mhurhangee/ep-ind-claims huggingface dataset:
A timekeeping escapement mechanism, including: - a bistable elastic strip working in buckling mode around a median inflexion point between two anchoring points (A, B) of said bistable elastic strip, - a winding lever of said bistable elastic strip, rotationally movable and kinematically linked in a direction which is substantially perpendicular to said bistable elastic strip at two equidistant points from the median inflexion point, and - at least one escapement wheel and pinion (4, 5) rigidly connected to at least one pinion (6, 7) which is capable of meshing with a wheel and pinion of the geartrain of a watch movement, and arranged to transmit sequentially a driving torque to the winding lever so as to make said winding lever pivot alternatively in a clockwise direction of rotation and an anticlockwise direction of rotation in order to make said bistable elastic strip pass from a stable resting state to a metastable winding state, and - a detent lever rigidly connected to the bistable elastic strip at its median inflexion point and arranged to cooperate with an oscillating regulator member of a said watch movement each time the latter alternates so as to transmit a pulse consecutively to a detent of the bistable elastic strip corresponding to the passage from a said winding state to a said resting state symmetrical to the previous stable resting state, characterized in that it includes a monostable elastic member for compensating for a variation of the driving torque of the winding lever by the escapement wheel(s) and pinion (s) (4, 5) as a function of said direction of rotation of said winding lever. - a bistable elastic strip working in buckling mode around a median inflexion point between two anchoring points (A, B) of said bistable elastic strip, - a winding lever of said bistable elastic strip, rotationally movable and kinematically linked in a direction which is substantially perpendicular to said bistable elastic strip at two equidistant points from the median inflexion point, and - at least one escapement wheel and pinion (4, 5) rigidly connected to at least one pinion (6, 7) which is capable of meshing with a wheel and pinion of the geartrain of a watch movement, and arranged to transmit sequentially a driving torque to the winding lever so as to make said winding lever pivot alternatively in a clockwise direction of rotation and an anticlockwise direction of rotation in order to make said bistable elastic strip pass from a stable resting state to a metastable winding state, and - a detent lever rigidly connected to the bistable elastic strip at its median inflexion point and arranged to cooperate with an oscillating regulator member of a said watch movement each time the latter alternates so as to transmit a pulse consecutively to a detent of the bistable elastic strip corresponding to the passage from a said winding state to a said resting state symmetrical to the previous stable resting state,
An element arranging apparatus comprising: a supply portion that includes a first lane in which a plurality of Continuously Variable Transmission elements are arranged in a continuous manner in a width direction of the CVT elements, and a second lane that is parallel to the first lane and in which a plurality of CVT elements having a different thickness from a thickness of the CVT elements of the first lane are arranged in a continuous manner in the width direction; a feed portion configured to simultaneously feed one of the CVT elements of the first lane and one of the CVT elements of the second lane; a first holding portion configured to hold a CVT element set constituted by the CVT elements fed by the feed portion and arranged in a thickness direction of the CVT elements, characterized in that the first holding portion delivers the held CVT element set; and in that the apparatus further comprises a second holding portion configured to sequentially stack a plurality of the CVT element sets delivered by the first holding portion in the thickness direction, and hold the stacked plurality of CVT element sets. a supply portion that includes a first lane in which a plurality of Continuously Variable Transmission elements are arranged in a continuous manner in a width direction of the CVT elements, and a second lane that is parallel to the first lane and in which a plurality of CVT elements having a different thickness from a thickness of the CVT elements of the first lane are arranged in a continuous manner in the width direction; a feed portion configured to simultaneously feed one of the CVT elements of the first lane and one of the CVT elements of the second lane; a first holding portion configured to hold a CVT element set constituted by the CVT elements fed by the feed portion and arranged in a thickness direction of the CVT elements, characterized in that the first holding portion delivers the held CVT element set; and in that the apparatus further comprises a second holding portion configured to sequentially stack a plurality of the CVT element sets delivered by the first holding portion in the thickness direction, and hold the stacked plurality of CVT element sets.
