mhurhangee/patent-ind-claim-en huggingface dataset:
A composition for use in treating acute decompensated heart failure in a patient in need thereof, comprising an AICA riboside analog of Formula I: or a pharmaceutically acceptable salt thereof, wherein: R A is selected from the group consisting of hydrogen, optionally substituted aryl, optionally substituted straight or branched-chain alkyl group having a total of from 1 to 6 carbon atoms, optionally substituted aralkyl, optionally substituted cycloalkyl and optionally substituted bicycloalkyl; R B is hydrogen or optionally substituted straight or branched-chain alkyl group having a total of from 1 to 6 carbon atoms; R 3 is hydrogen or -SW, where W is hydrogen, optionally substituted straight or branched-chain alkyl group having a total of from 1 to 6 carbon atoms, or optionally substituted phenyl; R 4 and R 5 are independently hydrogen, optionally substituted straight or branched-chain alkyl group having a total of from 1 to 6 carbon atoms, or acyl; R 6 is hydrogen, hydroxy, phosphate ester, -OSO 2 NH, halogen, -OCOV, -SV, -SOV, -N 3 , or -NVV', wherein V and V' are independently selected from hydrogen, optionally substituted aryl, optionally substituted straight or branched-chain alkyl group having a total of from 1 to 6 carbon atoms, and optionally substituted -CH 2 -phenyl; provided that when R A , R B , and R 3 are hydrogen, and R 4 and R 5 are hydrogen, acyl or hydrocarboxycarbonyl, then R 6 is not any one of hydroxy, acyloxy or hydrocarbyloxycarboxy. R A is selected from the group consisting of hydrogen, optionally substituted aryl, optionally substituted straight or branched-chain alkyl group having a total of from 1 to 6 carbon atoms, optionally substituted aralkyl, optionally substituted cycloalkyl and optionally substituted bicycloalkyl; R B is hydrogen or optionally substituted straight or branched-chain alkyl group having a total of from 1 to 6 carbon atoms; R 3 is hydrogen or -SW, where W is hydrogen, optionally substituted straight or branched-chain alkyl group having a total of from 1 to 6 carbon atoms, or optionally substituted phenyl; R 4 and R 5 are independently hydrogen, optionally substituted straight or branched-chain alkyl group having a total of from 1 to 6 carbon atoms, or acyl; R 6 is hydrogen, hydroxy, phosphate ester, -OSO 2 NH, halogen, -OCOV, -SV, -SOV, -N 3 , or -NVV', wherein V and V' are independently selected from hydrogen, optionally substituted aryl, optionally substituted straight or branched-chain alkyl group having a total of from 1 to 6 carbon atoms, and optionally substituted -CH 2 -phenyl; provided that when R A , R B , and R 3 are hydrogen, and R 4 and R 5 are hydrogen, acyl or hydrocarboxycarbonyl, then R 6 is not any one of hydroxy, acyloxy or hydrocarbyloxycarboxy.
A welding apparatus (10; 30) having a safety feature, comprising: - two electrodes (11, 12; 21,22), whereof at least one of said two electrodes (11; 21, 22) is movably arranged in relation to the other electrode, said two electrodes are in non-contact with each other and define a gap in which an object to be sealed and having an electrically non-conductive surface may be inserted, - an actuator (15; 25) configured to move said movably arranged electrode (11; 21, 22) when activated, so as to squeeze the object when inserted in the gap , and - an energy source configured to provide energy to said electrodes to perform a welding procedure, wherein said welding apparatus (10; 30) further comprises: 1) a detector (16; 26) configured to determine a clamping force when the inserted object is squeezed between the electrodes (11, 12; 21, 22), 2) a distance sensor (17; 23) configured to measure the distance between the electrodes when the object is squeezed, 3) a conductance sensor configured to measure the conductivity of an object located between the electrodes (11, 12; 21,22) when the object is squeezed, and optionally a position sensor configured to detect the position of the object inserted between the electrodes, wherein the welding apparatus further comprises a processor configured to process the input from at least one of the detector (16; 26), the distance sensor (17; 23) and the conductance sensor to provide an output that indicates if there is a blood bag tube inserted between electrodes, or if it is a foreign object; wherein the processor comprises a memory storing threshold values for distance, and conductance in memory, whereby the output from the processor is a comparison of sensor outputs with the stored threshold values; and wherein the processor comprises a memory storing clamping force profiles for various material types, whereby the output from the processor is a comparison of detector output with the stored profiles. - two electrodes (11, 12; 21,22), whereof at least one of said two electrodes (11; 21, 22) is movably arranged in relation to the other electrode, said two electrodes are in non-contact with each other and define a gap in which an object to be sealed and having an electrically non-conductive surface may be inserted, - an actuator (15; 25) configured to move said movably arranged electrode (11; 21, 22) when activated, so as to squeeze the object when inserted in the gap , and - an energy source configured to provide energy to said electrodes to perform a welding procedure, 1) a detector (16; 26) configured to determine a clamping force when the inserted object is squeezed between the electrodes (11, 12; 21, 22), 2) a distance sensor (17; 23) configured to measure the distance between the electrodes when the object is squeezed, 3) a conductance sensor configured to measure the conductivity of an object located between the electrodes (11, 12; 21,22) when the object is squeezed,
