mhurhangee/ep-ind-claims huggingface dataset:
Method for producing ferrous metal castings, in which: - a broken mould having a hollow space for receiving casting material is placed in an open multi-component permanent mould (22, 24) (step 106), - the multi-component permanent mould (22, 24) is closed (step 106), - the hollow space of the broken mould is filled with casting material, wherein a carrier device which partially protrudes into the hollow space of the broken mould is partially cast round with the casting material (step 108), - the broken mould is cooled after being placed in the permanent mould (22, 24) (steps 110, 112, 114), - the multi-component permanent mould (22, 24) is opened during the cooling, at the earliest after the value has fallen below the liquidus temperature, preferably after the value has fallen below the solidus temperature and, in a particularly preferred manner, even before the cast has reached the eutectoid transformation temperature, and the broken mould is removed with the cast in a nondestructive manner from the open permanent mould (step 116), - the broken mould is further cooled with the cast suspended on the carrier device, at least until the structure formation of the cast is complete (step 118), - the cast is removed from the mould by removing the broken mould (step 120). - a broken mould having a hollow space for receiving casting material is placed in an open multi-component permanent mould (22, 24) (step 106), - the multi-component permanent mould (22, 24) is closed (step 106), - the hollow space of the broken mould is filled with casting material, wherein a carrier device which partially protrudes into the hollow space of the broken mould is partially cast round with the casting material (step 108), - the broken mould is cooled after being placed in the permanent mould (22, 24) (steps 110, 112, 114), - the multi-component permanent mould (22, 24) is opened during the cooling, at the earliest after the value has fallen below the liquidus temperature, preferably after the value has fallen below the solidus temperature and, in a particularly preferred manner, even before the cast has reached the eutectoid transformation temperature, and the broken mould is removed with the cast in a nondestructive manner from the open permanent mould (step 116), - the broken mould is further cooled with the cast suspended on the carrier device, at least until the structure formation of the cast is complete (step 118), - the cast is removed from the mould by removing the broken mould (step 120).
A surgical instrument, comprising: an end effector, comprising: an ultrasonic blade; and a clamp arm movable relative to the ultrasonic blade to transition the end effector between an open configuration and a closed configuration to clamp tissue between the ultrasonic blade and the clamp arm; an ultrasonic transducer configured to generate an ultrasonic energy output; a waveguide configured to transmit the ultrasonic energy output to the ultrasonic blade; and a control circuit configured to: detect an immersion of the end effector in a liquid; and compensate for heat flux lost due to the immersion of the end effector in the liquid. an end effector, comprising: an ultrasonic blade; and a clamp arm movable relative to the ultrasonic blade to transition the end effector between an open configuration and a closed configuration to clamp tissue between the ultrasonic blade and the clamp arm; an ultrasonic blade; and a clamp arm movable relative to the ultrasonic blade to transition the end effector between an open configuration and a closed configuration to clamp tissue between the ultrasonic blade and the clamp arm; an ultrasonic transducer configured to generate an ultrasonic energy output; a waveguide configured to transmit the ultrasonic energy output to the ultrasonic blade; and a control circuit configured to: detect an immersion of the end effector in a liquid; and compensate for heat flux lost due to the immersion of the end effector in the liquid. detect an immersion of the end effector in a liquid; and compensate for heat flux lost due to the immersion of the end effector in the liquid.
A variable pitch mechanism for a wind turbine, comprising a variable pitch bearing and a driving gear, wherein the variable pitch bearing comprises an outer ring of the bearing secured to a hub and an inner ring of the bearing connected to a blade, an inner circumferential surface of the inner ring of the bearing is provided with teeth, wherein, the variable pitch mechanism further comprises a flange, and characterized in that, the flange is arranged on the hub and is arranged coaxially with the variable pitch bearing, the driving gear is mounted on the flange and engages with the teeth on the inner ring of the bearing, and a mounting position of the flange on the hub is adjustable along a circumferential direction relative to the inner ring of the bearing by rotation of the flange about its axis, thus changing a meshing area between the inner ring of the bearing and the driving gear. the variable pitch mechanism further comprises a flange, and characterized in that, the flange is arranged on the hub and is arranged coaxially with the variable pitch bearing, the driving gear is mounted on the flange and engages with the teeth on the inner ring of the bearing, and a mounting position of the flange on the hub is adjustable along a circumferential direction relative to the inner ring of the bearing by rotation of the flange about its axis, thus changing a meshing area between the inner ring of the bearing and the driving gear.
