mhurhangee/patent-ind-claim-en huggingface dataset:
A method for predistorting an input signal of an amplifier device comprising: evaluating a selection criterion for a computational model of the amplifier device , the computational model being configured to compute an output signal of the amplifier device based on the input signal of the amplifier device , wherein the selection criterion depends on at least one of an available computing power and an available time budget defining a maximum time available for predistorting the input signal ; dynamically selecting between a first computational model and a second computational model based on the evaluated selection criterion during processing of the input signal , wherein the first computational model has a higher complexity than the second computational model; generating predistortion coefficients based on the selected computational model; and predistorting the input signal using the predistortion coefficients. evaluating a selection criterion for a computational model of the amplifier device , the computational model being configured to compute an output signal of the amplifier device based on the input signal of the amplifier device , wherein the selection criterion depends on at least one of an available computing power and an available time budget defining a maximum time available for predistorting the input signal ; dynamically selecting between a first computational model and a second computational model based on the evaluated selection criterion during processing of the input signal , wherein the first computational model has a higher complexity than the second computational model; generating predistortion coefficients based on the selected computational model; and predistorting the input signal using the predistortion coefficients.
Cams for a camshaft, with at least two partial cams arranged one behind the other axially along a longitudinal axis (L) and with an undercut located between the two partial cams , whereby the at least two partial cams , each having running surfaces lying on the outside in a radial direction (R) and having variable running surface contours, whereby the running surface contours describe a respective course of the associated running surface in radial direction (R) around the longitudinal axis (L), wherein the undercut has a profile with a contour (10"), wherein the profile describes a course of the undercut along the longitudinal axis (L), whereby the contour (10") describes a course of the profile in the radial direction (R) around the longitudinal axis (L), and wherein the running surface contours of the at least two partial cams differ from one another, Characterized by the fact that the contour (10") is variable in that the undercut is different from a circular undercut, that the contour (10") is dependent on the running surface contours, and that the contour (10") is dependent on that running surface contour which has a smaller radial distance to the longitudinal axis (L) than the other running surface contour, in that the contour (10") follows that projection of the partial cams onto the plane of the undercut , which is at the smallest distance from the longitudinal axis (L). with at least two partial cams arranged one behind the other axially along a longitudinal axis (L) and with an undercut located between the two partial cams , whereby the at least two partial cams , each having running surfaces lying on the outside in a radial direction (R) and having variable running surface contours, whereby the running surface contours describe a respective course of the associated running surface in radial direction (R) around the longitudinal axis (L), wherein the undercut has a profile with a contour (10"), wherein the profile describes a course of the undercut along the longitudinal axis (L), whereby the contour (10") describes a course of the profile in the radial direction (R) around the longitudinal axis (L), and wherein the running surface contours of the at least two partial cams differ from one another, Characterized by the fact that the contour (10") is variable in that the undercut is different from a circular undercut, that the contour (10") is dependent on the running surface contours, and that the contour (10") is dependent on that running surface contour which has a smaller radial distance to the longitudinal axis (L) than the other running surface contour, in that the contour (10") follows that projection of the partial cams onto the plane of the undercut , which is at the smallest distance from the longitudinal axis (L).
Method of preparing organic wastes, such as biomass or wastewater, for further processing, especially for gasification, wherein - in a first process stage the organic wastes are introduced into an aerobic fermenter and admixed with an inoculant and - in a third process stage the CO 2 formed in the aerobic fermenter is supplied to a gas reformer in which there is a conversion to methane gas, wherein - connected between the aerobic fermenter and the gas reformer there is also an anaerobic fermenter , and process water is transferred from the aerobic fermenter to the anaerobic fermenter , is admixed with an inoculum and is degraded in a second process stage to give service water, wherein the CO 2 formed in the anaerobic fermenter is likewise supplied to the gas reformer in which there is a conversion to methane gas. - in a first process stage the organic wastes are introduced into an aerobic fermenter and admixed with an inoculant and - in a third process stage the CO 2 formed in the aerobic fermenter is supplied to a gas reformer in which there is a conversion to methane gas, wherein - connected between the aerobic fermenter and the gas reformer there is also an anaerobic fermenter , and process water is transferred from the aerobic fermenter to the anaerobic fermenter , is admixed with an inoculum and is degraded in a second process stage to give service water, wherein the CO 2 formed in the anaerobic fermenter is likewise supplied to the gas reformer in which there is a conversion to methane gas.
