mhurhangee/ep-ind-claims huggingface dataset:
An accessory drive mechanism for a hybrid vehicle, wherein a drive power take-off mechanism, which takes out a power from a traveling drive system including an engine and a traveling motor by means of a wrapping-type transmission mechanism, is provided, an accessory is connected to the drive power take-off mechanism via a gearbox (Go), an output shaft of the drive power take-off mechanism and an output shaft of an accessory driving motor are connected to the gearbox; characterised in that: a first braking device is interposed in an output shaft (So) of the drive power take-off mechanism, a second braking device is interposed in the output shaft of the accessory driving motor, a revolution measurement device which measures a number of revolutions of the traveling drive system and a control device are provided, a measurement result of the revolution measurement device is input to the control device, and the control device has functions of stopping the accessory driving motor, operating the second braking device and releasing the first braking device in a case that a number of revolutions transmitted from the traveling drive system is not lower than a predetermined number of revolutions and functions of driving the accessory driving motor, operating the first braking device and releasing the second braking device in a case that a number of revolutions transmitted from the traveling drive system is lower than the predetermined number of revolutions.
An apparatus, comprising: a processor with a pipeline comprising a matrix of execution units (201, 301, 300, 302, 304) forming a set of rows and columns, wherein the rows support parallel execution of instructions and the columns support execution of dependent instructions, wherein parallel instructions are placed in rows, and said parallel instructions are augmented by dependent instructions whose operands include source operands which are dependent on results of the parallel instructions, wherein the dependent instructions are placed in subsequent rows; and wherein the matrix of execution units processes a single block of instructions specifying said parallel and dependent instructions in a single cycle, wherein instructions in a given row execute before instructions in a subsequent row during the single cycle. a processor with a pipeline comprising a matrix of execution units (201, 301, 300, 302, 304) forming a set of rows and columns, wherein the rows support parallel execution of instructions and the columns support execution of dependent instructions, wherein parallel instructions are placed in rows, and said parallel instructions are augmented by dependent instructions whose operands include source operands which are dependent on results of the parallel instructions, wherein the dependent instructions are placed in subsequent rows; and wherein the matrix of execution units processes a single block of instructions specifying said parallel and dependent instructions in a single cycle, wherein instructions in a given row execute before instructions in a subsequent row during the single cycle.
A waste water treatment facility for treating urea-containing waste water, with at least one first treatment container which comprises a waste water feed which is designed, for urea-containing waste water to be able to be introduced into the first treatment container via the waste water feed, wherein the first treatment container is designed for urea to be able to be converted into ammonia by way of urease enzymes in the first treatment container on operation of the waste water treatment facility, characterised in that an oxygen feed device (14, 16), in particular in the form of an aeration device is arranged on or in the first treatment container or the waste water feed, and the waste water treatment facility comprises a control device, via which the oxygen feed device (14, 16) can be switched on and off in a manner such that the conversion of urea into ammonia can be selectively carried out in an aerobic or anaerobic manner and the waste water treatment facility changes between an aerobic operating state and an anaerobic operating state in the first treatment container, wherein at least one second treatment container which is provided with an oxygen feed device (24, 26), in particular in the form of an aeration device is arranged downstream of the first treatment container, wherein ammonia and/or ammonium in the waste water can be converted into nitrate in the second treatment container amid the feed of air, on operation of the waste water treatment facility, wherein a first sensor (42, 44) which is connected to the control device and which is designed for the detection of an ammonium concentration or ammonia concentration is present, wherein the control device is designed in a manner such that it switches the oxygen feed device (14, 16) in the first treatment container on and off in dependence of an ammonium concentration or ammonia concentration which is detected by the first sensor (42, 44), in a manner such that oxygen is fed to the first treatment container when the ammonium concentration or ammonia concentration in the treated waste water exceeds a predefined limit value, and no oxygen is fed to the first treatment container when an ammonium concentration or ammonia concentration in the treated waste water lies below the predefined limit value.
A sensor system for monitoring a motor in an aircraft, the sensor system comprising: a wireless sensor arranged to measure a parameter of the motor, said wireless sensor being further arranged to transmit said parameter to an external wireless receiver; an energy harvesting unit comprising a mass-spring unit arranged to be mechanically coupled to the aircraft; wherein the energy harvesting unit is arranged to convert mechanical energy arising from motion of the mass-spring unit to electrical energy using magnetic, piezoelectric, and/or electrostatic methods, and to supply said electrical energy to the wireless sensor; characterised in that the energy harvesting unit is arranged to be mechanically coupled to a component of the aircraft, wherein the component comprises one or more of the following: a wing; a blade; a landing gear; and/or a flight control surface of the aircraft. a wireless sensor arranged to measure a parameter of the motor, said wireless sensor being further arranged to transmit said parameter to an external wireless receiver; an energy harvesting unit comprising a mass-spring unit arranged to be mechanically coupled to the aircraft; wherein the energy harvesting unit is arranged to convert mechanical energy arising from motion of the mass-spring unit to electrical energy using magnetic, piezoelectric, and/or electrostatic methods, and to supply said electrical energy to the wireless sensor; characterised in that the energy harvesting unit is arranged to be mechanically coupled to a component of the aircraft, wherein the component comprises one or more of the following: a wing; a blade; a landing gear; and/or a flight control surface of the aircraft.
