mhurhangee/ep-ind-claims huggingface dataset:
A waveguide, comprising: a signal carrying waveguide region configured to propagate one or more modes comprising light having a first wavelength λ 1 and a second wavelength λ 2; a sink region arranged for removing any light coupled to it; and an auxiliary waveguide region configured to resonantly couple light of said second wavelength λ 2 from said signal carrying waveguide region to said sink region, wherein said signal carrying waveguide region is doped with a lasing element including a first atomic transition that lases at said first wavelength λ 1 and a second atomic transition that lases at said second wavelength λ 2, wherein said second atomic transition is the dominant atomic transition of said lasing element. a signal carrying waveguide region configured to propagate one or more modes comprising light having a first wavelength λ 1 and a second wavelength λ 2; a sink region arranged for removing any light coupled to it; and an auxiliary waveguide region configured to resonantly couple light of said second wavelength λ 2 from said signal carrying waveguide region to said sink region, wherein said signal carrying waveguide region is doped with a lasing element including a first atomic transition that lases at said first wavelength λ 1 and a second atomic transition that lases at said second wavelength λ 2, wherein said second atomic transition is the dominant atomic transition of said lasing element.
A circuit of an electronic control unit comprising a plurality of conductor tracks manufactured in punched-grid constructional form or in flexible-film constructional form, of which at least one conductor track comprises a contact region (4, 4.1, 4.2, 4.3) with at least one conductor-track contact bore (5, 5.1, 5.2, 5.3) for pressing in a contact pin of a connector element or an electronic component; wherein the contact region (4, 4.1, 4.2, 4.3) of the conductor track is reinforced with an additional supporting washer (9, 9.1, 9.2, 9.3), wherein the supporting washer (9, 9.1, 9.2, 9.3) consists of an electrically conducting metal sheet, wherein the supporting washer (9, 9.1, 9.2, 9.3) covers the contact region of the conductor track, wherein the supporting washer (9, 9.1, 9.2, 9.3) is provided with supporting-washer contact bore (11, 11.1, 11.2, 11.3), wherein the supporting-washer contact bore (11, 11.1, 11.2, 11.3) is arranged coaxially with respect to the conductor-track contact bore (5, 5.1, 5.2, 5.3), and wherein the supporting washer (9, 9.1, 9.2, 9.3) is arranged on one side of the conductor track and also connected to the conductor track, wherein the supporting washer (9.2) is connected by means of an extrusion with a plastic to the conductor track, and wherein the extrusion of the conductor track and of the supporting washer is formed like a frame and the outer edges of the conductor track as well of the supporting washer comprise frames.
A duct probe for sampling a fluid from a main fluid flow (Fm) in a duct, the duct probe defining an elongated supply channel and an elongated discharge channel, the supply channel and the discharge channel extending substantially along a longitudinal axis of the duct probe, each of the supply channel and the discharge channel having a closed end and an open end, the open end configured for direct or indirect connection to an environmental sensor, the supply channel having at least one inflow opening for diverting a partial flow (Fp) from the main fluid flow (Fm) into the supply channel, and the discharge channel having at least one outflow opening for returning the partial flow (Fp) from the discharge channel into the main fluid flow (Fm) after it has passed the environmental sensor, the duct probe comprising at least one compensation channel that connects the supply channel and the discharge channel in a region that is located between the closed ends and the open ends of the supply channel and the discharge channel, respectively, characterised in that the inflow opening and the compensation channel are arranged and sized to cause a jet flow (Fj) through the inflow opening, the jet flow being directed towards the compensation channel and being decelerated when it passes through the compensation channel, so as to reduce a pressure difference (dp) between the supply channel and the discharge channel when the duct probe is exposed to a main fluid flow (Fm). the duct probe defining an elongated supply channel and an elongated discharge channel, the supply channel and the discharge channel extending substantially along a longitudinal axis of the duct probe, each of the supply channel and the discharge channel having a closed end and an open end, the open end configured for direct or indirect connection to an environmental sensor, the supply channel having at least one inflow opening for diverting a partial flow (Fp) from the main fluid flow (Fm) into the supply channel, and the discharge channel having at least one outflow opening for returning the partial flow (Fp) from the discharge channel into the main fluid flow (Fm) after it has passed the environmental sensor, the duct probe comprising at least one compensation channel that connects the supply channel and the discharge channel in a region that is located between the closed ends and the open ends of the supply channel and the discharge channel, respectively, characterised in that the inflow opening and the compensation channel are arranged and sized to cause a jet flow (Fj) through the inflow opening, the jet flow being directed towards the compensation channel and being decelerated when it passes through the compensation channel, so as to reduce a pressure difference (dp) between the supply channel and the discharge channel when the duct probe is exposed to a main fluid flow (Fm).
