mhurhangee/ep-ind-claims huggingface dataset:
A power converter comprising a PWM rectifying circuit, a PWM inverter circuit, and a common mode filter including a common mode choke coil and a capacitor, wherein a relation between a carrier frequency of the PWM rectifying circuit and a carrier frequency of the PWM inverter circuit is set so that the common mode choke coil (Lcl) does not bring about magnetic saturation, wherein the carrier frequency of the PWM rectifying circuit is set at an odd-multiple of the carrier frequency of the PWM inverter circuit.
A humoral immunity induction-promoting composition for use in a method for inducing humoral immunity, comprising: a humoral immunity induction promoter whose active ingredient is a thrombosis treatment drug, which is a thrombogenesis-suppressing compound, wherein the thrombogenesis-suppressing compound is at least one of an anticoagulant or an antiplatelet, the anticoagulant being at least one selected from the group consisting of rivaroxaban, apixaban, argatroban, nafamostat, camostat, and gabexate, the antiplatelet being tirofiban. a humoral immunity induction promoter whose active ingredient is a thrombosis treatment drug, which is a thrombogenesis-suppressing compound, wherein the thrombogenesis-suppressing compound is at least one of an anticoagulant or an antiplatelet, the anticoagulant being at least one selected from the group consisting of rivaroxaban, apixaban, argatroban, nafamostat, camostat, and gabexate, the antiplatelet being tirofiban.
A method for preparing graft material comprising: a. selecting a delivery syringe comprising a proximal plunger, a distal open bore, and a filter assembly comprising a filter and a nozzle, the filter being removably coupled to the syringe adjacent to the distal open bore, and the syringe having graft material and cryopreservative therein; b. determining a graft material:fluid ratio; c. depressing the plunger to expel the cryopreservative solution from the delivery syringe, through the filter, and out the nozzle, wherein the graft material is maintained within the syringe; d. inserting a distal end of the syringe into a receptacle containing a wash solution and drawing the plunger to aspirate the wash solution into the syringe; e. inverting the syringe to mix the wash solution with the graft material; f. depressing the plunger to expel the wash solution; g. d. through f. to wash the graft material; h. reconstituting the graft material by inserting the distal end of the syringe into a second receptacle containing a reconstitution fluid and drawing the plunger to aspirate the reconstitution fluid to generate the graft material with the predetermined graft material:fluid ratio; and i. removing the filter assembly from the syringe to expose the graft material to the distal open bore of the syringe. a. selecting a delivery syringe comprising a proximal plunger, a distal open bore, and a filter assembly comprising a filter and a nozzle, the filter being removably coupled to the syringe adjacent to the distal open bore, and the syringe having graft material and cryopreservative therein; b. determining a graft material:fluid ratio; c. depressing the plunger to expel the cryopreservative solution from the delivery syringe, through the filter, and out the nozzle, wherein the graft material is maintained within the syringe; d. inserting a distal end of the syringe into a receptacle containing a wash solution and drawing the plunger to aspirate the wash solution into the syringe; e. inverting the syringe to mix the wash solution with the graft material; f. depressing the plunger to expel the wash solution; g. d. through f. to wash the graft material; h. reconstituting the graft material by inserting the distal end of the syringe into a second receptacle containing a reconstitution fluid and drawing the plunger to aspirate the reconstitution fluid to generate the graft material with the predetermined graft material:fluid ratio; and i. removing the filter assembly from the syringe to expose the graft material to the distal open bore of the syringe.
Methanization device, characterized in that it comprises: - a methanization reactor comprising at least one compartment into which a fermentation substrate is inserted, producing an atmosphere comprising at least methane and ammonia; - a unit for extracting the atmosphere from at least one compartment, said unit comprising: - a first duct for extracting atmosphere from at least one compartment; - a washing column into which the first duct emerges and which comprises at least one injector of a purification liquid; - at least one second duct for extracting the washed gas whose ammonia concentration has decreased and for injecting said gas into at least one compartment. - a methanization reactor comprising at least one compartment into which a fermentation substrate is inserted, producing an atmosphere comprising at least methane and ammonia; - a unit for extracting the atmosphere from at least one compartment, said unit comprising: - a first duct for extracting atmosphere from at least one compartment; - a washing column into which the first duct emerges and which comprises at least one injector of a purification liquid; - at least one second duct for extracting the washed gas whose ammonia concentration has decreased and for injecting said gas into at least one compartment. - a first duct for extracting atmosphere from at least one compartment; - a washing column into which the first duct emerges and which comprises at least one injector of a purification liquid; - at least one second duct for extracting the washed gas whose ammonia concentration has decreased and for injecting said gas into at least one compartment.