A variant of a parent lipase, wherein the variant has lipase activity, is at least 80% identical to SEQ ID NO:2 and comprises the substitutions Q4V +S58A +V60S +S83T +I86V +A150G +E210K +L227G +T231R +N233R +P256K (using SEQ ID NO:2 for numbering).
A method of scanning an object using a contact analogue probe comprising a deflectable stylus for contacting the object mounted on a machine tool, so as to collect scanned measurement data along a nominal measurement line on the surface of the object, the analogue probe having a preferred measurement range, the method comprising: controlling the contact analogue probe and/or object to perform a scanning operation in accordance with a predetermined course of relative motion, the predetermined course of relative motion being configured such that the contact analogue probe's preferred measuring range traverses across the object along the nominal measurement line a plurality of times, in which the position of the contact analogue probe's preferred measuring range relative to the surface of the object is different for different traverses, and filtering the data obtained by the contact analogue probe so as to obtain select scanned measurement data, relating to scanned measurement data obtained predominantly from either within or outside the contact analogue probe's preferred measurement range. controlling the contact analogue probe and/or object to perform a scanning operation in accordance with a predetermined course of relative motion, the predetermined course of relative motion being configured such that the contact analogue probe's preferred measuring range traverses across the object along the nominal measurement line a plurality of times, in which the position of the contact analogue probe's preferred measuring range relative to the surface of the object is different for different traverses, and filtering the data obtained by the contact analogue probe so as to obtain select scanned measurement data, relating to scanned measurement data obtained predominantly from either within or outside the contact analogue probe's preferred measurement range.
A method for obtaining time of arrival, TOA, when a mobile terminal is located, wherein the method comprises: receiving a locating reference signal sent by a locating transmitter; performing time domain related processing on the locating reference signal and a synchronization reference signal sequence to obtain a related spectrum value of a multipath signal component corresponding to a delay value; detecting a channel parameter used when the locating reference signal is received, characterized in that the method further comprises: generating, according to the channel parameter and a function that progressively decreases with the delay value, a related spectrum threshold that progressively decreases with the delay value; and traversing the delay value in ascending order of the delay value, searching for a first traversed delay value whose related spectrum value of a multipath signal component corresponding to the delay value is greater than a related spectrum threshold corresponding to the delay value, and using the found delay value as TOA for outputting. receiving a locating reference signal sent by a locating transmitter; performing time domain related processing on the locating reference signal and a synchronization reference signal sequence to obtain a related spectrum value of a multipath signal component corresponding to a delay value; detecting a channel parameter used when the locating reference signal is received, characterized in that the method further comprises: generating, according to the channel parameter and a function that progressively decreases with the delay value, a related spectrum threshold that progressively decreases with the delay value; and traversing the delay value in ascending order of the delay value, searching for a first traversed delay value whose related spectrum value of a multipath signal component corresponding to the delay value is greater than a related spectrum threshold corresponding to the delay value, and using the found delay value as TOA for outputting. generating, according to the channel parameter and a function that progressively decreases with the delay value, a related spectrum threshold that progressively decreases with the delay value; and traversing the delay value in ascending order of the delay value, searching for a first traversed delay value whose related spectrum value of a multipath signal component corresponding to the delay value is greater than a related spectrum threshold corresponding to the delay value, and using the found delay value as TOA for outputting.
A downhole tool part for drilling subterranean material, wherein the downhole tool part (12'; 200') is manufactured by casting a composite matrix material (422; 222) within a mold (410; 210) containing a selectively dispersed particulate material (424; 260); wherein the particulate material (424; 260) comprises at least one constituent selected from the group comprising: polycrystalline diamond compact, thermally stable polycrystalline diamond, cubic boron nitride, and polycrystalline cubic boron nitride (PCBN).
Product for removing pollutants from a fluid, comprising, on the one hand, a porous body including a carbonaceous component and having an outer and inner specific surface and, on the other hand, a metallized layer, the thickness of which is at most nanoscale, covering at least part of the outer and inner specific surface of the porous body, the metallized layer including at least a heavy metal whose atomic mass is greater than or equal to that of copper and silicon, wherein the heavy metal and the silicon of the metallized layer are bonded to the carbonaceous component of the porous body by chemical bonds resulting from the action of intramolecular forces so as to form components that are carbides of metal silicides.