A communication system comprising a base station and a communication terminal device that performs radio communication with the base station , wherein the base station configures Primary Cell, PCell, using an associated cell including both a resource for downlink and a resource for uplink, the resource for downlink being allocated to downlink communication to the communication terminal device , the resource for uplink being allocated to uplink communication from the communication terminal device , wherein the base station configures Secondary Cell, SCell, using a non-associated cell including only another resource for downlink, the another resource for downlink being allocated to downlink communication to the communication terminal device , wherein the communication terminal device is configured to perform carrier aggregation with the PCell and the SCell, wherein the communication terminal is configured to transmit acknowledgement, Ack, or negative acknowledgement, Nack, for downlink data of the non-associated cell using the associated cell, wherein the base station is configured to notify the communication terminal of an RRC connection reconfiguration message using the associated cell, wherein the RRC connection reconfiguration message includes information indicating addition of the non-associated cell and includes system information regarding the non-associated cell, and wherein the communication terminal is configured to notify the associated cell of an RRC connection reconfiguration complete message. wherein the base station configures Primary Cell, PCell, using an associated cell including both a resource for downlink and a resource for uplink, the resource for downlink being allocated to downlink communication to the communication terminal device , the resource for uplink being allocated to uplink communication from the communication terminal device , wherein the base station configures Secondary Cell, SCell, using a non-associated cell including only another resource for downlink, the another resource for downlink being allocated to downlink communication to the communication terminal device , wherein the communication terminal device is configured to perform carrier aggregation with the PCell and the SCell, wherein the communication terminal is configured to transmit acknowledgement, Ack, or negative acknowledgement, Nack, for downlink data of the non-associated cell using the associated cell, wherein the base station is configured to notify the communication terminal of an RRC connection reconfiguration message using the associated cell, wherein the RRC connection reconfiguration message includes information indicating addition of the non-associated cell and includes system information regarding the non-associated cell, and wherein the communication terminal is configured to notify the associated cell of an RRC connection reconfiguration complete message.
A booster pump, comprising: a pump body provided with a mounting cavity extending in a first direction; a motor arranged in the mounting cavity , wherein the motor comprises a motor body , and a motor shaft passing through both ends of the motor body in the first direction; and a first pump head and a second pump head , wherein the first pump head is mounted on one end of the pump body in the first direction and drivingly connected to one end of the motor shaft , and the second pump head is mounted on the other end of the pump body in the first direction and drivingly connected to the other end of the motor shaft , wherein each of the first pump head and the second pump head has a water intake end and a water drain end and is provided with a piston plate , each end of the motor shaft is connected to the corresponding piston plate of the piston plates, each of the piston plates is formed with at least two piston chambers , each piston chamber communicates with the water intake end and the water drain end of the corresponding pump head, and the piston chambers are uniformly arranged around a center of the corresponding piston plate , and being characterized in that a projection of the piston chambers of the first pump head and a projection of the piston chambers of the second pump head are misaligned with each other in a projection plane perpendicular to the first direction. a pump body provided with a mounting cavity extending in a first direction; a motor arranged in the mounting cavity , wherein the motor comprises a motor body , and a motor shaft passing through both ends of the motor body in the first direction; and a first pump head and a second pump head , wherein the first pump head is mounted on one end of the pump body in the first direction and drivingly connected to one end of the motor shaft , and the second pump head is mounted on the other end of the pump body in the first direction and drivingly connected to the other end of the motor shaft , wherein each of the first pump head and the second pump head has a water intake end and a water drain end and is provided with a piston plate , each end of the motor shaft is connected to the corresponding piston plate of the piston plates, each of the piston plates is formed with at least two piston chambers , each piston chamber communicates with the water intake end and the water drain end of the corresponding pump head, and the piston chambers are uniformly arranged around a center of the corresponding piston plate , and being characterized in that a projection of the piston chambers of the first pump head and a projection of the piston chambers of the second pump head are misaligned with each other in a projection plane perpendicular to the first direction.
