position; determining whether a physical uplink shared channel, PUSCH resource and the resource indicated by the UPI information overlap or not (S202); and wherein a PUSCH transmission is not performed in the PUSCH resource overlapped with the resource indicated by the UPI information, in case that the PUSCH resource and the resource indicated by the UPI information overlap (S203).
A field device comprising: a casing portion that has an amplifier shield chamber into which an analog signal transfer portion transferring an analog signal output from a detector is able to be inserted; a signal conversion portion that is disposed inside the amplifier shield chamber , the signal conversion portion being configured to convert the analog signal into a digital signal; a first connector that is disposed inside the amplifier shield chamber , the first connector being configured to connect the analog signal transfer portion and the signal conversion portion to each other in an attachable/detachable manner, characterized by a communication hole through which the inside and the outside of the amplifier shield chamber communicate with each other; a first substrate portion that comprises: a main body portion which is disposed inside the casing portion and outside the amplifier shield chamber ; and an insertion portion which extends from the main body portion and is inserted into the amplifier shield chamber through the communication hole ; and an amplifier shielding plate that closes the communication hole through which the first substrate portion has passed. a casing portion that has an amplifier shield chamber into which an analog signal transfer portion transferring an analog signal output from a detector is able to be inserted; a signal conversion portion that is disposed inside the amplifier shield chamber , the signal conversion portion being configured to convert the analog signal into a digital signal; a first connector that is disposed inside the amplifier shield chamber , the first connector being configured to connect the analog signal transfer portion and the signal conversion portion to each other in an attachable/detachable manner, characterized by a communication hole through which the inside and the outside of the amplifier shield chamber communicate with each other; a first substrate portion that comprises: a main body portion which is disposed inside the casing portion and outside the amplifier shield chamber ; and an insertion portion which extends from the main body portion and is inserted into the amplifier shield chamber through the communication hole ; and a main body portion which is disposed inside the casing portion and outside the amplifier shield chamber ; and an insertion portion which extends from the main body portion and is inserted into the amplifier shield chamber through the communication hole ; and an amplifier shielding plate that closes the communication hole through which the first substrate portion has passed.
Rose extract for use in the prevention or treatment of an allergic disease, wherein the rose extract is obtained from at least one rose cultivar selected from Lover Shy, Red Perfume, Jaemina Red, Pretty Velvet and Hanggina, wherein the allergic disease is anaphylactic shock or pruritus.
A user device which communicates with a communications node , the user device comprising: means for receiving , from the communications node , downlink control information comprising a resource indication value for indicating a resource allocation, and for decoding data which corresponds to the downlink control information comprising the resource indication value, wherein the resource indication value is defined, depending on a result of a comparison between one less than a length in terms of number of contiguously allocated resource blocks, P-1, and an integer value calculated from a number of resource blocks in a bandwidth divided by two, N/2, by either: a first expression, N(P-1)+O, or a second expression, N(N-P+1)+(N-1-O), where N is the number of resource blocks in a bandwidth, O is a starting resource block number and P is the length in terms of number of contiguously allocated resource blocks. means for receiving , from the communications node , downlink control information comprising a resource indication value for indicating a resource allocation, and for decoding data which corresponds to the downlink control information comprising the resource indication value, wherein the resource indication value is defined, depending on a result of a comparison between one less than a length in terms of number of contiguously allocated resource blocks, P-1, and an integer value calculated from a number of resource blocks in a bandwidth divided by two, N/2, by either: a first expression, N(P-1)+O, or a second expression, N(N-P+1)+(N-1-O), a first expression, N(P-1)+O, or a second expression, N(N-P+1)+(N-1-O), where N is the number of resource blocks in a bandwidth, O is a starting resource block number and P is the length in terms of number of contiguously allocated resource blocks.
A directional control valve for temperature-dependent water conduction, in particular for a sanitary station, having a housing , a housing inlet for mixed water, at least two housing outlets for discharging the mixed water from the directional control valve , and a first switch mechanism , by means of which the one housing outlet is unblocked in a first switch position and the other housing outlet is unblocked in a second switch position, wherein the directional control valve comprises a cold water outlet and a temperature-controlled second switch mechanism , which connects the housing inlet to the cold water outlet in a first switch position , and to at least one of the housing outlets in a second switch position , such that the mixed water can be conducted out of the directional control valve through the cold water outlet at a water temperature lying below a threshold temperature and through at least one of the housing outlets upon reaching the threshold temperature, characterized in that the two switch mechanisms are interconnected for axial displacement via an axial guide .
