mhurhangee/ep-ind-claims huggingface dataset:
A windscreen wiper device of the flat blade type comprising an elastic, elongated carrier element, as well as an elongated wiper blade of a flexible material, which can be placed in abutment with a windscreen to be wiped, which wiper blade includes one central groove, in which groove a longitudinal strip of the carrier element is disposed, which windscreen wiper device comprises a connecting device for an oscillating arm, wherein said oscillating arm can be pivotally connected to said connecting device about a pivot axis near one end, and wherein said wiper blade includes a wiping lip at a side of said central groove facing towards a windscreen to be wiped, wherein said wiper blade is made in one piece of elastomeric material, wherein said wiper blade comprises at least one longitudinal cleaning fluid channel, as well as several holes spaced apart along at least a portion of a length of said wiper blade, characterized in that said holes extend obliquely in downward direction from said cleaning fluid channel to the outside for spraying cleaning fluid from said cleaning fluid channel through said holes onto a windscreen to be wiped, wherein said cleaning fluid channel is located inside a downstream sidewall of said central groove, and wherein said holes are provided at said sidewall, wherein said wiper blade includes a spoiler at a side of said cental groove facing away from a windscreen to be wiped, wherein said spoiler is provided with a recess for accommodating said connecting device therein, and wherein said connecting device is provided with an inlet for allowing cleaning fluid to enter said cleaning fluid channel.
A method for treating an exhaust gas containing carbon dioxide (CO 2), in which absorption and release of CO 2 are performed from an exhaust gas containing carbon dioxide (CO 2) using, as a CO 2 absorbent, an aqueous solution of an alkanolamine represented by C n H 2n+1 NHC n' H 2n'+1 O, n being any integer of 1 to 4 and n' being any integer of 1 to 3, the method comprising measuring the concentration of an alkylamine represented by C n H 2n+1 NH 2, n being any integer of 1 to 4, or the sum of the concentration of the alkylamine and the concentration of ammonia in an exhaust gas after absorbing carbon dioxide by the absorbent; and adding an oxidation inhibitor of the alkanolamine to the CO 2 absorbent according to an increase in the concentration of the alkylamine or the sum of the concentration of the alkylamine and the concentration of ammonia, wherein the oxidation inhibitor of the alkanolamine is one, or two or more organic sulfur compound(s) selected from mercaptoimidazoles and mercaptobenzimidazoles. measuring the concentration of an alkylamine represented by C n H 2n+1 NH 2, n being any integer of 1 to 4, or the sum of the concentration of the alkylamine and the concentration of ammonia in an exhaust gas after absorbing carbon dioxide by the absorbent; and adding an oxidation inhibitor of the alkanolamine to the CO 2 absorbent according to an increase in the concentration of the alkylamine or the sum of the concentration of the alkylamine and the concentration of ammonia, wherein the oxidation inhibitor of the alkanolamine is one, or two or more organic sulfur compound(s) selected from mercaptoimidazoles and mercaptobenzimidazoles.
A clot retrieval device (100, 500, 800) for retrieving a clot from a blood vessel, comprising: a caged portion comprising: a distal end; a proximal end; an inner cage comprising a network of inner struts; and an outer cage comprising a network of struts, the inner cage and outer cage comprising a delivery configuration within a microcatheter and a deployed configuration distal of the microcatheter operable to retrieve at least a portion of the clot; and a distal pinching portion located distal of the distal end of the caged portion, and a proximal pinching portion located proximal of the proximal end of the caged portion, each pinching portion comprising at least one pinching cell comprising a collapsed state and an expanded state distal of the microcatheter operable to tweeze at least a portion of the clot; wherein each pinching cell further comprises a plurality of strut members (212a, 212b, 212c) configured to actuate and pinch the clot from the blood vessel between the plurality of strut members; wherein each pinching cell further comprises: a first collar, a first lumen, a second collar, and a second lumen, and wherein the plurality of strut members are positioned between the first collar and the second collar. a caged portion comprising: a distal end; a proximal end; an inner cage comprising a network of inner struts; and an outer cage comprising a network of struts, a distal end; a proximal end; an inner cage comprising a network of inner struts; and an outer cage comprising a network of struts, the inner cage and outer cage comprising a delivery configuration within a microcatheter and a deployed configuration distal of the microcatheter operable to retrieve at least a portion of the clot; and a distal pinching portion located distal of the distal end of the caged portion, and a proximal pinching portion located proximal of the proximal end of the caged portion, each pinching portion comprising at least one pinching cell comprising a collapsed state and an expanded state distal of the microcatheter operable to tweeze at least a portion of the clot; wherein each pinching cell further comprises a plurality of strut members (212a, 212b, 212c) configured to actuate and pinch the clot from the blood vessel between the plurality of strut members; wherein each pinching cell further comprises: a first collar, a first lumen, a second collar, and a second lumen, and wherein the plurality of strut members are positioned between the first collar and the second collar. a first collar, a first lumen, a second collar, and a second lumen, and wherein the plurality of strut members are positioned between the first collar and the second collar.