Waste heat boiler for heat exchanging a relatively hot process gas with a cooling media comprising • a shell part, • at least two tube sheets, • a plurality of heat exchange tubes, • at least one by-pass tube, • a heat exchange section enclosed by said shell part and said at least two tube sheets • a process gas inlet section, • a process gas outlet section, • at least one cooling media inlet, • at least one cooling media outlet, wherein in use the relatively hot process gas enters the heat exchange tubes and the at least one by-pass tube in the process gas inlet section, flows through the heat exchange section where at least the process gas flowing in the heat exchange tubes is in indirect heat exchange with the cooling media and exits in the process gas outlet section, said waste heat boiler further comprising a control valve and an outlet process gas collector, the waste heat boiler being further characterised in that said control valve is enabled to control the volume stream of the process gas which flows through said outlet process gas collector, the process gas collector collects at least a part of the process gas exiting the at least one by-pass tube and the cooled process gas exiting a part of the heat exchange tubes. • a shell part, • at least two tube sheets, • a plurality of heat exchange tubes, • at least one by-pass tube, • a heat exchange section enclosed by said shell part and said at least two tube sheets • a process gas inlet section, • a process gas outlet section, • at least one cooling media inlet, • at least one cooling media outlet, wherein in use the relatively hot process gas enters the heat exchange tubes and the at least one by-pass tube in the process gas inlet section, flows through the heat exchange section where at least the process gas flowing in the heat exchange tubes is in indirect heat exchange with the cooling media and exits in the process gas outlet section, said waste heat boiler further comprising a control valve and an outlet process gas collector, the waste heat boiler being further characterised in that said control valve is enabled to control the volume stream of the process gas which flows through said outlet process gas collector, the process gas collector collects at least a part of the process gas exiting the at least one by-pass tube and the cooled process gas exiting a part of the heat exchange tubes.
A wireless terminal device comprising: a first casing including an antenna; a second casing movably connected to the first casing; a baseband processing unit that generates a transmit signal; a plurality of amplifiers(41∼43) that amplify the transmit signal; a first switch(11∼13) provided on each transmission path connecting the antenna and each of the amplifiers; a second switch(14∼16) provided between the transmission path and a ground, where the second switch(14∼16) is turned ON when a first predetermined voltage is applied, is turned OFF when a second predetermined voltage is applied, and, when an intermediate voltage between the first predetermined voltage and the second predetermined voltage is applied, has a capacitance according to the applied intermediate voltage; an impedance acquisition unit that acquires an impedance of the antenna corresponding to a positional relationship of the first casing and the second casing; and a control unit that turns ON one of the first switches(11∼13) based on a frequency band of the transmit signal and applies the intermediate voltage to at least one of the second switches(14∼16) to match an impedance of the amplifier arranged on the transmission path where the first switch(11∼13) is turned ON and the impedance of the antenna based on the impedance of the antenna acquired by the impedance acquisition unit. a first casing including an antenna; a second casing movably connected to the first casing; a baseband processing unit that generates a transmit signal; a plurality of amplifiers(41∼43) that amplify the transmit signal; a first switch(11∼13) provided on each transmission path connecting the antenna and each of the amplifiers; a second switch(14∼16) provided between the transmission path and a ground, where the second switch(14∼16) is turned ON when a first predetermined voltage is applied, is turned OFF when a second predetermined voltage is applied, and, when an intermediate voltage between the first predetermined voltage and the second predetermined voltage is applied, has a capacitance according to the applied intermediate voltage; an impedance acquisition unit that acquires an impedance of the antenna corresponding to a positional relationship of the first casing and the second casing; and a control unit that turns ON one of the first switches(11∼13) based on a frequency band of the transmit signal and applies the intermediate voltage to at least one of the second switches(14∼16) to match an impedance of the amplifier arranged on the transmission path where the first switch(11∼13) is turned ON and the impedance of the antenna based on the impedance of the antenna acquired by the impedance acquisition unit.
A paste for diffusion layer formation used for formation of a gas diffusion layer for a fuel cell comprising: a solvent; conductive particles dispersed in the solvent; a first surfactant which is dispersed in the solvent and has a first decomposition temperature at which the first surfactant is decomposed; and a second surfactant which is dispersed in the solvent and has a second decomposition temperature at which the second surfactant is decomposed, the second decomposition temperature being lower than the first decomposition temperature, wherein the paste for diffusion layer formation contains a lower amount of the first surfactant than the second surfactant on a weight basis. a solvent; conductive particles dispersed in the solvent; a first surfactant which is dispersed in the solvent and has a first decomposition temperature at which the first surfactant is decomposed; and a second surfactant which is dispersed in the solvent and has a second decomposition temperature at which the second surfactant is decomposed, the second decomposition temperature being lower than the first decomposition temperature, wherein the paste for diffusion layer formation contains a lower amount of the first surfactant than the second surfactant on a weight basis.