An audio processing device (200, 400) for performing combined active noise cancellation and noise compensation in a headphone, comprising: a selector (206, 406) configured to select one of a plurality of first transfer functions based on at least one feature of at least one of an external noise and a content audio signal representing a sound to be reproduced through the headphone; and a noise compensation unit (201, 401) configured to compute a second audio signal by applying the selected first transfer function to a first audio signal; and derive gains for the noise compensation at least based on the second audio signal, and wherein the at least one feature can be used to distinguish at least two of the first transfer functions, each of the first transfer functions is configured to transform the first audio signal to the second audio signal which is assumed as representing a version of the sound represented by the first audio signal, which arrives at an eardrum of a listener wearing the headphone, and the first audio signal is the content audio signal. a selector (206, 406) configured to select one of a plurality of first transfer functions based on at least one feature of at least one of an external noise and a content audio signal representing a sound to be reproduced through the headphone; and a noise compensation unit (201, 401) configured to compute a second audio signal by applying the selected first transfer function to a first audio signal; and derive gains for the noise compensation at least based on the second audio signal, and compute a second audio signal by applying the selected first transfer function to a first audio signal; and derive gains for the noise compensation at least based on the second audio signal, and wherein the at least one feature can be used to distinguish at least two of the first transfer functions, each of the first transfer functions is configured to transform the first audio signal to the second audio signal which is assumed as representing a version of the sound represented by the first audio signal, which arrives at an eardrum of a listener wearing the headphone, and the first audio signal is the content audio signal.
A spinning machine including a plurality of spinning units, each spinning unit having a pneumatic spinning device which twists a fiber bundle by air, the spinning machine comprising: a compressed air feeding device which feeds compressed air, a first air pipe which guides the air fed by the compressed air feeding device, the first air pipe being configured to supply the air to each of the pneumatic spinning devices to perform the spinning operation, and a cleanser supplying device which adds cleanser to the air flowing through the first air pipe, characterized in that the cleanser supplying device adds the cleanser upstream of a branch point where the air flowing through the first air pipe branches off to each of the pneumatic spinning devices. a compressed air feeding device which feeds compressed air, a first air pipe which guides the air fed by the compressed air feeding device, the first air pipe being configured to supply the air to each of the pneumatic spinning devices to perform the spinning operation, and a cleanser supplying device which adds cleanser to the air flowing through the first air pipe, characterized in that the cleanser supplying device adds the cleanser upstream of a branch point where the air flowing through the first air pipe branches off to each of the pneumatic spinning devices.
An electronic device housing comprising: a bottom cover; a top cover; a partition structure that is disposed in a space divided by the bottom cover and the top cover and has an opening; and a heat generation member (D1,D2), characterized in that the partition structure is joined to the bottom cover or the top cover to form a hollow structure, and the heat generation member (D1,D2) is disposed on a surface of the partition structure on the hollow structure side.
A system for the transfer of fluid in a vehicle, whereby the system comprises: - a main tank, - a secondary tank, - a pump, - a first valve arrangement, - a first fluid pathway that connects a source of pressurised air with the valve arrangement, - a second fluid pathway that connects the valve arrangement and the secondary tank, - a third fluid pathway that connects the valve arrangement and the main tank, whereby the pump is arranged at least partially in the first and the third fluid pathways; whereby the system, as a response to a control signal, is arranged to be placed into a first condition, in which the first valve arrangement is in a first condition in which air under pressure flows through the first fluid pathway from the source of pressurised air to the pump, whereby the pump transfers the fluid from the secondary tank to the main tank through the valve arrangement and through the second and third fluid pathways, or a second condition, in which the first valve arrangement is in a second condition in which air under pressure flows through the first and second fluid pathways from the source of pressurised air through the valve arrangement to the secondary tank, whereby the pump transfers a flow of air in the third fluid pathway from the valve arrangement to the main tank. - a main tank, - a secondary tank, - a pump, - a first valve arrangement, - a first fluid pathway that connects a source of pressurised air with the valve arrangement, - a second fluid pathway that connects the valve arrangement and the secondary tank, - a third fluid pathway that connects the valve arrangement and the main tank, whereby the pump is arranged at least partially in the first and the third fluid pathways; a first condition, in which the first valve arrangement is in a first condition in which air under pressure flows through the first fluid pathway from the source of pressurised air to the pump, whereby the pump transfers the fluid from the secondary tank to the main tank through the valve arrangement and through the second and third fluid pathways, or a second condition, in which the first valve arrangement is in a second condition in which air under pressure flows through the first and second fluid pathways from the source of pressurised air through the valve arrangement to the secondary tank, whereby the pump transfers a flow of air in the third fluid pathway from the valve arrangement to the main tank.