A compound of Formula I: or a pharmaceutically acceptable solvate thereof, wherein: R 1 is H or F; R 1' is H; R 2 is H, F or Cl; R 2' is H or F; R 3 is F or Cl; R 4 is methyl, trifluoromethyl, difluoromethyl or fluoromethyl; X 1 is N and X 2 is S; or X 1 is S and X 2 is N; --- represents a single or a double bond depending on X 1 and X 2. R 1 is H or F; R 1' is H; R 2 is H, F or Cl; R 2' is H or F; R 3 is F or Cl; R 4 is methyl, trifluoromethyl, difluoromethyl or fluoromethyl; X 1 is N and X 2 is S; or X 1 is S and X 2 is N; --- represents a single or a double bond depending on X 1 and X 2.
A control system comprising: a sensor for sensing a boundary state describing flow at a boundary; an actuator for positioning a control surface; a control law for controlling the actuator, and a processor for generating an output vector to direct the control law, the processor comprising: an open loop module for generating the output vector as a function of a state vector (U k, X f) and an input vector (U x), wherein the output vector controls an actuator state that describes the control surface positioned in the flow; a corrector for generating a corrector vector (Y c) as a function of the output vector; a comparator for generating an error vector by comparing the corrector vector to the input vector; and an estimator for generating the state vector ( X f) as a function of the error vector, such that the error vector is minimized, wherein the output vector is corrected for errors based on the boundary state. a sensor for sensing a boundary state describing flow at a boundary; an actuator for positioning a control surface; a control law for controlling the actuator, and a processor for generating an output vector to direct the control law, the processor comprising: an open loop module for generating the output vector as a function of a state vector (U k, X f) and an input vector (U x), wherein the output vector controls an actuator state that describes the control surface positioned in the flow; a corrector for generating a corrector vector (Y c) as a function of the output vector; a comparator for generating an error vector by comparing the corrector vector to the input vector; and an estimator for generating the state vector ( X f) as a function of the error vector, such that the error vector is minimized, wherein the output vector is corrected for errors based on the boundary state. an open loop module for generating the output vector as a function of a state vector (U k, X f) and an input vector (U x), wherein the output vector controls an actuator state that describes the control surface positioned in the flow; a corrector for generating a corrector vector (Y c) as a function of the output vector; a comparator for generating an error vector by comparing the corrector vector to the input vector; and an estimator for generating the state vector ( X f) as a function of the error vector, such that the error vector is minimized, wherein the output vector is corrected for errors based on the boundary state.
A method of identifying resources available at a device in a communication network, the method comprising, at a Resource Directory Proxy node: receiving from the device a first message, the first message relating to a change in at least one resource available at the device; and sending to a Resource Directory node selected from a set of Resource Directory nodes (10, 11, 12) a second message including the change in the at least one of the resources available. receiving from the device a first message, the first message relating to a change in at least one resource available at the device; and sending to a Resource Directory node selected from a set of Resource Directory nodes (10, 11, 12) a second message including the change in the at least one of the resources available.
A method of receiving a signal at a user equipment in a multi-node system including a plurality of distributed antenna nodes (111,..., 116) defining at least one virtual cell and a base station for controlling the plurality of nodes, the method comprising: receiving a reference parameter from the base station; and receiving a node-specific signal from at least one node among the plurality of nodes (111,..., 116), wherein a virtual cell parameter required for decoding of the node-specific signal is determined based on the reference parameter, wherein: the node-specific signal is a channel status information reference signal, CSI-RS, and assuming multiple CSI-RS configuration numbers to support the plurality of nodes, the reference parameter includes a number of a CSI-RS antenna port used by the base station, the virtual cell parameter indicates a CSI-RS antenna port for the node-specific signal and the CSI-RS antenna port for the node-specific signal is determined by increasing the number of the CSI-RS antenna port used by the base station on the basis of an index of the at least one node. receiving a reference parameter from the base station; and receiving a node-specific signal from at least one node among the plurality of nodes (111,..., 116), wherein a virtual cell parameter required for decoding of the node-specific signal is determined based on the reference parameter, wherein: the node-specific signal is a channel status information reference signal, CSI-RS, and assuming multiple CSI-RS configuration numbers to support the plurality of nodes, the reference parameter includes a number of a CSI-RS antenna port used by the base station, the virtual cell parameter indicates a CSI-RS antenna port for the node-specific signal and the CSI-RS antenna port for the node-specific signal is determined by increasing the number of the CSI-RS antenna port used by the base station on the basis of an index of the at least one node. the node-specific signal is a channel status information reference signal, CSI-RS, and assuming multiple CSI-RS configuration numbers to support the plurality of nodes, the reference parameter includes a number of a CSI-RS antenna port used by the base station, the virtual cell parameter indicates a CSI-RS antenna port for the node-specific signal and the CSI-RS antenna port for the node-specific signal is determined by increasing the number of the CSI-RS antenna port used by the base station on the basis of an index of the at least one node.