An audio system comprising a speaker device (11, ..., 15) and a content output device configured to output content including a plurality of channels (C, FR, FL, SR, SL), wherein the speaker device (11, ..., 15) comprises: a proximity communication portion configured to read, from a medium (51, ..., 55) that stores channel information, the channel information; an obtaining portion configured to obtain individual identification information of the speaker device (11, ..., 15); a transmitting portion configured to transmit the channel information read from the medium (51, ..., 55) and the individual identification information to the content output device ; and a receiving portion that receives at least one channel (C, FR, FL, SR, SL) included in the content; wherein the content output device comprises: an assigning portion configured to assign a channel to the speaker device (11, ..., 15) based on the channel information and the individual identification information; characterized in that the medium (51, ..., 55) is attachable and detachable to and from the speaker device (11, ..., 15). wherein the speaker device (11, ..., 15) comprises: a proximity communication portion configured to read, from a medium (51, ..., 55) that stores channel information, the channel information; an obtaining portion configured to obtain individual identification information of the speaker device (11, ..., 15); a transmitting portion configured to transmit the channel information read from the medium (51, ..., 55) and the individual identification information to the content output device ; and a receiving portion that receives at least one channel (C, FR, FL, SR, SL) included in the content; a proximity communication portion configured to read, from a medium (51, ..., 55) that stores channel information, the channel information; an obtaining portion configured to obtain individual identification information of the speaker device (11, ..., 15); a transmitting portion configured to transmit the channel information read from the medium (51, ..., 55) and the individual identification information to the content output device ; and a receiving portion that receives at least one channel (C, FR, FL, SR, SL) included in the content; wherein the content output device comprises: an assigning portion configured to assign a channel to the speaker device (11, ..., 15) based on the channel information and the individual identification information; characterized in that the medium (51, ..., 55) is attachable and detachable to and from the speaker device (11, ..., 15). an assigning portion configured to assign a channel to the speaker device (11, ..., 15) based on the channel information and the individual identification information; characterized in that the medium (51, ..., 55) is attachable and detachable to and from the speaker device (11, ..., 15).
A sprue structure that is used for a low-pressure casting device to communicate a stalk with a cavity of a mold, comprising: a stalk connection part configured to be connected to the stalk; a molten metal reservoir; and a cavity connection part configured to be connected to the cavity, wherein the shape of the molten metal reservoir is such that a perimeter of a cross section perpendicular to a flow direction of the molten metal increases toward the cavity connection part while an area of the cross section remains constant.
A method performed by a robotic garden system for controlling a robotic garden tool , wherein the system comprises the robotic garden tool , a control unit , and a database , wherein the method comprises the steps of: A. retrieving, from the database by means of the control unit , a predetermined route for the robotic garden tool , wherein the predetermined route is within a working area , wherein the predetermined route is stored in a route data set in the database , wherein the predetermined route is based on a travel angle , wherein the travel angle is an angle extending from a starting point for the robotic garden tool located within the working area , and wherein the working area delimits the travel of the robotic garden tool , wherein the route data set comprises a plurality of predetermined routes , and wherein each predetermined route has a travel angle substantially being different from all other travel angles of all other predetermined routes, B. controlling by means of the control unit the robotic garden tool to start from the starting point and move along the retrieved predetermined route , characterized in that in the retrieving step of a predetermined route, the predetermined route is selected based on a criterion of minimising the number of turns of the robotic garden tool within the working area . A. retrieving, from the database by means of the control unit , a predetermined route for the robotic garden tool , wherein the predetermined route is within a working area , wherein the predetermined route is stored in a route data set in the database , wherein the predetermined route is based on a travel angle , wherein the travel angle is an angle extending from a starting point for the robotic garden tool located within the working area , and wherein the working area delimits the travel of the robotic garden tool , wherein the route data set comprises a plurality of predetermined routes , and wherein each predetermined route has a travel angle substantially being different from all other travel angles of all other predetermined routes, B. controlling by means of the control unit the robotic garden tool to start from the starting point and move along the retrieved predetermined route , characterized in that in the retrieving step of a predetermined route, the predetermined route is selected based on a criterion of minimising the number of turns of the robotic garden tool within the working area .