A smart watch, comprising a dial, a first watchband and a second watchband, the first watchband and the second watchband being connected respectively to two ends of the dial, an RF (Radio Frequency) transceiver circuit being built in the dial, the smart watch further comprising: a feeder arranged on a surface of the first watchband or arranged inside the first watchband; and a conductive connecting part connected to an end of the first watchband, wherein the conductive connecting part has a non-closed structure, is configured to serve as an antenna that is connected with the RF transceiver circuit via the feeder, and is configured to serve as a first watchband connector that connects the first watchband and the second watchband; characterised in that the conductive connecting part comprises a conductive tongue and a conductive ring having an opening, one end of the conductive tongue is electrically connected with the conductive ring in a rotatable manner, and the other end of the conductive tongue is insulated from the conductive ring when the conductive tongue is rotated to the extent that the other end thereof is in contact with the conductive ring. a feeder arranged on a surface of the first watchband or arranged inside the first watchband; and a conductive connecting part connected to an end of the first watchband, wherein the conductive connecting part has a non-closed structure, is configured to serve as an antenna that is connected with the RF transceiver circuit via the feeder, and is configured to serve as a first watchband connector that connects the first watchband and the second watchband; characterised in that the conductive connecting part comprises a conductive tongue and a conductive ring having an opening, one end of the conductive tongue is electrically connected with the conductive ring in a rotatable manner, and the other end of the conductive tongue is insulated from the conductive ring when the conductive tongue is rotated to the extent that the other end thereof is in contact with the conductive ring.
A system, comprising: a nuclear reactor (302, 706), the nuclear reactor comprising a reactor vessel and a sodium to salt plate heat exchanger within the reactor vessel, the nuclear reactor on a nuclear site; a nuclear site boundary (210, 310) surrounding the nuclear reactor, the nuclear site boundary defined by one or more barriers inhibiting access to the nuclear site; a thermal energy storage system (208, 304, 702) located outside the nuclear site boundary, the thermal energy storage system in thermal communication with the nuclear reactor; and a power generator in thermal communication with the thermal energy storage system, the power generator situated outside the nuclear site boundary. a nuclear reactor (302, 706), the nuclear reactor comprising a reactor vessel and a sodium to salt plate heat exchanger within the reactor vessel, the nuclear reactor on a nuclear site; a nuclear site boundary (210, 310) surrounding the nuclear reactor, the nuclear site boundary defined by one or more barriers inhibiting access to the nuclear site; a thermal energy storage system (208, 304, 702) located outside the nuclear site boundary, the thermal energy storage system in thermal communication with the nuclear reactor; and a power generator in thermal communication with the thermal energy storage system, the power generator situated outside the nuclear site boundary.
A system comprising a brushless motor coupled with a clutch, the system comprising: two concentric rings comprising an inner ring and an outer ring; and an equal number of magnets (103, 104) connected to the inner ring and to the outer ring, and an opposite orientation of the poles of each couple of facing magnets; wherein: one magnet is placed on the inner ring, and its facing magnet is placed on the outer ring, wherein a first of said two concentric rings is rotatable around an axis by the application of a force not applied by a second of the two concentric rings, and wherein when said first concentric ring rotates, the second concentric ring rotates as well by the action of magnetic forces, wherein the brushless motor is a brushless DC motor, further comprising a plurality of circumferentially spaced and stationary air-core solenoids constituting a stator of said brushless DC motor, each of said air-core solenoids encircling both an inner edge and an outer edge of the inner ring so that through an interior of each of said air-core solenoids the magnets of the inner ring can pass, which, when energized, generate an electromagnetic field that produces a torque on a magnetic field of the magnet passing through their interior to cause the inner ring to turn around its axis, wherein the inner ring is the rotor of the brushless DC motor. two concentric rings comprising an inner ring and an outer ring; and an equal number of magnets (103, 104) connected to the inner ring and to the outer ring, and an opposite orientation of the poles of each couple of facing magnets; wherein: one magnet is placed on the inner ring, and its facing magnet is placed on the outer ring, wherein a first of said two concentric rings is rotatable around an axis by the application of a force not applied by a second of the two concentric rings, and wherein when said first concentric ring rotates, the second concentric ring rotates as well by the action of magnetic forces, wherein the brushless motor is a brushless DC motor, further comprising a plurality of circumferentially spaced and stationary air-core solenoids constituting a stator of said brushless DC motor, each of said air-core solenoids encircling both an inner edge and an outer edge of the inner ring so that through an interior of each of said air-core solenoids the magnets of the inner ring can pass, which, when energized, generate an electromagnetic field that produces a torque on a magnetic field of the magnet passing through their interior to cause the inner ring to turn around its axis, wherein the inner ring is the rotor of the brushless DC motor.