A homeopathic formulation for oral care comprising a 8X dilution of a tincture of Hepar sulphuris calcareum, a 3X dilution of a tincture of Calendula officinalis, a 5X dilution of a tincture of Chamomilla, a 3X dilution of a tincture of Aconitum napellus, a 3X dilution of a tincture of Echinacea angustifolia, a 3X dilution of a tincture of Echinacea purpurea, a 12X dilution of a tincture of Ruta graveolens, a 3X, 6X, 18X dilution of a tincture of Arnica montana, a 10X dilution of a tincture of Mercurius vivus, a 10X dilution of a tincture of Hypericum, a 30X dilution of a tincture of Gelsemium, and a 30X dilution of a tincture of Ignatia amara.
Connection of high-pressure-medium-conducting components of an injection device for internal combustion engines, comprising a first component and a second component, the surfaces of which are hardened and which have mutually facing sealing faces, wherein the mutually facing sealing faces (4, 5) of the components (1, 2) interact with sealing faces of an intermediate piece that is arranged between the first and the second component and has a through-bore, said intermediate piece being less hard than the sealing faces (4, 5) of the first and second component (1, 2), wherein, of two sealing faces that interact with one another, in each case one sealing face has a sealing edge, characterized in that the first and the second component (1, 2), including their mutually facing sealing faces (4, 5), are nitrided.
Process for preparing polyether carbonate polyols by addition of alkylene oxides and carbon dioxide onto H-functional starter substance in the presence of a double metal cyanide catalyst or in the presence of a metal complex catalyst based on the metals zinc and/or cobalt, wherein (γ) alkylene oxide and carbon dioxide are added onto H-functional starter substance in a reactor at a total (absolute) pressure of 5 to 120 bar in the presence of a double metal cyanide catalyst or in the presence of a metal complex catalyst based on the metals zinc and/or cobalt to obtain a reaction mixture comprising the polyether carbonate polyol, (δ) the reaction mixture obtained in step (γ) remains in the reactor or is optionally transferred continuously into a postreactor at an initial total (absolute) pressure of 5 to 120 bar, wherein the content of free alkylene oxide in the reaction mixture is reduced in each case by way of a postreaction, and wherein the total (absolute) pressure during step (δ) can decrease by up to 50%, and (ζ) the content of readily volatile constituents in the reaction mixture obtained is thermally reduced at a temperature of 80°C to 200°C, characterized in that (ε) prior to step (ζ), the reaction mixture resulting from step (δ) is brought to a total (absolute) pressure of ≤ 2.0 bar and then held at a temperature of 80 to 180°C for a residence time of at least 0.5 h, and after this residence time has elapsed 5 to 100 ppm of component K is added to the resulting mixture, wherein component K is selected from at least one compound containing a phosphorus-oxygen-hydrogen group. (γ) alkylene oxide and carbon dioxide are added onto H-functional starter substance in a reactor at a total (absolute) pressure of 5 to 120 bar in the presence of a double metal cyanide catalyst or in the presence of a metal complex catalyst based on the metals zinc and/or cobalt to obtain a reaction mixture comprising the polyether carbonate polyol, (δ) the reaction mixture obtained in step (γ) remains in the reactor or is optionally transferred continuously into a postreactor at an initial total (absolute) pressure of 5 to 120 bar, wherein the content of free alkylene oxide in the reaction mixture is reduced in each case by way of a postreaction, and wherein the total (absolute) pressure during step (δ) can decrease by up to 50%, and (ζ) the content of readily volatile constituents in the reaction mixture obtained is thermally reduced at a temperature of 80°C to 200°C, characterized in that (ε) prior to step (ζ), the reaction mixture resulting from step (δ) is brought to a total (absolute) pressure of ≤ 2.0 bar and then held at a temperature of 80 to 180°C for a residence time of at least 0.5 h, and after this residence time has elapsed 5 to 100 ppm of component K is added to the resulting mixture, wherein component K is selected from at least one compound containing a phosphorus-oxygen-hydrogen group.