A method for machining a substrate using a punching die, the substrate extending at least partially in a plane , the method comprising: - punching out an opening in the part of the substrate extending in the plane by the punching die, the punching die being in a first punching position when punching out, seen in the direction of the plane , characterized in that the method additionally comprises: - after punching out, performing a relative movement of the punching die and substrate in a direction parallel to the plane , due to the relative movement seen in the direction of the plane , the punching die comes to lie over a desired filling material in a second punching position, - in the second punching position, punching out a filling element from the desired filling material by the punching die, the filling element remaining in the punching die , - again performing a relative movement of the punching die and substrate in a direction parallel to the plane , due to the relative movement seen in the direction of the plane , the punching die coming to rest above the opening of the substrate in the first punching position, - inserting the filling element remaining in the punching die by the punching die into the opening of the substrate . - punching out an opening in the part of the substrate extending in the plane by the punching die, the punching die being in a first punching position when punching out, seen in the direction of the plane , - after punching out, performing a relative movement of the punching die and substrate in a direction parallel to the plane , due to the relative movement seen in the direction of the plane , the punching die comes to lie over a desired filling material in a second punching position, - in the second punching position, punching out a filling element from the desired filling material by the punching die, the filling element remaining in the punching die , - in the second punching position, punching out a filling element from the desired filling material by the punching die, the filling element remaining in the punching die , - again performing a relative movement of the punching die and substrate in a direction parallel to the plane , due to the relative movement seen in the direction of the plane , the punching die coming to rest above the opening of the substrate in the first punching position, - inserting the filling element remaining in the punching die by the punching die into the opening of the substrate .
A method for miniaturizing magnetic domains of a directional electric steel plate comprising: a steel plate supporting roll position adjusting step of controlling the vertical direction position of a steel plate while supporting the steel plate progressing along a production line; a laser emitting step of melting the steel plate by emitting a laser beam to form grooves on the surface of the steel plate ; and a removing step to remove remaining spatters dropped on the surface of the steel plate after the laser emitting; wherein the steel plate supporting roll position adjusting step comprises a brightness measuring step of measuring brightness of a flame occurring when the laser is emitted to the steel plate in the laser emitting step; wherein the removing step further comprises the spraying step of air to blow a spatter dropped on the steel plate ; and the suction step of sucking and treating the spatter removed from steel plate by air; and wherein in the laser emitting step, with respect to the surface of the steel plate progressing in contact with the surface of the steel plate supporting roll in the form of an arc, by setting as a reference point an emitting position of the laser beam when the emitting direction of the laser beam passes through a central axis of the steel plate supporting roll , the laser beam is emitted to a position separated at an angle along an outer peripheral surface from the center of the steel plate supporting roll at the reference point. a steel plate supporting roll position adjusting step of controlling the vertical direction position of a steel plate while supporting the steel plate progressing along a production line; a laser emitting step of melting the steel plate by emitting a laser beam to form grooves on the surface of the steel plate ; and a removing step to remove remaining spatters dropped on the surface of the steel plate after the laser emitting; wherein the steel plate supporting roll position adjusting step comprises a brightness measuring step of measuring brightness of a flame occurring when the laser is emitted to the steel plate in the laser emitting step; wherein the removing step further comprises the spraying step of air to blow a spatter dropped on the steel plate ; and the suction step of sucking and treating the spatter removed from steel plate by air; and wherein in the laser emitting step, with respect to the surface of the steel plate progressing in contact with the surface of the steel plate supporting roll in the form of an arc, by setting as a reference point an emitting position of the laser beam when the emitting direction of the laser beam passes through a central axis of the steel plate supporting roll , the laser beam is emitted to a position separated at an angle along an outer peripheral surface from the center of the steel plate supporting roll at the reference point.