A time-of-flight sensor, comprising: a pixel array including a plurality of pixel circuits (211, 300a, 300b, 410) arranged in an array, wherein a first column of the array includes: a first pixel circuit (211, 300a, 410) including a first photodiode, a first capacitor coupled to the first photodiode, and a second capacitor coupled to the first photodiode, and a second pixel circuit (211, 300b, 410) including a second photodiode, a third capacitor coupled to the second photodiode, and a fourth capacitor coupled to the second photodiode; a first signal line (213a, 308a, 420a) coupled to the first capacitor; a second signal line (213b, 308b, 420b) coupled to the second capacitor; a third signal line (213c, 308c, 420c) coupled to the third capacitor; a fourth signal line (213d, 308d, 420d) coupled to the fourth capacitor; a first switch circuitry (232, 430, 431); a second switch circuitry (232, 430, 432); a first comparator (234, 450) coupled to the first signal line (213a, 308a, 420a) and the third signal line (213c, 308c, 420c) through the first switch circuitry (232, 430, 431); and a second comparator (234, 450) coupled to the second signal line (213b, 308b, 420b) and the fourth signal line (213d, 308d, 420d) through the second switch circuitry (232, 430, 432). a first pixel circuit (211, 300a, 410) including a first photodiode, a first capacitor coupled to the first photodiode, and a second capacitor coupled to the first photodiode, and a second pixel circuit (211, 300b, 410) including a second photodiode, a third capacitor coupled to the second photodiode, and a fourth capacitor coupled to the second photodiode; a first signal line (213a, 308a, 420a) coupled to the first capacitor; a second signal line (213b, 308b, 420b) coupled to the second capacitor; a third signal line (213c, 308c, 420c) coupled to the third capacitor; a fourth signal line (213d, 308d, 420d) coupled to the fourth capacitor; a first switch circuitry (232, 430, 431); a second switch circuitry (232, 430, 432); a first comparator (234, 450) coupled to the first signal line (213a, 308a, 420a) and the third signal line (213c, 308c, 420c) through the first switch circuitry (232, 430, 431); and a second comparator (234, 450) coupled to the second signal line (213b, 308b, 420b) and the fourth signal line (213d, 308d, 420d) through the second switch circuitry (232, 430, 432).
An antenna assembly comprising: a base composed of a metal material, the base comprising a body, an interior surface, a sidewall and a plurality of heat dissipation elements (67a-67e) extending from the interior surface; a modem disposed within the base and directly contacting the plurality of heat dissipation elements (67a-67e), the modem comprising at least one of a communication chip, a Global Navigation Satellite System "GNSS" reception component, a security access module, and a mobile phone communication component; a top lid for the base, the top lid comprising a bottom surface and at least one antenna element (41, 42, 43) disposed on an exterior surface of the top lid; a housing covering the top lid and the base; wherein the top lid and the base act as an electro-magnetic barrier for the modem allowing the modem to be placed in proximity to the at least one antenna element (41, 42, 43) without interference from electro-magnetic signals from the at least one antenna element (41, 42, 43). a base composed of a metal material, the base comprising a body, an interior surface, a sidewall and a plurality of heat dissipation elements (67a-67e) extending from the interior surface; a modem disposed within the base and directly contacting the plurality of heat dissipation elements (67a-67e), the modem comprising at least one of a communication chip, a Global Navigation Satellite System "GNSS" reception component, a security access module, and a mobile phone communication component; a top lid for the base, the top lid comprising a bottom surface and at least one antenna element (41, 42, 43) disposed on an exterior surface of the top lid; a housing covering the top lid and the base; wherein the top lid and the base act as an electro-magnetic barrier for the modem allowing the modem to be placed in proximity to the at least one antenna element (41, 42, 43) without interference from electro-magnetic signals from the at least one antenna element (41, 42, 43).
A network device in a cellular telecommunications system, comprising: a first communication section configured to receive a first control-plane message from a base station over a first communication link; a second communication section configured to transmit user-plane data to a user equipment over a second communication link established responsive to the first control-plane message; and a third communication section configured to receive the user-plane data from a server without flowing through any base station, wherein the user plane data transmitted from the second communication section is received at the user equipment at the same time as the user plane data and control plane data transmitted from the base station. a first communication section configured to receive a first control-plane message from a base station over a first communication link; a second communication section configured to transmit user-plane data to a user equipment over a second communication link established responsive to the first control-plane message; and a third communication section configured to receive the user-plane data from a server without flowing through any base station, wherein the user plane data transmitted from the second communication section is received at the user equipment at the same time as the user plane data and control plane data transmitted from the base station.
