mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing an electrode for use in a non-aqueous electrolyte secondary battery including: a current collector; and an electrode active material layer including an electrode active material, arranged on a surface of the current collector, the method comprising: preparing a dispersion by mixing the electrode active material, a binder formed of polyvinylidene fluoride (PVdF), a first solvent in which the polyvinylidene fluoride (PVdF) is not dissolved, and a second solvent in which the polyvinylidene fluoride (PVdF) can be dissolved; preparing an electrode active material slurry including the first solvent by removing the second solvent from the dispersion; and forming a coating film by coating the electrode active material slurry on the surface of the current collector, wherein the second solvent is a solvent whose vapor pressure is higher than that of the first solvent; wherein the electrode slurry coated on a current collector contains a first solvent, wherein the method is a method not comprising a step of drying the coating film. a current collector; and an electrode active material layer including an electrode active material, arranged on a surface of the current collector, the method comprising: preparing a dispersion by mixing the electrode active material, a binder formed of polyvinylidene fluoride (PVdF), a first solvent in which the polyvinylidene fluoride (PVdF) is not dissolved, and a second solvent in which the polyvinylidene fluoride (PVdF) can be dissolved; preparing an electrode active material slurry including the first solvent by removing the second solvent from the dispersion; and forming a coating film by coating the electrode active material slurry on the surface of the current collector, wherein the second solvent is a solvent whose vapor pressure is higher than that of the first solvent; wherein the electrode slurry coated on a current collector contains a first solvent, wherein the method is a method not comprising a step of drying the coating film. preparing a dispersion by mixing the electrode active material, a binder formed of polyvinylidene fluoride (PVdF), a first solvent in which the polyvinylidene fluoride (PVdF) is not dissolved, and a second solvent in which the polyvinylidene fluoride (PVdF) can be dissolved; preparing an electrode active material slurry including the first solvent by removing the second solvent from the dispersion; and forming a coating film by coating the electrode active material slurry on the surface of the current collector, wherein the second solvent is a solvent whose vapor pressure is higher than that of the first solvent; wherein the electrode slurry coated on a current collector contains a first solvent, wherein the method is a method not comprising a step of drying the coating film.
A compound that is: 2-((1H-pyrrolo[2,3-b]pyridin-5-yl)oxy)-N-((4-((( -4-hydroxy-4-methylcyclohexyl)methyl)amino)-3-nitrophenyl)sulfonyl)-4-(2-((S)-2-(2-isopropylphenyl)pyrrolidin-1-yl)-7-azaspiro[3.5]nonan-7-yl)benzamide: or a pharmaceutically acceptable salt thereof.
Wind turbine comprising a plurality of wind wheels (2a, 2b, 2c,...), each wind wheel comprising a tower having a rotatable nacelle and a rotor on the nacelle which has a rotor shaft , and a plurality of wind wheels (2a, 2b, 2c,...) are coupled to one another via a mechanical transmission in order to drive a common generator for generating electrical power, characterized in that the transmission is designed such that each rotor shaft is designed as an eccentric shaft which interacts with a lifting rod , it being possible for an upward and downward movement (A) to be transmitted from the lifting rod via two coupling elements to two collecting shafts in a rotational movement (D), and the collecting shafts being configured to drive the common generator .
Device carrier for a light strip lamp, comprising: - first lines for forming a first power supply circuit; - second lines , which form a second power supply circuit; - at least one converter unit for electrically coupling the first and second power supply circuit; - wherein the second power supply circuit comprises at least one first plug-in connector arrangement arranged on the device carrier , which plug-in connector arrangement is configured to be brought into engagement with a second plug-in connector arrangement arranged on a light source carrier in order to connect the at least one light source carrier to the second power supply circuit; - wherein the first plug-in connector arrangement comprises at least two receptacles in each of which at least one line of the second power supply circuit is receivable and positionable such that the lines are brought into electrically conductive engagement with correspondingly configured contact elements of the second plug-in connector arrangement when the plug-in connector arrangements are connected; - characterized in that the at least two receptacles of the first plug-in arrangement each have at least one clamping element in order to clamp at least one line of the second power supply circuit such that a contact region of the line is providable which is bringable into electrically conductive engagement with the correspondingly configured contact elements of the second plug-in connector arrangement when the plug-in connector arrangements are connected. - first lines for forming a first power supply circuit; - second lines , which form a second power supply circuit; - at least one converter unit for electrically coupling the first and second power supply circuit; - wherein the second power supply circuit comprises at least one first plug-in connector arrangement arranged on the device carrier , which plug-in connector arrangement is configured to be brought into engagement with a second plug-in connector arrangement arranged on a light source carrier in order to connect the at least one light source carrier to the second power supply circuit; - wherein the first plug-in connector arrangement comprises at least two receptacles in each of which at least one line of the second power supply circuit is receivable and positionable such that the lines are brought into electrically conductive engagement with correspondingly configured contact elements of the second plug-in connector arrangement when the plug-in connector arrangements are connected; - characterized in that the at least two receptacles of the first plug-in arrangement each have at least one clamping element in order to clamp at least one line of the second power supply circuit such that a contact region of the line is providable which is bringable into electrically conductive engagement with the correspondingly configured contact elements of the second plug-in connector arrangement when the plug-in connector arrangements are connected.