A method of operation of a wireless device in a cellular communications system, comprising: receiving a first downlink control information from a radio access node in a first subframe, T, wherein the downlink control information comprises an indication of a Hybrid Automatic Repeat Request, HARQ, timing offset, K; wherein the timing offset K is such that a first HARQ feedback for a corresponding downlink transmission is to occur in a subframe T+K; receiving a second downlink control information from a radio access node in a second subframe, T2, wherein the second downlink control information comprises an indication of a second Hybrid Automatic Repeat Request, HARQ, timing offset, K2; wherein the timing offset K2 is such that a second HARQ feedback for a corresponding downlink transmission is to occur in the subframe, T+K; and transmitting the downlink HARQ feedbacks to the radio access node in the subframe T+K. receiving a first downlink control information from a radio access node in a first subframe, T, wherein the downlink control information comprises an indication of a Hybrid Automatic Repeat Request, HARQ, timing offset, K; wherein the timing offset K is such that a first HARQ feedback for a corresponding downlink transmission is to occur in a subframe T+K; receiving a second downlink control information from a radio access node in a second subframe, T2, wherein the second downlink control information comprises an indication of a second Hybrid Automatic Repeat Request, HARQ, timing offset, K2; wherein the timing offset K2 is such that a second HARQ feedback for a corresponding downlink transmission is to occur in the subframe, T+K; and transmitting the downlink HARQ feedbacks to the radio access node in the subframe T+K.
A method for controlling data flow in a wireless communication system, comprising: receiving data in a first data processing module, wherein the first data processing module includes a joint detection accelerator (106; 208, 210) implemented in hardware; enabling a second data processing module when at least one signal time slot of the received data comprises data that complies with a first data transmission standard, wherein the second data processing module includes a joint detection post-processing module implemented in hardware; exchanging signals between the first data processing module and a processor executing software to indicate that the first data processing module is ready to transmit data to the second data processing module, and to determine that a first software configuration of the second data processing module has been completed; processing the data in the second data processing module for the at least one signal time slot; and enabling a third data processing module upon a completion of processing at least one data block in the second data processing module, determining that a second software configuration of the third data processing module has been completed and processing said at least one data block, the at least one data block comprising multiple signal time slots. receiving data in a first data processing module, wherein the first data processing module includes a joint detection accelerator (106; 208, 210) implemented in hardware; enabling a second data processing module when at least one signal time slot of the received data comprises data that complies with a first data transmission standard, wherein the second data processing module includes a joint detection post-processing module implemented in hardware; exchanging signals between the first data processing module and a processor executing software to indicate that the first data processing module is ready to transmit data to the second data processing module, and to determine that a first software configuration of the second data processing module has been completed; processing the data in the second data processing module for the at least one signal time slot; and enabling a third data processing module upon a completion of processing at least one data block in the second data processing module, determining that a second software configuration of the third data processing module has been completed and processing said at least one data block, the at least one data block comprising multiple signal time slots.
A method for producing a packaging, comprising the following steps: providing a prepunched material sheet from which a subarea has been punched out incompletely such that the subarea is connected to a residual area of the material sheet through a plurality of retaining lugs; positioning the prepunched material sheet on top of a female die part of a forming tool such that the subarea of the material sheet covers an opening of a forming cavity of the female die part at least partially; clamping the residual area of the material sheet in position against a contact surface of the female die part; sucking the subarea of the material sheet by means of a vacuum onto an insert, which is vertically movable in the forming cavity of the female die part, at a starting position of the vertically movable insert; and moving the vertically movable insert from the starting position along a displacement direction further into the forming cavity, whereby the subarea of the material sheet is drawn into the forming cavity and thus formed into a packaging trough. providing a prepunched material sheet from which a subarea has been punched out incompletely such that the subarea is connected to a residual area of the material sheet through a plurality of retaining lugs; positioning the prepunched material sheet on top of a female die part of a forming tool such that the subarea of the material sheet covers an opening of a forming cavity of the female die part at least partially; clamping the residual area of the material sheet in position against a contact surface of the female die part; sucking the subarea of the material sheet by means of a vacuum onto an insert, which is vertically movable in the forming cavity of the female die part, at a starting position of the vertically movable insert; and moving the vertically movable insert from the starting position along a displacement direction further into the forming cavity, whereby the subarea of the material sheet is drawn into the forming cavity and thus formed into a packaging trough.
A loader for moving a mattress between locations, the loader comprising two elongate members of tubular construction (31,32), wherein said elongate members (31,32) are arranged parallel to each other and linked together by a plurality of flexible strops, characterised in that the strops are formed of a webbing material.