A method comprising: based on a timing mode selected from a plurality of timing modes, each of said timing modes integrating, using an interface cluster, a first circuit design for a first circuit with a second circuit design for a second circuit, generating boundary conditions from the first circuit design by terminating a timing between the first circuit and the second circuit at one or more registers within the second circuit, the second circuit being a field programmable gate array, FPGA, and the first circuit being an application-specific integrated circuit, ASIC; based on the generated boundary conditions, integrating the first circuit design with the second circuit design into an integrated circuit design; and based on the integrated circuit design, fabricating an integrated circuit. based on a timing mode selected from a plurality of timing modes, each of said timing modes integrating, using an interface cluster, a first circuit design for a first circuit with a second circuit design for a second circuit, generating boundary conditions from the first circuit design by terminating a timing between the first circuit and the second circuit at one or more registers within the second circuit, the second circuit being a field programmable gate array, FPGA, and the first circuit being an application-specific integrated circuit, ASIC; based on the generated boundary conditions, integrating the first circuit design with the second circuit design into an integrated circuit design; and based on the integrated circuit design, fabricating an integrated circuit.
A flow battery stack, comprising: a plurality of flow battery cells, each cell comprising an electrode layer that is wet by an electrolyte solution having a reversible redox couple reactant; a manifold comprising a solution passage that exchanges the electrolyte solution with the flow battery cells, and a manifold plate, wherein the solution passage is disposed with the manifold plate; and a heat exchanger comprising a heat exchange fluid passage, wherein the heat exchanger exchanges heat between the electrolyte solution in the solution passage and a heat exchange fluid directed through the heat exchange fluid passage, the flow battery cells, the manifold and the heat exchanger are arranged between first and second ends (12,14) of the flow battery stack, the flow battery cells, the manifold and the heat exchanger are connected between a first cover plate and a second cover plate, and the heat exchanger and the manifold are arranged between the first cover plate and the flow battery cells; wherein the heat exchanger further comprises a heat exchanger plate, and the heat exchange fluid passage is disposed with the heat exchanger plate; and wherein the heat exchange fluid passage comprises a straight passage segment and a curved passage segment. a plurality of flow battery cells, each cell comprising an electrode layer that is wet by an electrolyte solution having a reversible redox couple reactant; a manifold comprising a solution passage that exchanges the electrolyte solution with the flow battery cells, and a manifold plate, wherein the solution passage is disposed with the manifold plate; and a heat exchanger comprising a heat exchange fluid passage, wherein the heat exchanger exchanges heat between the electrolyte solution in the solution passage and a heat exchange fluid directed through the heat exchange fluid passage, the flow battery cells, the manifold and the heat exchanger are arranged between first and second ends (12,14) of the flow battery stack, the flow battery cells, the manifold and the heat exchanger are connected between a first cover plate and a second cover plate, and the heat exchanger and the manifold are arranged between the first cover plate and the flow battery cells;
Method for producing a wall connection for window or door frames installed in external walls, wherein - in a first method step mounting plates and joint sealing strips are attached to the frame on the end surface with sealing material, and the mounting plates are fastened preferably with a force and form fit, for example by means of screws, wherein the sealing joint strips are adhesively bonded on to the frame profiles in an encircling manner, and wherein the respective mounting plate is mounted on the frame in such a manner that parts of the mounting plate together with the respective joint sealing strip likewise fastened to the frame form a uniform plane of the outer sealing; - wherein the window frame is then inserted into the window opening and joined to the brickwork; - wherein the joint sealing strips are then fastened to the brickwork, and - subsequently parts of the joint between frame and brickwork are additionally sealed by means of a bitumous layer, such as bitumous coatings, sheets or equivalent materials, wherein the bitumous layer lies at least approximately in the uniform plane of the outer seal formed by the respective mounting plates and the joint sealing strips, and wherein the end regions of the bitumous layer adhere to the mounting plates. - in a first method step mounting plates and joint sealing strips are attached to the frame on the end surface with sealing material, and the mounting plates are fastened preferably with a force and form fit, for example by means of screws, wherein the sealing joint strips are adhesively bonded on to the frame profiles in an encircling manner, and wherein the respective mounting plate is mounted on the frame in such a manner that parts of the mounting plate together with the respective joint sealing strip likewise fastened to the frame form a uniform plane of the outer sealing; - wherein the window frame is then inserted into the window opening and joined to the brickwork; - wherein the joint sealing strips are then fastened to the brickwork, and - subsequently parts of the joint between frame and brickwork are additionally sealed by means of a bitumous layer, such as bitumous coatings, sheets or equivalent materials, wherein the bitumous layer lies at least approximately in the uniform plane of the outer seal formed by the respective mounting plates and the joint sealing strips, and wherein the end regions of the bitumous layer adhere to the mounting plates.