A coated part comprising a metallic and/or intermetallic substrate and a protective coating (2; 2'; 2"; 2"') forming a thermal barrier covering said substrate, the protective coating comprising a ceramic first layer and the part being characterized in that the protective coating further comprises a second layer (23; 26) present on the first layer, the second layer comprising a majority by weight of a first feldspar mineral having a melting temperature higher than or equal to 1010°C and presenting a thickness (e2) greater than or equal to 10 μm, the second layer presenting a degree of crystallinity that is greater than or equal to 5%.
A device to process an audio signal representing input sound , the device comprising: one or more sensors coupled to a hand detector and configured to provide sensor data to the hand detector; a hand detector ; and an automatic speech recognition system including a buffer and an automatic speech recognition engine; the hand detector being configured to: generate a first indication responsive to detection, via the one or more sensors , of at least a portion of a hand being positioned within a range of 10cm to 30cm from the one or more sensors ; and generate a second indication in response to detection that the portion of the hand is no longer positioned within a range of 10cm to 30cm from the one or more sensors , wherein the second indication corresponds to an end-of-utterance signal that causes the automatic speech recognition engine to begin processing audio data from the buffer ; and the automatic speech recognition system configured to initiate buffering of the audio signal responsive to the first indication, and to process the audio signal, wherein the audio signal comprises the input sound received between the generation of the first indication and the generation of the second indication. one or more sensors coupled to a hand detector and configured to provide sensor data to the hand detector; a hand detector ; and an automatic speech recognition system including a buffer and an automatic speech recognition engine; the hand detector being configured to: generate a first indication responsive to detection, via the one or more sensors , of at least a portion of a hand being positioned within a range of 10cm to 30cm from the one or more sensors ; and generate a second indication in response to detection that the portion of the hand is no longer positioned within a range of 10cm to 30cm from the one or more sensors , wherein the second indication corresponds to an end-of-utterance signal that causes the automatic speech recognition engine to begin processing audio data from the buffer ; and generate a first indication responsive to detection, via the one or more sensors , of at least a portion of a hand being positioned within a range of 10cm to 30cm from the one or more sensors ; and generate a second indication in response to detection that the portion of the hand is no longer positioned within a range of 10cm to 30cm from the one or more sensors , wherein the second indication corresponds to an end-of-utterance signal that causes the automatic speech recognition engine to begin processing audio data from the buffer ; and the automatic speech recognition system configured to initiate buffering of the audio signal responsive to the first indication, and to process the audio signal, wherein the audio signal comprises the input sound received between the generation of the first indication and the generation of the second indication.
An electronic device , comprising: a substrate ; and a system in package assembly including: a plurality of components mounted on the substrate, one or more subsystems , each subsystem including one or more of the plurality of components, an insulating layer disposed between the plurality of components and a shielding layer; a plurality of trenches formed in the insulating layer, a multi-layer thin film stack disposed in the plurality of trenches and on the insulator and conformally coating sides of the assembly including outermost side surfaces of the substrate , the multi-layer thin film stack including the shielding layer configured to shield the one or more subsystems from interference, and an adhesion layer disposed on the insulating layer, a protection layer , and a cosmetic layer , wherein the multi-layer thin film stack contacts the substrate within the plurality of trenches wherein the multi-layer thin film stack is disposed between the one or more subsystems, and wherein the multi-layer thin film stack is configured to shield the one or more subsystems from interference. a substrate ; and a system in package assembly including: a plurality of components mounted on the substrate, one or more subsystems , each subsystem including one or more of the plurality of components, an insulating layer disposed between the plurality of components and a shielding layer; a plurality of trenches formed in the insulating layer, a multi-layer thin film stack disposed in the plurality of trenches and on the insulator and conformally coating sides of the assembly including outermost side surfaces of the substrate , the multi-layer thin film stack including the shielding layer configured to shield the one or more subsystems from interference, and an adhesion layer disposed on the insulating layer, a protection layer , and a cosmetic layer , wherein the multi-layer thin film stack contacts the substrate within the plurality of trenches wherein the multi-layer thin film stack is disposed between the one or more subsystems, and wherein the multi-layer thin film stack is configured to shield the one or more subsystems from interference. a plurality of components mounted on the substrate, one or more subsystems , each subsystem including one or more of the plurality of components, an insulating layer disposed between the plurality of components and a shielding layer; a plurality of trenches formed in the insulating layer, a multi-layer thin film stack disposed in the plurality of trenches and on the insulator and conformally coating sides of the assembly including outermost side surfaces of the substrate , the multi-layer thin film stack including the shielding layer configured to shield the one or more subsystems from interference, and an adhesion layer disposed on the insulating layer, a protection layer , and a cosmetic layer , wherein the multi-layer thin film stack contacts the substrate within the plurality of trenches wherein the multi-layer thin film stack is disposed between the one or more subsystems, and wherein the multi-layer thin film stack is configured to shield the one or more subsystems from interference.