A method for separating chlorine from a gaseous anode outlet stream mass flow of an electrochemical cell reactor, said anode outlet stream mass flow essentially comprising chlorine and anhydrous hydrogen chloride, comprising the following steps: a) an absorption step, wherein the anode outlet stream mass flow is exposed to an organic solvent, thereby forming - a solution mass flow comprising the organic solvent containing the chlorine and a part of the hydrogen chloride, the chlorine and the part of hydrogen chloride being both dissolved in said organic solvent and - a gas flow containing essentially hydrogen chloride, b) an extraction step, wherein the solution mass flow obtained in a) is exposed to a water mass flow, thereby forming - an aqueous hydrogen chloride mass flow comprising essentially the water mass flow and hydrogen chloride extracted from said solution and - a purified solution mass flow composed of the organic solvent and the chlorine, c) a desorption step, wherein the chlorine is desorbed from the purified solution mass flow obtained in b), whereby said organic solvent is essentially immiscible with water. a) an absorption step, wherein the anode outlet stream mass flow is exposed to an organic solvent, thereby forming - a solution mass flow comprising the organic solvent containing the chlorine and a part of the hydrogen chloride, the chlorine and the part of hydrogen chloride being both dissolved in said organic solvent and - a gas flow containing essentially hydrogen chloride, - a solution mass flow comprising the organic solvent containing the chlorine and a part of the hydrogen chloride, the chlorine and the part of hydrogen chloride being both dissolved in said organic solvent and - a gas flow containing essentially hydrogen chloride, b) an extraction step, wherein the solution mass flow obtained in a) is exposed to a water mass flow, thereby forming - an aqueous hydrogen chloride mass flow comprising essentially the water mass flow and hydrogen chloride extracted from said solution and - a purified solution mass flow composed of the organic solvent and the chlorine, - an aqueous hydrogen chloride mass flow comprising essentially the water mass flow and hydrogen chloride extracted from said solution and - a purified solution mass flow composed of the organic solvent and the chlorine, c) a desorption step, wherein the chlorine is desorbed from the purified solution mass flow obtained in b),
A common mode inductor for suppression of common mode noise and transmission of a differential mode communication signal, comprising: a ferromagnetic core with a first winding and a second winding, the first winding and the second winding being wound on the core in opposite directions and forming a differential pair of conductors arranged to convey a differential mode communication signal, a third winding wound on the core and extending along and being inductively coupled to at least a portion of the first winding; a fourth winding wound on the core and extending along and being inductively coupled to at least a portion of the second winding; wherein the third winding and the fourth winding are connected in series with each other and adapted to provide a sensor signal induced by the differential mode communication signal in the first winding and the second winding. a ferromagnetic core with a first winding and a second winding, the first winding and the second winding being wound on the core in opposite directions and forming a differential pair of conductors arranged to convey a differential mode communication signal, a third winding wound on the core and extending along and being inductively coupled to at least a portion of the first winding; a fourth winding wound on the core and extending along and being inductively coupled to at least a portion of the second winding; wherein the third winding and the fourth winding are connected in series with each other and adapted to provide a sensor signal induced by the differential mode communication signal in the first winding and the second winding.
An electrochromic device comprising a compound of Formula: wherein: R 1 and R 2 are individually alkyl, alkoxy, or aryloxy; R 3, R 4, R 5, R 6, R 7, R 8 are individually H, alkoxy, or aryloxy; R 9 and R 10 are individually alkoxy, or aryloxy, or where R 1 and R 2 are alkyl, R 9 and R 10 are individually H, alkoxy, or aryloxy; R 11 and R 12 are individually alkyl or -(CH 2) n N + (R 20) 3, wherein n is from 1 to 20; each R 20 is individually alkyl; and X is an anion. R 1 and R 2 are individually alkyl, alkoxy, or aryloxy; R 3, R 4, R 5, R 6, R 7, R 8 are individually H, alkoxy, or aryloxy; R 9 and R 10 are individually alkoxy, or aryloxy, or where R 1 and R 2 are alkyl, R 9 and R 10 are individually H, alkoxy, or aryloxy; R 11 and R 12 are individually alkyl or -(CH 2) n N + (R 20) 3, wherein n is from 1 to 20; each R 20 is individually alkyl; and X is an anion.
A hydrogen refueling system comprising: a cryogenic fluid tank that stores a cryogenic fluid; a dispenser that supplies H 2 to a vehicle, including a heat exchanger that cools H 2 with the cold and/or cryogenic fluid provided from the cryogenic fluid tank; an inlet line that sends the cold and/or cryogenic fluid to the heat exchanger from the cryogenic fluid tank; an outlet line that collects the cryogenic fluid fed from the heat exchanger; and an injection valve that is provided in the inlet line; characterized in that the hydrogen refueling system is configured so that during part of the idle time of the system, the heat exchanger that cools H 2 with the cold and/or cryogenic fluid provided from the cryogenic fluid tank heats up more than 7°C above its nominal temperature during FCV refueling, and that it is cooled down upon arrival of a vehicle to be refilled. a cryogenic fluid tank that stores a cryogenic fluid; a dispenser that supplies H 2 to a vehicle, including a heat exchanger that cools H 2 with the cold and/or cryogenic fluid provided from the cryogenic fluid tank; an inlet line that sends the cold and/or cryogenic fluid to the heat exchanger from the cryogenic fluid tank; an outlet line that collects the cryogenic fluid fed from the heat exchanger; and an injection valve that is provided in the inlet line; characterized in that the hydrogen refueling system is configured so that during part of the idle time of the system, the heat exchanger that cools H 2 with the cold and/or cryogenic fluid provided from the cryogenic fluid tank heats up more than 7°C above its nominal temperature during FCV refueling, and that it is cooled down upon arrival of a vehicle to be refilled.