A method for instructing a User Equipment, UE to listen in a short Transmission Time Interval, TTI, the method comprising: determining , at a network side whether there is a short-TTI service; and instructing , whether the LTE needs to listen to a downlink control channel in a short TTI, according to whether there is a short-TTI service; characterized in that , wherein if there is a short-TTI service, instructing whether the LTE needs to listen to a downlink control channel in a short TTI, according to an instruction carried in a Media Access Control, MAC, Control Element, CE; or if there is a short-TTI service, implicitly instructing whether the LTE needs to listen to a downlink control channel in a short TTI, by transmitting DCI in a short TTI in the legacy control region; wherein the method comprises instructing whether the LTE needs to listen to a downlink control channel in a short TTI by carrying information in an ON/OFF information field; or by instructing a quantity of short TTIs, and/or sequence numbers of short TTIs. determining , at a network side whether there is a short-TTI service; and instructing , whether the LTE needs to listen to a downlink control channel in a short TTI, according to whether there is a short-TTI service; characterized in that , wherein if there is a short-TTI service, instructing whether the LTE needs to listen to a downlink control channel in a short TTI, according to an instruction carried in a Media Access Control, MAC, Control Element, CE; or if there is a short-TTI service, implicitly instructing whether the LTE needs to listen to a downlink control channel in a short TTI, by transmitting DCI in a short TTI in the legacy control region; wherein the method comprises instructing whether the LTE needs to listen to a downlink control channel in a short TTI by carrying information in an ON/OFF information field; or by instructing a quantity of short TTIs, and/or sequence numbers of short TTIs.
A spacer grid of a nuclear fuel assembly for supporting fuel rods of the nuclear fuel assembly, the spacer grid comprising: square grid cells having respective inner walls and constituting a square lattice structure, a plurality of flow channels each provided in the vertical direction to each of the grid cells ; and a plurality of mixing vanes each protrudingly provided in a downstream direction of cooling water flow at end parts of each of the grid cells , characterized by : that each of the grid cells includes a plurality of springs for elastically supporting a fuel rod, each of the plurality of the springs having a fixed end along a vertical direction on each of the inner walls and a free end by being curvedly provided in a horizontal direction from the fixed end ; and that each of the plurality of the springs and each of the flow channels each have the same height as height of each of the grid cells . square grid cells having respective inner walls and constituting a square lattice structure, a plurality of flow channels each provided in the vertical direction to each of the grid cells ; and a plurality of mixing vanes each protrudingly provided in a downstream direction of cooling water flow at end parts of each of the grid cells , a plurality of flow channels each provided in the vertical direction to each of the grid cells ; and a plurality of mixing vanes each protrudingly provided in a downstream direction of cooling water flow at end parts of each of the grid cells , characterized by : that each of the grid cells includes a plurality of springs for elastically supporting a fuel rod, each of the plurality of the springs having a fixed end along a vertical direction on each of the inner walls and a free end by being curvedly provided in a horizontal direction from the fixed end ; and that each of the plurality of the springs and each of the flow channels each have the same height as height of each of the grid cells . that each of the grid cells includes a plurality of springs for elastically supporting a fuel rod, each of the plurality of the springs having a fixed end along a vertical direction on each of the inner walls and a free end by being curvedly provided in a horizontal direction from the fixed end ; and that each of the plurality of the springs and each of the flow channels each have the same height as height of each of the grid cells .
Method for marking or colouration or destruction of objects of value , such as banknotes, where at least one liquid medium (31;83,84;121-123) which is contained in at least one compressible and openable container (30;85a,85b;124-126) is used, characterised by that at least one flattened and expandable container (40;80a,80b;110) is used in order to, when needed, compress the compressible container (30;85a,85b;124-126) for distribution of the liquid medium (31;83,84:121-123) on the objects of value , and that at least one gas generating means (41,81,82;111) is used inside the expandable container (40;80a,80b;110) so that at an alarm signal the gas generator will expand the expandable container (40;80a,80b;110).