A method for manufacturing a ring-shaped bone grafting substitute , the method comprising: a biodegradable polymer providing step of providing a biodegradable polymer; a molding material providing step (S200) of providing a molding material by mixing the biodegradable polymer with a bone material, wherein the bone material and the biodegradable polymer are mixed such that a weight ratio of bone material/biodegradable polymer is 60/40 to 95/5; a molding material injection step (S300) of injecting the molding material into a ring-shaped mold having a ring shape to form a hole at a center; and a ring-shaped bone grafting substitute molding step (S400) of molding a ring-shaped bone grafting substitute having a ring shape by freeze-drying the molding material injected into the ring-shaped mold at a temperature lower than a predetermined reference temperature. a biodegradable polymer providing step of providing a biodegradable polymer; a molding material providing step (S200) of providing a molding material by mixing the biodegradable polymer with a bone material, wherein the bone material and the biodegradable polymer are mixed such that a weight ratio of bone material/biodegradable polymer is 60/40 to 95/5; a molding material injection step (S300) of injecting the molding material into a ring-shaped mold having a ring shape to form a hole at a center; and a ring-shaped bone grafting substitute molding step (S400) of molding a ring-shaped bone grafting substitute having a ring shape by freeze-drying the molding material injected into the ring-shaped mold at a temperature lower than a predetermined reference temperature.
A solid-state battery comprising: a positive-electrode layer ; a negative-electrode layer ; and a lithium-ion-conducting solid electrolyte layer disposed between the positive-electrode layer and the negative-electrode layer , wherein the positive-electrode layer contains a positive-electrode active material and a complex hydride solid electrolyte, the positive-electrode active material is a sulfur-based electrode active material selected from the group consisting of sulfur-polyacrylonitrile, S-carbon composite, and NiS, and the solid electrolyte layer contains a complex hydride solid electrolyte. a positive-electrode layer ; a negative-electrode layer ; and a lithium-ion-conducting solid electrolyte layer disposed between the positive-electrode layer and the negative-electrode layer , wherein the positive-electrode layer contains a positive-electrode active material and a complex hydride solid electrolyte, the positive-electrode active material is a sulfur-based electrode active material selected from the group consisting of sulfur-polyacrylonitrile, S-carbon composite, and NiS, and the solid electrolyte layer contains a complex hydride solid electrolyte.
Process for the concomitant synthesis of poly(3,4-ethylenedioxythiophene) (PEDOT) and of electrolytic (co)polymer, comprising the following successive steps: - preparation of a solution of water and of ionic monomer chosen from styrene sulfonate, acrylic acid salts, compounds bearing a phosphonyl imide function or a sulfonyl imide function, with stirring at a temperature of between 15 and 25°C in a reactor, - introduction of a solution of 3,4-ethylenedioxythiophene (EDOT) predissolved in a solvent, - stirring until dissolved, - introduction of a solvent-nonionic monomer dispersion chosen from styrene, substituted styrenes and alkyl (meth)acrylates, - stirring until the resulting dispersion has turned white, which is a sign of the formation of the latex seeds, - heating to a temperature of between 35 and 55°C, - introduction of a solution of water-soluble initiator, chosen non-limitingly from persulfates, and of the remaining EDOT, - continuation of the stirring and heating in parallel with the continuous or semi-continuous introduction of the solution of the remaining EDOT and of initiator. - preparation of a solution of water and of ionic monomer chosen from styrene sulfonate, acrylic acid salts, compounds bearing a phosphonyl imide function or a sulfonyl imide function, with stirring at a temperature of between 15 and 25°C in a reactor, - introduction of a solution of 3,4-ethylenedioxythiophene (EDOT) predissolved in a solvent, - stirring until dissolved, - introduction of a solvent-nonionic monomer dispersion chosen from styrene, substituted styrenes and alkyl (meth)acrylates, - stirring until the resulting dispersion has turned white, which is a sign of the formation of the latex seeds, - heating to a temperature of between 35 and 55°C, - introduction of a solution of water-soluble initiator, chosen non-limitingly from persulfates, and of the remaining EDOT, - continuation of the stirring and heating in parallel with the continuous or semi-continuous introduction of the solution of the remaining EDOT and of initiator.
A communication network , comprising a video server , adapted to generate a multicast video signal, and a first router , wherein the communication network is operated by a first communication provider, and wherein the first router is adapted to - receive the multicast video signal, - generate a plurality of unicast video signals from the multicast video signal, and - provide each of the plurality of unicast video signals to one of a first plurality of user devices (50 - 55), connected to a first further communication network , through at least a first further router , which is part of the first further communication network , wherein the first further communication network is operated by a second communication provider, characterized in that the first further router is an aggregation switch. - receive the multicast video signal, - generate a plurality of unicast video signals from the multicast video signal, and - provide each of the plurality of unicast video signals to one of a first plurality of user devices (50 - 55), connected to a first further communication network , through at least a first further router , which is part of the first further communication network , wherein the first further communication network is operated by a second communication provider, characterized in that the first further router is an aggregation switch.