A communication system for connecting field devices (150 - 156, 160 - 162) to a higher-level control device, comprising a connection device which is connectable to a higher-level control device via a transmission medium, wherein the connection device has at least one first port (130 - 136) to which an input data generating field device (150 - 156) is connected, and at least one second port (140 - 142) to which an output data receiving field device (160 - 162) is connected; characterized in that the connection device comprises a plurality of different functional devices (50 - 110) and a programmable switching device, wherein the switching device is adapted to be able to connect at least one functional device (60 - 70) between the at least one first port and the at least one second port; wherein the at least one functional device is adapted to be responsive to the input data arriving at the first port by generating output data which are intended for the second port.
Prosthesis with a prosthesis socket which has an inner face and is designed to be arranged on an amputation stump, such that the inner face is directed toward the amputation stump and a volume is enclosed between the inner face and the amputation stump, and with a pump for generating an underpressure in the volume when the prosthesis socket is arranged on the amputation stump, characterized in that the pump is a peristaltic pump.
A denitration apparatus comprising: a coal-fired boiler; an economizer configured to be provided to the coal-fired boiler; an upstream duct configured to guide exhaust gas from an upstream side of the economize; a downstream duct configured to guide exhaust gas from a downstream side of the economize; a first air preheater configured to be provided at a downstream side of the upstream duct; a second air preheater configured to be provided at a downstream side of the downstream duct; a denitration reactor configured to be provided at an upstream side of the first air preheater or the second air preheater; a first bypass duct configured to be provided at an upstream side of the denitration reactor for connecting the upstream duct and the downstream duct; and a second bypass duct configured to be provided at a downstream side of the denitration reactor for connecting the upstream duct and the downstream duct. a coal-fired boiler; an economizer configured to be provided to the coal-fired boiler; an upstream duct configured to guide exhaust gas from an upstream side of the economize; a downstream duct configured to guide exhaust gas from a downstream side of the economize; a first air preheater configured to be provided at a downstream side of the upstream duct; a second air preheater configured to be provided at a downstream side of the downstream duct; a denitration reactor configured to be provided at an upstream side of the first air preheater or the second air preheater; a first bypass duct configured to be provided at an upstream side of the denitration reactor for connecting the upstream duct and the downstream duct; and a second bypass duct configured to be provided at a downstream side of the denitration reactor for connecting the upstream duct and the downstream duct.
A system for applying reduced pressure to a subcutaneous tissue site, the system comprising: a sleeve, which comprises a lumen, adapted for placement at a subcutaneous tissue site and having an opening; and a manifold sized and shaped to be inserted into the lumen of the sleeve, wherein the manifold includes at least one aperture, wherein the manifold is operable to deliver reduced pressure to the subcutaneous tissue site through the at least one aperture and the opening, wherein the manifold comprises a flange at least partially surrounding the manifold, characterized in that the flange includes at least one hole allowing fluid communication between a space on the distal side of the flange and a space on the proximal side of the flange. a sleeve, which comprises a lumen, adapted for placement at a subcutaneous tissue site and having an opening; and a manifold sized and shaped to be inserted into the lumen of the sleeve, wherein the manifold includes at least one aperture, wherein the manifold is operable to deliver reduced pressure to the subcutaneous tissue site through the at least one aperture and the opening, wherein the manifold comprises a flange at least partially surrounding the manifold, characterized in that the flange includes at least one hole allowing fluid communication between a space on the distal side of the flange and a space on the proximal side of the flange.