A control circuit for a generator for an ultrasonic surgical instrument, the control circuit configured to: determine an articulation angle of an articulatable ultrasonic blade coupled to an ultrasonic transducer ; adjust a complex impedance of the ultrasonic transducer to compensate for power lost as a function of the articulation angle; and adjust a power applied to the ultrasonic transducer based on the articulation angle. determine an articulation angle of an articulatable ultrasonic blade coupled to an ultrasonic transducer ; adjust a complex impedance of the ultrasonic transducer to compensate for power lost as a function of the articulation angle; and adjust a power applied to the ultrasonic transducer based on the articulation angle.
A method, comprising: (a) lowering a formation testing tool into a wellbore intersecting a subterranean formation, wherein the formation testing tool comprises an expandable member ; (b) performing a pressure meter test (PMT) by expanding the expandable member . (c) providing packer pressure data and pumped volume data obtained during the PMT to a processor ; (d) generating a Sleeve Fracture Plot with the processor using the received PMT data; and (e) using cavity expansion theory to generate an in situ stress-strain curve from received PMT data and Sleeve Fracture Plot to derive a static shear modulus therefrom. (a) lowering a formation testing tool into a wellbore intersecting a subterranean formation, wherein the formation testing tool comprises an expandable member ; (b) performing a pressure meter test (PMT) by expanding the expandable member . (c) providing packer pressure data and pumped volume data obtained during the PMT to a processor ; (d) generating a Sleeve Fracture Plot with the processor using the received PMT data; and (e) using cavity expansion theory to generate an in situ stress-strain curve from received PMT data and Sleeve Fracture Plot to derive a static shear modulus therefrom.
Apparatus for the handling of plates or sheets on a surface , comprising a moveable loading platform for the plates, which platform is moveable by driving means - which platform contains long and short platform ridges and - which platform is carried by a substantially vertical suspension beam , - wherein the loading platform is equipped near its bottom with a first carrying arm for the platform and which arm is mounted perpendicularly to the suspension beam - wherein the aforementioned arm is surrounded by an element which has a fixed connection to the loading platform , - wherein first control means allow the desired rotation at an angle A of the element with the loading platform around this first carrying arm and - wherein the suspension beam is equipped with a second carrying arm near its top , which is mounted crosswise to this beam, - wherein this second carrying arm can be linked with its free top end to a hook of the hoist cable of a hoisting device, - wherein the first and second carrying arms are in the same plane and - wherein the first carrying arm is placed crosswise of the longitudinal direction of the loading platform and runs substantially across the centre of gravity of this platform; characterised in that the loading platform comprises a gripping member for the plates to be handled, which member is located near the long ridge of the loading platform that is most remote from the beam and which member is configured to be tilted or pivoted backwards and forwards around a tilting beam at this ridge from a substantially horizontal up to an upright position. - which platform contains long and short platform ridges and - which platform is carried by a substantially vertical suspension beam , - wherein the loading platform is equipped near its bottom with a first carrying arm for the platform and which arm is mounted perpendicularly to the suspension beam - wherein the aforementioned arm is surrounded by an element which has a fixed connection to the loading platform , - wherein first control means allow the desired rotation at an angle A of the element with the loading platform around this first carrying arm and - wherein the suspension beam is equipped with a second carrying arm near its top , which is mounted crosswise to this beam, - wherein this second carrying arm can be linked with its free top end to a hook of the hoist cable of a hoisting device, - wherein the first and second carrying arms are in the same plane and - wherein the first carrying arm is placed crosswise of the longitudinal direction of the loading platform and runs substantially across the centre of gravity of this platform;
A method for operating a refrigeration system in a brewery comprising: conveying a refrigerant in a circuit of the refrigeration system with an evaporator for evaporating the refrigerant and at least one heat exchanger for cooling the refrigerant, characterised in that beer which is stored in at least one pressure tank or fermentation and/or storage tank or beer after beer filtration is used as a coolant during cooling of the refrigerant. conveying a refrigerant in a circuit of the refrigeration system with an evaporator for evaporating the refrigerant and at least one heat exchanger for cooling the refrigerant, characterised in that beer which is stored in at least one pressure tank or fermentation and/or storage tank or beer after beer filtration is used as a coolant during cooling of the refrigerant.