A hermetic compressor comprising: a hermetic container; compression units (13, 14) installed within the hermetic container to compress a refrigerant; an accumulator installed outside the hermetic container and having a hermetic inner space; connection pipes (23, 24) inserted into the inner space of the accumulator to connect the inner space to a suction side of the compression units (13, 14); a first supporting member fixed onto an inner circumferential surface of the accumulator to support the connection pipes (23, 24); and a second supporting member fixed onto an outer circumferential surface of the hermetic container and an outer circumferential surface of the accumulator, characterized in that the first supporting member has a central line lying in a horizontal plane and extending radially with respect to the accumulator and being central with respect to the height of the first supporting member, wherein the second supporting member has a central line lying in a horizontal plane and extending radially with respect to the accumulator and being central with respect to the height of the second supporting member, wherein said central lines overlap or intersect with each other, and wherein the central lines are located relative to the top of the accumulator within a range of 0.3 ∼ 0.6 times of an entire length of the accumulator from a top of the accumulator. a hermetic container; compression units (13, 14) installed within the hermetic container to compress a refrigerant; an accumulator installed outside the hermetic container and having a hermetic inner space; connection pipes (23, 24) inserted into the inner space of the accumulator to connect the inner space to a suction side of the compression units (13, 14); a first supporting member fixed onto an inner circumferential surface of the accumulator to support the connection pipes (23, 24); and a second supporting member fixed onto an outer circumferential surface of the hermetic container and an outer circumferential surface of the accumulator, characterized in that the first supporting member has a central line lying in a horizontal plane and extending radially with respect to the accumulator and being central with respect to the height of the first supporting member, wherein the second supporting member has a central line lying in a horizontal plane and extending radially with respect to the accumulator and being central with respect to the height of the second supporting member, wherein said central lines overlap or intersect with each other, and wherein the central lines are located relative to the top of the accumulator within a range of 0.3 ∼ 0.6 times of an entire length of the accumulator from a top of the accumulator.
Wiper rubber, in particular for a windshield wiper, for example of a motor vehicle, comprising an elastomer material which comprises a polymer blend of at least one ethylene/propylene/diene rubber and/or at least one ethylene/propylene rubber and at least one polymer chosen from the group consisting of polynorbornene, trans- polyoctenamer, polyisobutylene, chloroprene rubber, butyl rubber, chlorobutyl rubber, bromobutyl rubber and mixtures thereof, in which, in the polymer blend, the ratio by weight of ethylene/propylene/diene rubber and/or ethylene/propylene rubber to the at least one polymer lies in a region from 40:60 to 95:5.
A catheter device, comprising, - a drive shaft which is connected to a motor, - a rotor which is fastened to the drive shaft in the distal end region, the rotor (3.2) being made of an elastic material such that the rotor (3.2) unfolds by itself after a an imposed compression, a pump housing (3.1) being provided which comprises a suction portion (3.1.2) having openings for sucking in a medium to be conveyed, a tubular pump portion (3.1.3) and an outlet portion (3.1.4), and the tubular pump portion (3.1.3) surrounding the rotor (3.2), the pump housing being formed from a grid structure (3.1.6) whose openings are closed by means of an elastic covering at least in the area of the pump portion (3.1.3), characterized in that the grid structure (3.1.6) comprises openings (3.1.7) between the grid struts, the suction portion (3.1.2) and the outlet portion (3.1.4) having larger openings (3.1.7.2) than the pump portion (3.1.3). - a drive shaft which is connected to a motor, - a rotor which is fastened to the drive shaft in the distal end region, the rotor (3.2) being made of an elastic material such that the rotor (3.2) unfolds by itself after a an imposed compression,
A computer implemented method, comprising: receiving a first call from an application via an application program interface, the first call indicating a first state of the application; receiving a second call from the application via the application program interface, the second call indicating a second state of the application, wherein the first and second calls are received in response to changes in an application-level state, wherein the first call is received in response to a start of a particular application-level activity and the second call different from the first call is received in response to a cessation of the particular-level activity; determining, based on the second call, whether the application is running as a background process; if it is determined that the application is not running as the background process, determining an action for reducing an energy consumption of hardware on which the application is running and executing the action for reducing the energy consumption of the hardware on which the application is running. receiving a first call from an application via an application program interface, the first call indicating a first state of the application; receiving a second call from the application via the application program interface, the second call indicating a second state of the application, wherein the first and second calls are received in response to changes in an application-level state, wherein the first call is received in response to a start of a particular application-level activity and the second call different from the first call is received in response to a cessation of the particular-level activity; determining, based on the second call, whether the application is running as a background process; if it is determined that the application is not running as the background process, determining an action for reducing an energy consumption of hardware on which the application is running and executing the action for reducing the energy consumption of the hardware on which the application is running.