Encapsulation composition for the storage or confinement of toxic waste, comprising: - a resin composition containing at least one epoxy resin, and - a hardening composition containing at least one polyamidoamine and at least one aromatic polyamine, said encapsulation composition having a degree of aromaticity greater than or equal to 35%, said degree of aromaticity being defined as follows and expressed as a percentage: Sum of the molar masses of the aromatic rings present in the encapsulation composition and included in the polymer chain Sum of the molar masses of all of the components of the encapsulation composition - a resin composition containing at least one epoxy resin, and - a hardening composition containing at least one polyamidoamine and at least one aromatic polyamine,
An integrated vortex separator , comprising: a housing defining a first stage, the housing in communication with a waste inlet capable of receiving a waste stream, the first stage associated with a primary vortex flow for removing at least one of a first liquid component and a first solid component from the waste stream to produce a primary airstream; the primary vortex flow associated with a helical vector; a filter assembly comprising an outer inverted cone , an inner inverted cone , and a conical cavity therebetween, the conical cavity defining a second stage associated with a secondary vortex flow for removing at least one of a second liquid component and a second solid component from the primary airstream to produce a secondary airstream; a plurality of radial vanes extending between the inner inverted cone and the outer inverted cone in a spaced apart relationship, the plurality of radial vanes defining a plurality of portals between the first stage and the second stage and configured to at least one of slow and redirect the secondary vortex flow against the inner inverted cone by reversing the helical vector of the primary vortex flow and at least one exhaust port in communication with the conical cavity, the exhaust port configured to withdraw the secondary airstream from the second stage under suction. a housing defining a first stage, the housing in communication with a waste inlet capable of receiving a waste stream, the first stage associated with a primary vortex flow for removing at least one of a first liquid component and a first solid component from the waste stream to produce a primary airstream; the primary vortex flow associated with a helical vector; a filter assembly comprising an outer inverted cone , an inner inverted cone , and a conical cavity therebetween, the conical cavity defining a second stage associated with a secondary vortex flow for removing at least one of a second liquid component and a second solid component from the primary airstream to produce a secondary airstream; a plurality of radial vanes extending between the inner inverted cone and the outer inverted cone in a spaced apart relationship, the plurality of radial vanes defining a plurality of portals between the first stage and the second stage and configured to at least one of slow and redirect the secondary vortex flow against the inner inverted cone by reversing the helical vector of the primary vortex flow and at least one exhaust port in communication with the conical cavity, the exhaust port configured to withdraw the secondary airstream from the second stage under suction.
A photo-polymerisable, injectable otological composition comprising: i) 2 wt% methacrylated chitosan having a degree of methacrylation of about 40%; ii) 2 wt% methacrylated hyaluronic acid having a degree of methacrylation of about 90% or about 30% or 1 wt% hyaluronic acid; iii) 30 μM riboflavin 5'-monophosphate sodium salt as initiator; and iv) water as solvent. i) 2 wt% methacrylated chitosan having a degree of methacrylation of about 40%; ii) 2 wt% methacrylated hyaluronic acid having a degree of methacrylation of about 90% or about 30% or 1 wt% hyaluronic acid; iii) 30 μM riboflavin 5'-monophosphate sodium salt as initiator; and iv) water as solvent.