A method, comprising: receiving, by a generator unit, real alarm data comprising alarm events and network parameters, from a network element; generating, by the generator unit, modified alarm data by selecting and modifying at least one network parameter of the real alarm data; training the generator unit by iterating through the following steps: evaluating, by a discriminator unit, the modified alarm data against the real alarm data; based on the evaluation results, generating, by the discriminator unit, feedback to be provided to the generator unit; and generating, by the generator unit based on the feedback new modified alarm data; repeating the iterative steps using the new modified alarm data as modified alarm data until the difference between the modified alarm data and the real alarm data falls below a given threshold; wherein generating the modified and/or new modified alarm data comprises a step of selecting and modifying at least one network parameter based on the feedback received from the discriminator unit, wherein the feedback is weighted by a policy unit according to a policy metric based on information about whether the previously generated modified alarm data is evaluated as true or false alarm data; and wherein the modified and/or new modified alarm data is generated using a first recurrent neural network in the generator unit. receiving, by a generator unit, real alarm data comprising alarm events and network parameters, from a network element; generating, by the generator unit, modified alarm data by selecting and modifying at least one network parameter of the real alarm data; training the generator unit by iterating through the following steps: evaluating, by a discriminator unit, the modified alarm data against the real alarm data; based on the evaluation results, generating, by the discriminator unit, feedback to be provided to the generator unit; and generating, by the generator unit based on the feedback new modified alarm data; evaluating, by a discriminator unit, the modified alarm data against the real alarm data; based on the evaluation results, generating, by the discriminator unit, feedback to be provided to the generator unit; and generating, by the generator unit based on the feedback new modified alarm data; repeating the iterative steps using the new modified alarm data as modified alarm data until the difference between the modified alarm data and the real alarm data falls below a given threshold; wherein generating the modified and/or new modified alarm data comprises a step of selecting and modifying at least one network parameter based on the feedback received from the discriminator unit, wherein the feedback is weighted by a policy unit according to a policy metric based on information about whether the previously generated modified alarm data is evaluated as true or false alarm data; and wherein the modified and/or new modified alarm data is generated using a first recurrent neural network in the generator unit.
A lifting/sliding door with a blind frame and a door frame, wherein the blind frame has a lower horizontal blind frame profile that forms a ground sill, wherein the ground sill has a profile body that viewed in cross section has a first profile section and a second profile section adjoining it, wherein a rail for a door is further arranged in the second profile section, and divides a surface of the second profile section into two partial areas (23, 24) and protrudes in a vertical direction over the profile body, characterized in that the two partial areas (23, 24) of the surface of the second profile section of the profile body are designed against the horizontal and inclined toward each other, wherein the first partial area is formed with a downward gradient toward the first profile section and the second partial area with a downward gradient toward the rear end face of the profile body, and wherein the second partial area extends up to a vertical rear end face of the profile body.
A computer-implemented method determining a blood supply and a blood demand of a patient, the method comprising: receiving patient-specific image data obtained using an imaging device, wherein at least a portion of the patient-specific image data corresponds to at least a portion of a patient's heart, comprising the myocardium and the coronary arteries; receiving a patient-specific three-dimensional model of vessel geometry of at least a portion of a coronary artery, wherein the model is based on the received patient-specific image data; calculating a volume of said at least a portion of the coronary artery from the patient-specific three-dimensional model; calculating a mass of the imaged myocardium from a patient-specific model of the heart; determining a supply-to-demand metric quantifying the relationship between a coronary blood supply and a myocardial blood demand in the patient, said supply-to-demand metric being the ratio of the volume of said at least a portion of the coronary artery to the myocardial mass; based on the supply-to-demand metric, determining whether a mismatch exists between the coronary blood supply and the myocardial blood demand; and based on the determination whether the mismatch exists, updating a patient-specific simulation of blood flow through at least the portion of the coronary artery by modifying at least one parameter of said simulation. receiving patient-specific image data obtained using an imaging device, wherein at least a portion of the patient-specific image data corresponds to at least a portion of a patient's heart, comprising the myocardium and the coronary arteries; receiving a patient-specific three-dimensional model of vessel geometry of at least a portion of a coronary artery, wherein the model is based on the received patient-specific image data; calculating a volume of said at least a portion of the coronary artery from the patient-specific three-dimensional model; calculating a mass of the imaged myocardium from a patient-specific model of the heart; determining a supply-to-demand metric quantifying the relationship between a coronary blood supply and a myocardial blood demand in the patient, said supply-to-demand metric being the ratio of the volume of said at least a portion of the coronary artery to the myocardial mass; based on the supply-to-demand metric, determining whether a mismatch exists between the coronary blood supply and the myocardial blood demand; and based on the determination whether the mismatch exists, updating a patient-specific simulation of blood flow through at least the portion of the coronary artery by modifying at least one parameter of said simulation.
A mono-carbonyl analog of curcumin having a formula of for use in the treatment of a neurodegenerative disease selected from the group consisting of Parkinson's disease, Huntington's disease and Creutzfeldt-Jakob disease.