A polyolefin microporous membrane formed of a propylene-based resin composition comprising a polypropylene-based resin having (polypropylene)/(propylene-ethylene copolymer) (mass ratio) of 80/20 to 0/100 in an amount of 20% by mass or more, based on the propylene-based resin composition, wherein the melting point of the propylene-ethylene copolymer is 120°C or higher and 145°C or lower, measured as described in the description, wherein the content of ethylene in the propylene-ethylene copolymer is more than 1 % by mass and 20 % by mass or less, and wherein the polyolefin microporous membrane further comprises an inorganic filler.
A component (2, 3, 4, 5, 6) for an electrical machine comprising a plurality of stacked laminations, with at least a corrugated layer (22, 32, 42, 52, 62) interposed between a pair of adjacent stacks (23a, 23b), such that said pair of adjacent stacks (23a, 23b) are spaced apart and such that a plurality of passageways for a cooling fluid are formed there between, the corrugated layer (22, 32, 42, 52, 62) comprises a first lamination (221, 521, 621) deformed in such a way to define on its surface a plurality of first recesses (222, 522), the corrugated layer (32, 42, 52, 62) comprises a second lamination (321, 421, 531) being deformed in such a way to define on its surface a plurality of second recesses (322, 422, 532) characterized in that said first and second recesses (222, 322) have aligned concavities, said second lamination being disposed adjacent to said first lamination such that each second recess is at least partially hosted into a correspondent first recess.
A method comprising: authenticating a user to a processor-based host, based on a credential, to determine a user authentication status; authenticating the user to a processor-based first service provider based on: a)i) the user authentication status, a)ii) a first additional credential that is unequal to the credential, and a)iii) a first out-of-band, OOB, communication; authenticating the user to a processor-based second service provider based on: b)i) at least one of the user authentication status or an additional user authentication status, b)ii) a second additional credential that is unequal to either of the credential or the first additional credential, and b)iii) a second OOB communication; in response to a timed-out session with the first service provider or the second service provider; re-authenticating the user to the first service provider or to the second service provider, respectively; without re-authenticating the user to the processor-based host; wherein the additional user authentication status is based on re-authenticating the user to the processor-based host based on the credential. authenticating a user to a processor-based host, based on a credential, to determine a user authentication status; authenticating the user to a processor-based first service provider based on: a)i) the user authentication status, a)ii) a first additional credential that is unequal to the credential, and a)iii) a first out-of-band, OOB, communication; authenticating the user to a processor-based second service provider based on: b)i) at least one of the user authentication status or an additional user authentication status, b)ii) a second additional credential that is unequal to either of the credential or the first additional credential, and b)iii) a second OOB communication; in response to a timed-out session with the first service provider or the second service provider; re-authenticating the user to the first service provider or to the second service provider, respectively; without re-authenticating the user to the processor-based host;
A cranial implant for implanting in a patient comprising: an implantable transducer for converting between electrical energy and acoustic energy; an implantable electronics module, in communication with the transducer, for processing electronic data signals associated with the transducer; and a cranial catheter adapted to be filled with a catheter fluid, the cranial catheter having a proximal end and a distal end, the proximal end being coupled to the transducer, and the distal end adapted to terminate at a cranial location and having a distal opening in fluid communication with the proximal end, the cranial catheter adapted to transmit vibrations produced by the transducer through the catheter fluid to cerebrospinal fluid of the patient and adapted to deliver a therapeutic fluid through the cranial catheter to the cerebrospinal fluid. an implantable transducer for converting between electrical energy and acoustic energy; an implantable electronics module, in communication with the transducer, for processing electronic data signals associated with the transducer; and a cranial catheter adapted to be filled with a catheter fluid, the cranial catheter having a proximal end and a distal end, the proximal end being coupled to the transducer, and the distal end adapted to terminate at a cranial location and having a distal opening in fluid communication with the proximal end, the cranial catheter adapted to transmit vibrations produced by the transducer through the catheter fluid to cerebrospinal fluid of the patient and adapted to deliver a therapeutic fluid through the cranial catheter to the cerebrospinal fluid.