A method, comprising: providing a layer of build material onto a bed ; digitally printing a liquid functional material (LFM) on portions of the layer of build material on the bed; repeating the providing and the digitally printing without applying fusing energy to the LFM to define a structure in layers of build material on the bed; extracting the layers of build material into a carrier ; inserting a base plate between a bottom-most layer (104-1) and the bed ; and sealing the carrier with the base plate ; removing the carrier, wherein the carrier comprises a microwave transparent material, placing the carrier into a furnace ; and fusing the structure that is digitally printed in the layers of build material in the carrier. providing a layer of build material onto a bed ; digitally printing a liquid functional material (LFM) on portions of the layer of build material on the bed; repeating the providing and the digitally printing without applying fusing energy to the LFM to define a structure in layers of build material on the bed; extracting the layers of build material into a carrier ; inserting a base plate between a bottom-most layer (104-1) and the bed ; and sealing the carrier with the base plate ; removing the carrier, wherein the carrier comprises a microwave transparent material, placing the carrier into a furnace ; and removing the carrier, wherein the carrier comprises a microwave transparent material, placing the carrier into a furnace ; and fusing the structure that is digitally printed in the layers of build material in the carrier.
A lighting driver circuit for dimming at least one LED assembly , the lighting driver circuit comprising: a series resonant inverter adapted to be driven by a pulse train and configured to output a current to at least one LED assembly , wherein the pulse train has an envelope waveform comprising an on-time, T on , followed by an off-time, T off , wherein a sum of T on and T off equals a period T of the envelope, wherein the pulse train has a duty cycle (D) equal to T on /T, wherein the duration of the envelope waveform determines the number of pulses within the pulse train and wherein the pulses in the pulse train have a switching frequency (f sw ); and a controller operatively coupled to the series resonant inverter and configured to receive a dimming signal and, in response to the dimming signal, to change the parameters of the pulse train by performing frequency modulation dimming for dimming the at least one LED assembly at high brightness levels, and by performing burst control dimming for dimming the at least one LED assembly at low brightness levels, wherein burst control dimming comprises changing the duty cycle (D) of the pulse train, wherein frequency modulation dimming comprises changing the switching frequency (f sw ) of pulses within the pulse train, wherein changing the switching frequency (f sw ) of the pulses within the pulse train comprises increasing the switching frequency (f sw ) in a plurality of frequency levels, the lighting driver circuit being characterized in that frequency modulation dimming further comprises hopping between neighboring frequencies at each of the plurality of frequency levels. a series resonant inverter adapted to be driven by a pulse train and configured to output a current to at least one LED assembly , wherein the pulse train has an envelope waveform comprising an on-time, T on , followed by an off-time, T off , wherein a sum of T on and T off equals a period T of the envelope, wherein the pulse train has a duty cycle (D) equal to T on /T, wherein the duration of the envelope waveform determines the number of pulses within the pulse train and wherein the pulses in the pulse train have a switching frequency (f sw ); and a controller operatively coupled to the series resonant inverter and configured to receive a dimming signal and, in response to the dimming signal, to change the parameters of the pulse train by performing frequency modulation dimming for dimming the at least one LED assembly at high brightness levels, and by performing burst control dimming for dimming the at least one LED assembly at low brightness levels, wherein burst control dimming comprises changing the duty cycle (D) of the pulse train, wherein frequency modulation dimming comprises changing the switching frequency (f sw ) of pulses within the pulse train, wherein changing the switching frequency (f sw ) of the pulses within the pulse train comprises increasing the switching frequency (f sw ) in a plurality of frequency levels, the lighting driver circuit being characterized in that frequency modulation dimming further comprises hopping between neighboring frequencies at each of the plurality of frequency levels.
An optical system comprising: a randomiser that has a plurality of randomly positioned scatterers for scattering and thereby randomizing light to generate a speckle pattern when coherent light is incident on the randomiser; a detector configured to detect the speckle pattern; and a processor or analyser configured to analyze the speckle pattern so as to determine at least one property of the coherent light incident on the randomiser and/or a change in at least one property of the coherent light incident on the randomiser, wherein the randomiser comprises a hollow element configured for internally reflecting and randomizing the light to generate the speckle pattern and/or wherein the randomizer comprises a hollow element in the form of a hollow tube with at least some of the randomly positioned scatterers arranged in one or more films therein, and wherein the at least one property of the light comprises a wavelength of the light. a randomiser that has a plurality of randomly positioned scatterers for scattering and thereby randomizing light to generate a speckle pattern when coherent light is incident on the randomiser; a detector configured to detect the speckle pattern; and a processor or analyser configured to analyze the speckle pattern so as to determine at least one property of the coherent light incident on the randomiser and/or a change in at least one property of the coherent light incident on the randomiser, wherein the randomiser comprises a hollow element configured for internally reflecting and randomizing the light to generate the speckle pattern and/or wherein the randomizer comprises a hollow element in the form of a hollow tube with at least some of the randomly positioned scatterers arranged in one or more films therein, and wherein the at least one property of the light comprises a wavelength of the light.