A method for preparing highly reactive alkali metal or alkaline earth metal hydrides MH n *, where n = 1 or 2, corresponding to the valency of the metal M, characterized in that metals M of the first or second period of the periodic table of the elements are reacted with a compound of the general formula M 1 x [M 2 H 3+x] b under inert conditions or under a hydrogen atmosphere according to M + o/6 M 1 x [M 2 H 3+x] b → MH n * + p/6 M 1 H m * + q/6 M 2 * Wherein • M 1 = an alkali metal selected from the group consisting of Li, Na, K, Rb, Cs, an alkaline earth metal selected from the group consisting of Be, Mg, Ca, Sr, Ba; • x = 0 or 1; • M 2 = an element of main group 3 of the periodic table of the elements selected from the group consisting of B, Al, Ga, In; • b = the valency of M 1; • m = 1 or 2, corresponding to the valency of the metal M 1; • n = 1 or 2, corresponding to the valency of the metal M; • and in the case in which x = 0, p = 0 and • for M = alkali element, o and q = 2; • for M = alkaline earth element, o and q = 4, and • in the case in which x = 1: • for M and M 1 = alkali metals, o, p, q = 2; • for M and M 1 = alkaline earth metals, o, p = 2 and q = 4; • for M = alkali metal and M 1 = alkaline earth metal, o, p = 1 and q = 2, and • for M = alkaline earth metal and M 1 = alkali metal, o, p, q = 4. • M 1 = an alkali metal selected from the group consisting of Li, Na, K, Rb, Cs, an alkaline earth metal selected from the group consisting of Be, Mg, Ca, Sr, Ba; • x = 0 or 1; • M 2 = an element of main group 3 of the periodic table of the elements selected from the group consisting of B, Al, Ga, In; • b = the valency of M 1; • m = 1 or 2, corresponding to the valency of the metal M 1; • n = 1 or 2, corresponding to the valency of the metal M; • and in the case in which x = 0, p = 0 and • for M = alkali element, o and q = 2; • for M = alkaline earth element, o and q = 4, and • in the case in which x = 1: • for M and M 1 = alkali metals, o, p, q = 2; • for M and M 1 = alkaline earth metals, o, p = 2 and q = 4; • for M = alkali metal and M 1 = alkaline earth metal, o, p = 1 and q = 2, and • for M = alkaline earth metal and M 1 = alkali metal, o, p, q = 4.
Method for the computer-aided generation of a data-driven model of a technical system, particularly a gas turbine or wind turbine, for use for automated monitoring and/or forecasting and/or regulatory tasks, wherein the data-driven model is generated on the basis of training data that comprise a multiplicity of data records that each represent a plurality of operating variables for the technical system, characterized in that: - for a number of iteration steps the data-driven model and a density estimator are each learnt by means of data records from the training data, wherein the density estimator outputs a confidence measure for all data records from the training data, said confidence measure being higher the greater the similarity of a respective data record to other data records from the training data, and wherein the data-driven model reproduces data records for the training data with a model error in each case; - the density estimator and the data-driven model that have been learnt in a respective iteration step are used to select or weight data records from the training data for the learning in the next iteration step, wherein data records from the training data with low confidence measures and high model errors are more readily selected or more highly weighted. - for a number of iteration steps the data-driven model and a density estimator are each learnt by means of data records from the training data, wherein the density estimator outputs a confidence measure for all data records from the training data, said confidence measure being higher the greater the similarity of a respective data record to other data records from the training data, and wherein the data-driven model reproduces data records for the training data with a model error in each case; - the density estimator and the data-driven model that have been learnt in a respective iteration step are used to select or weight data records from the training data for the learning in the next iteration step, wherein data records from the training data with low confidence measures and high model errors are more readily selected or more highly weighted.