A method for characterizing performance of a legacy application running on a legacy system in a testing stage for subsequent adjustment of operating parameters when running the legacy application on a new system, the new system having a computer architecture which is different to and newer than the computer architecture of the legacy system used in the testing stage, the method comprising: running the legacy application on a legacy system in a testing stage; recording or deriving performance information for the legacy application while running the legacy application on the legacy system in the testing stage, wherein recording or deriving the performance information includes counting clock cycles between events during program execution of the legacy application; determining one or more performance characteristics for the legacy application running on the legacy system by analyzing the performance information, wherein analyzing the performance information includes using the counted clock cycles between events during program execution of the legacy application, the one or more performance characteristics including one or more key performance metrics and other performance information, wherein the one or more key performance metrics must be met when the legacy application is run on the new system and wherein the other performance information is useful for later adjustment of operating parameters of the new system when running the legacy application on the new system. running the legacy application on a legacy system in a testing stage; recording or deriving performance information for the legacy application while running the legacy application on the legacy system in the testing stage, wherein recording or deriving the performance information includes counting clock cycles between events during program execution of the legacy application; determining one or more performance characteristics for the legacy application running on the legacy system by analyzing the performance information, wherein analyzing the performance information includes using the counted clock cycles between events during program execution of the legacy application, the one or more performance characteristics including one or more key performance metrics and other performance information, wherein the one or more key performance metrics must be met when the legacy application is run on the new system and wherein the other performance information is useful for later adjustment of operating parameters of the new system when running the legacy application on the new system.
A catheter mount configured to be attached to a respiratory assistance system (100a, 100b), the catheter mount comprising: a plurality of ports (250d, 300d, 350d) in fluid communication with each other, the plurality of ports (250d, 300d, 350d) comprising: an interface port configured to connect to an interface tube and comprising an interface axis; a conduit port configured to connect to a conduit tube and comprising a conduit axis; and, a suction port configured to allow insertion of a suction catheter; and, a valve associated with the suction port and configured to allow the suction catheter direct access to the interface tube through the suction port, wherein the interface axis of the interface port intersects the valve; characterized in that, the valve is configured to allow the suction catheter direct access to the conduit tube and the conduit axis intersects the valve. a plurality of ports (250d, 300d, 350d) in fluid communication with each other, the plurality of ports (250d, 300d, 350d) comprising: an interface port configured to connect to an interface tube and comprising an interface axis; a conduit port configured to connect to a conduit tube and comprising a conduit axis; and, a suction port configured to allow insertion of a suction catheter; and, an interface port configured to connect to an interface tube and comprising an interface axis; a conduit port configured to connect to a conduit tube and comprising a conduit axis; and, a suction port configured to allow insertion of a suction catheter; and, a valve associated with the suction port and configured to allow the suction catheter direct access to the interface tube through the suction port, wherein the interface axis of the interface port intersects the valve; characterized in that, the valve is configured to allow the suction catheter direct access to the conduit tube and the conduit axis intersects the valve.
A thermoplastic resin composition comprising, based on 100 mass parts for a total of following and, at least 20 mass parts but less than 50 mass parts of a polyalkylene terephthalate resin, and more than 50 mass parts and not more than 80 mass parts of a polystyrene resin or a rubber-reinforced polystyrene resin, wherein the intrinsic viscosity (IV A) of the polyalkylene terephthalate resin is 0.3 to 0.8 dl/g and the melt viscosity (η B) of the polystyrene resin or rubber-reinforced polystyrene resin at 250°C and 912 sec -l is at least 80 Pa·sec, wherein the intrinsic viscosity is measured at 30°C in a mixed solvent of 1: 1 (mass ratio) tetrachloroethane and phenol and the melt viscosity is measured based on ISO 11443 using a capillary rheometer or a split-die rheometer. wherein the intrinsic viscosity (IV A) of the polyalkylene terephthalate resin is 0.3 to 0.8 dl/g and the melt viscosity (η B) of the polystyrene resin or rubber-reinforced polystyrene resin at 250°C and 912 sec -l is at least 80 Pa·sec, wherein the intrinsic viscosity is measured at 30°C in a mixed solvent of 1: 1 (mass ratio) tetrachloroethane and phenol and the melt viscosity is measured based on ISO 11443 using a capillary rheometer or a split-die rheometer.