A cartridge reader configured to carry out a diagnostic test on a fluid sample contained within a fluidic cartridge, wherein the cartridge comprises first, second and third collapsible blisters (130a-c) containing at least one reagent for use in the diagnostic test, the cartridge reader comprising: an upper clamp , occupying a fixed position relative to the reader and a lower clamp , movable relative to the upper clamp, and wherein the upper clamp and the lower clamp are configured to receive and hold a fluidic cartridge therebetween; first, second and third blister actuators (278a-c) mounted on the upper clamp, and for aligning with first, second and third collapsible blisters of a fluidic cartridge inserted into the reader, wherein the first, second and third blister actuators are movable relative to the upper clamp, between a first position in which the blister actuators are spaced apart from the collapsible blisters comprised on the fluidic cartridge received between the upper and lower clamps, and a second position in which the blister actuators depress the collapsible blisters, thereby collapsing the blisters and ejecting the reagents contained therein into a channel in the fluidic cartridge, wherein each of the first, second and third blister actuators comprises a housing portion from which extends a stem portion having mounted on its end a tip portion for contacting the collapsible blisters, and wherein the tip portions of the first and second blister actuators have outwardly-extending curved profiles and the tip portion of the third blister actuator has a substantially flat profile. an upper clamp , occupying a fixed position relative to the reader and a lower clamp , movable relative to the upper clamp, and wherein the upper clamp and the lower clamp are configured to receive and hold a fluidic cartridge therebetween; first, second and third blister actuators (278a-c) mounted on the upper clamp, and for aligning with first, second and third collapsible blisters of a fluidic cartridge inserted into the reader, wherein the first, second and third blister actuators are movable relative to the upper clamp, between a first position in which the blister actuators are spaced apart from the collapsible blisters comprised on the fluidic cartridge received between the upper and lower clamps, and a second position in which the blister actuators depress the collapsible blisters, thereby collapsing the blisters and ejecting the reagents contained therein into a channel in the fluidic cartridge, wherein each of the first, second and third blister actuators comprises a housing portion from which extends a stem portion having mounted on its end a tip portion for contacting the collapsible blisters, and wherein the tip portions of the first and second blister actuators have outwardly-extending curved profiles and the tip portion of the third blister actuator has a substantially flat profile.
A method of manufacturing a micro-LED, comprising the steps of: forming an n-doped connecting layer of III-nitride material over a porous region of III-nitride material; forming an electrically-insulating mask layer on the n-doped connecting layer removing a portion of the mask layer to expose an exposed region of the n-doped connecting layer; and forming an LED structure (3-8) on the exposed region of the n-doped connecting layer forming an n-doped connecting layer of III-nitride material over a porous region of III-nitride material; forming an electrically-insulating mask layer on the n-doped connecting layer removing a portion of the mask layer to expose an exposed region of the n-doped connecting layer; and forming an LED structure (3-8) on the exposed region of the n-doped connecting layer
Emergency procedure operated by a control device of a TV , to interact with a network of media contents and/or a communication network , said control device being adapted to send and/or receive a media content, by a notice, a message, an access and/or a telephone call, characterized in that the control device comprises an HDMI connection , with respect to said TV , in order to start the emergency procedure, on basis of sending and/or receiving a default media content, with respect to a pre-ordered list of end-users devices, wherein said emergency procedure comprises: when standing by, the TV is switched-on by a call coming from a device of the pre-ordered list of devices and when the TV is switched on, a visualization of media content appears, as a result of a change of source, from TV to HDMI.
Printing plate for transferring a printing ink to a rubber blanket for printing on an object surface , the printing plate having a plurality of elevations which, starting from a base surface of the printing plate , extend in a direction orthogonal to the base surface , each elevation having a printing surface to which the printing ink can be applied, with which the printing plate contacts the rubber blanket for transferring the printing ink , characterized in that at least one of the printing surfaces comprises a first region with a flat surface and at least one second region with a concave surface , wherein the first region completely encloses the at least one second region .