Recombinant probiotic bacteria, comprising (a) nucleic acid sequence(s) encoding for a first heterologous factor, (a) nucleic acid sequence(s) encoding for a second heterologous factor, and preferably (a) nucleic acid sequence(s) encoding for a third heterologous factor, with the proviso that said first factor, said second factor, and said third factor are functionally different from each other, wherein said first factor is a growth factor, wherein said second factor is selected from the group consisting of M2-polarizing factors, and wherein preferably said third factor is selected from the group consisting of M2-polarizing factors and growth factors, wherein said M2-polarizing factor is selected from the group consisting of interleukin 4 (IL-4), interleukin 10 (IL-10), interleukin 13 (IL-13), colony stimulating factor-1, interleukin 34, and mixtures thereof, and wherein said growth factor is selected from the group consisting of fibroblast growth factors, vascular endothelial growth factors (VEGF), epidermal growth factors, heparin-binding EGF-like growth factor (HB-EGF), transforming growth factor-α (TGF-α), insulin-like growth factors, platelet-derived growth factors (PDGF), transforming growth factor beta (TGF-β), and mixtures thereof. (a) nucleic acid sequence(s) encoding for a first heterologous factor, (a) nucleic acid sequence(s) encoding for a second heterologous factor, and preferably (a) nucleic acid sequence(s) encoding for a third heterologous factor, with the proviso that said first factor, said second factor, and said third factor are functionally different from each other,
Structure-borne sound actuator for a motor vehicle, which comprises an electro-dynamic excitation unit, and the excitation unit is formed with an excitation side configured to excite an acoustic body, characterized in that an acoustically rigid intermediate element is secured to the excitation side and the intermediate element has a coupling side, which faces away from the excitation side, and is configured for coupling to the acoustic body, the intermediate element being planar in design and a surface area of the coupling side being greater than a surface area of the excitation side, characterized in that the intermediate element is designed with an initial tension and the coupling side is curved in the decoupled state. an acoustically rigid intermediate element is secured to the excitation side and the intermediate element has a coupling side, which faces away from the excitation side, and is configured for coupling to the acoustic body, the intermediate element being planar in design and a surface area of the coupling side being greater than a surface area of the excitation side, characterized in that the intermediate element is designed with an initial tension and the coupling side is curved in the decoupled state.
An assembly for a gas turbine engine comprising: an end wall including a main body extending between a first end portion and a second end portion to establish a seal face, the seal face dimensioned to establish a clearance gap with a rotatable blade along a gas path, and the end wall including a first attachment portion dimensioned to fixedly attach the main body to a static structure at a first attachment point; a vane extending radially inwardly from the end wall relative to an assembly axis, the vane including an inner cavity extending between a first end portion and a second end portion, the first end portion adjacent the end wall; and a spar member including a spar body extending between a first end portion and a second end portion, the spar body extending at least partially through the inner cavity, characterised in that: the first end portion of the spar member attachable to the static structure at a second attachment point axially between the first end portion of the end wall and the first attachment portion such that the first end portion of the end wall is cantilevered from the first attachment point. an end wall including a main body extending between a first end portion and a second end portion to establish a seal face, the seal face dimensioned to establish a clearance gap with a rotatable blade along a gas path, and the end wall including a first attachment portion dimensioned to fixedly attach the main body to a static structure at a first attachment point; a vane extending radially inwardly from the end wall relative to an assembly axis, the vane including an inner cavity extending between a first end portion and a second end portion, the first end portion adjacent the end wall; and a spar member including a spar body extending between a first end portion and a second end portion, the spar body extending at least partially through the inner cavity,
A method (200, 300) for placing services in a service provider network, the method (200, 300) comprising: defining a topology of the service provider network; defining a set of services to be placed within the service provider network and a number of instances of each service to be placed, wherein at least one of the services is to be provided in multiple instances; and determining a set of requirements for a plurality of subscriber data flows, each requirement being a sequence of services to be traversed for a respective subscriber data flow; and defining service dependencies for each service and the method characterized in defining furthermore a ranking of the service dependencies, wherein the ranking of the service dependencies is computed according to how often each service occurs in the sequences of services defined by the set of requirements; determining a weight for each service based on the ranking of the service dependencies and number of instances of the service to be placed; and iteratively placing each service including its instances at one or more network nodes of the service provider network such that a network metric associated with the service provider network is optimized for all subscriber data flows, the iterative placement starting with the service having a largest weight value among all weights of the services. defining a topology of the service provider network; defining a set of services to be placed within the service provider network and a number of instances of each service to be placed, wherein at least one of the services is to be provided in multiple instances; and determining a set of requirements for a plurality of subscriber data flows, each requirement being a sequence of services to be traversed for a respective subscriber data flow; and defining service dependencies for each service and the method characterized in defining furthermore a ranking of the service dependencies, wherein the ranking of the service dependencies is computed according to how often each service occurs in the sequences of services defined by the set of requirements; determining a weight for each service based on the ranking of the service dependencies and number of instances of the service to be placed; and iteratively placing each service including its instances at one or more network nodes of the service provider network such that a network metric associated with the service provider network is optimized for all subscriber data flows, the iterative placement starting with the service having a largest weight value among all weights of the services.