A communication and powering system (10; 10'), especially a medical communication and powering system comprising - at least one communication module with a communication transmitter, which is configured and arranged to transmit and send communication signals, - at least one charging and/or powering module with an energy charging and/or powering transmitter, which is configured and arranged to provide and/or transmit charging and/or powering energy, - at least one receiver (28; 28') being a receiver (28; 28') for communication signals and energy, wherein the receiver (28; 28') is configured to be switched into a first status for receiving communication signals provided by the communication module and a second status for receiving energy provided by the charging and/or powering module, wherein the first status and the second status are alternating, wherein the receiver (28; 28') comprises an antenna (30; 30'), especially an antenna coil, and a communication and charging diplexer (32; 32'), wherein the diplexer (32; 32') comprises a switch (54, 54') to ground and at least one capacitor (C2; C3') connected to the antenna (30; 30'), the antenna (30; 30') being an inductor and the capacitor (C2, C3') being positioned between the antenna (30; 30') and the switch (54, 54') to ground, and wherein the antenna (30; 30') and the capacitor (C2, C3') form a resonant tank. - at least one communication module with a communication transmitter, which is configured and arranged to transmit and send communication signals, - at least one charging and/or powering module with an energy charging and/or powering transmitter, which is configured and arranged to provide and/or transmit charging and/or powering energy, - at least one receiver (28; 28') being a receiver (28; 28') for communication signals and energy, wherein the receiver (28; 28') is configured to be switched into a first status for receiving communication signals provided by the communication module and a second status for receiving energy provided by the charging and/or powering module, wherein the first status and the second status are alternating, wherein the receiver (28; 28') comprises an antenna (30; 30'), especially an antenna coil, and a communication and charging diplexer (32; 32'), wherein the diplexer (32; 32') comprises a switch (54, 54') to ground and at least one capacitor (C2; C3') connected to the antenna (30; 30'), the antenna (30; 30') being an inductor and the capacitor (C2, C3') being positioned between the antenna (30; 30') and the switch (54, 54') to ground, and wherein the antenna (30; 30') and the capacitor (C2, C3') form a resonant tank.
A compound of formula: wherein: R 1 is H, C 1-4 alkyl, halo, haloC 1-4 alkyl, CN, C 1-4 alkoxy, or haloC 1-4 alkoxy; R 2 is H, C 1-5 alkyl, C 3-5 spiro carbocyclyl, haloC 1-5 alkyl or halo; R 3 is H, C 1-4 alkyl, haloC 1-4 alkyl, halo; or R 3 is absent; R 13 is H, C 1-4 alkyl, haloC 1-4 alkyl, halo; or R 13 is absent; R 14 is H, C 1-4 alky, haloC 1-4 alkyl, halo; or R 14 is absent; A is a 5 or 6 membered saturated or unsaturated heterocycle, with at least one O atom; which heterocycle is optionally fused with a cyclopropyl group, or a cyclobutyl group, or a cyclopentyl group to form a tricycle when considered together with the phenyl; X is CH or N; Y is CR 15 or N; R 15 is H or C 1-4 alkyl; R 4 is C 1-4 alkyl; R 5 is H, Deuterium, C 1-4 alkyl; or R 4 and R 5 can be fused to form C 3-4 spiro carbocyclyl; wherein R 2 and R 3 may be attached to the same or a different ring atom; wherein R 2 may be attached to a fused ring atom; and wherein R 13 and R 14 may be attached to the same or a different ring atom; or a pharmaceutically acceptable salt and/or solvate thereof. R 1 is H, C 1-4 alkyl, halo, haloC 1-4 alkyl, CN, C 1-4 alkoxy, or haloC 1-4 alkoxy; R 2 is H, C 1-5 alkyl, C 3-5 spiro carbocyclyl, haloC 1-5 alkyl or halo; R 3 is H, C 1-4 alkyl, haloC 1-4 alkyl, halo; or R 3 is absent; R 13 is H, C 1-4 alkyl, haloC 1-4 alkyl, halo; or R 13 is absent; R 14 is H, C 1-4 alky, haloC 1-4 alkyl, halo; or R 14 is absent; A is a 5 or 6 membered saturated or unsaturated heterocycle, with at least one O atom; which heterocycle is optionally fused with a cyclopropyl group, or a cyclobutyl group, or a cyclopentyl group to form a tricycle when considered together with the phenyl; X is CH or N; Y is CR 15 or N; R 15 is H or C 1-4 alkyl; R 4 is C 1-4 alkyl; R 5 is H, Deuterium, C 1-4 alkyl; or R 4 and R 5 can be fused to form C 3-4 spiro carbocyclyl; wherein R 2 and R 3 may be attached to the same or a different ring atom; wherein R 2 may be attached to a fused ring atom; and wherein R 13 and R 14 may be attached to the same or a different ring atom;