A method for transmitting signal, wherein the method comprising: receiving , by a terminal device, downlink control information, DCI from a base station, the DCI includes a precoding matrix index, the precoding matrix index belongs to a first index set, wherein, the precoding matrix index is used to determine a precoding matrix for transmitting data by the terminal device, each index in the first index set corresponds to a precoding matrix in a first precoding matrix set, the first precoding matrix set is a subset of a second precoding matrix set, and any precoding matrix index value in the first index set is less than or equal to a quantity of precoding matrices comprised in the first precoding matrix set; and transmitting , by the terminal device, the data according to the precoding matrix index; wherein before the receiving, by the terminal device, the precoding matrix index determined by the base station in the first index set, the method further comprises: receiving, by the terminal device, information of the first precoding matrix set from the base station, wherein the information of the first precoding matrix set indicates a subset of the second precoding matrix set. receiving , by a terminal device, downlink control information, DCI from a base station, the DCI includes a precoding matrix index, the precoding matrix index belongs to a first index set, wherein, the precoding matrix index is used to determine a precoding matrix for transmitting data by the terminal device, each index in the first index set corresponds to a precoding matrix in a first precoding matrix set, the first precoding matrix set is a subset of a second precoding matrix set, and any precoding matrix index value in the first index set is less than or equal to a quantity of precoding matrices comprised in the first precoding matrix set; and transmitting , by the terminal device, the data according to the precoding matrix index; wherein before the receiving, by the terminal device, the precoding matrix index determined by the base station in the first index set, the method further comprises: receiving, by the terminal device, information of the first precoding matrix set from the base station, wherein the information of the first precoding matrix set indicates a subset of the second precoding matrix set.
Multilayer tactile sensor with a first layer comprising a first electrode, a second layer comprising a second electrode and an intermediate layer of pressure-sensitive material that is disposed between the first and the second layer and spaces apart the first electrode from the second electrode , and a fastening means for fixing the first and second electrode in relation to each other, wherein at least the first electrode is made of electrically conductive yarn and extends along a defined longitudinal direction (L), and characterized in that the fastening means comprises at least a first seam that extends along the longitudinal direction (L) and comprises at least one thread, which is being fed repeatedly multiple times through the pressure-sensitive material in order to fix the first electrode in a defined position.
A refrigerator having a freezer compartment and a refrigerator compartment , comprising: an icemaker provided to the freezer compartment or a freezer compartment door configured to open/close the freezer compartment ; a dispenser provided to a refrigerator compartment door configured to open/close the refrigerator compartment ; a single water tank in the refrigerator provided to the refrigerator compartment door , the water tank having an inlet for putting in water and an outlet for supplying water to the dispenser ; a pump configured to supply the water supplied from the water tank to the icemaker ; and a slide cap for supplying water to the pump , and the slide cap is movably provided to the water tank so as to be selectively coupled to a passage connected to the pump . an icemaker provided to the freezer compartment or a freezer compartment door configured to open/close the freezer compartment ; a dispenser provided to a refrigerator compartment door configured to open/close the refrigerator compartment ; a single water tank in the refrigerator provided to the refrigerator compartment door , the water tank having an inlet for putting in water and an outlet for supplying water to the dispenser ; a pump configured to supply the water supplied from the water tank to the icemaker ; and a slide cap for supplying water to the pump , and the slide cap is movably provided to the water tank so as to be selectively coupled to a passage connected to the pump .
A turbocharger comprising: a turbine connected via a shaft to a compressor; and a sensor apparatus , the sensor apparatus comprising: a housing having an inner perimeter which defines an area through which gas may flow, the housing being provided with: a first chamber which extends around the area through which gas may flow, an entrance being distributed around the first chamber ; and a second chamber which extends around the area through which gas may flow, an exit being distributed around the second chamber ; the first chamber being arranged to be upstream of the second chamber in use; wherein the sensor apparatus further comprises one or more sensors arranged to measure a pressure difference between pressure in the first chamber and pressure in the second chamber ; wherein the sensor apparatus is provided in an inlet of the compressor. a turbine connected via a shaft to a compressor; and a sensor apparatus , the sensor apparatus comprising: a housing having an inner perimeter which defines an area through which gas may flow, the housing being provided with: a first chamber which extends around the area through which gas may flow, an entrance being distributed around the first chamber ; and a second chamber which extends around the area through which gas may flow, an exit being distributed around the second chamber ; the first chamber being arranged to be upstream of the second chamber in use; wherein the sensor apparatus further comprises one or more sensors arranged to measure a pressure difference between pressure in the first chamber and pressure in the second chamber ; a first chamber which extends around the area through which gas may flow, an entrance being distributed around the first chamber ; and a second chamber which extends around the area through which gas may flow, an exit being distributed around the second chamber ; the first chamber being arranged to be upstream of the second chamber in use; wherein the sensor apparatus further comprises one or more sensors arranged to measure a pressure difference between pressure in the first chamber and pressure in the second chamber ; wherein the sensor apparatus is provided in an inlet of the compressor.