mhurhangee/ep-ind-claims huggingface dataset:
A two-component developer comprising a magnetic carrier and a toner, wherein the magnetic carrier comprises magnetic carrier particles, each magnetic carrier particle containing at least a magnetic core particle and a resin; the magnetic carrier having a resistivity of from 1.0×10 6 Ω·cm or more to 1.0×10 10 Ω·cm or less at an electric-field intensity of 1.0×10 3 V/cm as found by measuring dynamic impedance; electric-field intensity E(10 9) at which the resistivity of the magnetic carrier comes to 1.0×10 9 Ω·cm being 2.0×10 4 V/cm or less, and electric-field intensity E(10 8) at which the resistivity of the magnetic carrier comes to 1.0×10 8 Ω·cm being from 5.0×10 3 V/cm or more to 2.8×10 4 V/cm or less; and the electric-field intensity E(10 8) and the electric-field intensity E(10 9) being in a ratio, E(10 8)/E(10 9), of from 1.0 or more to 5.0 or less; the toner comprises toner particles, and wherein the toner particles contain particles having a circle-equivalent diameter of from 0.500 μm or more to less than 1.985 μm as measured with a flow type particle image analyzer having an image processing resolution of 512 × 512 pixels (0.37 μm × 0.37 μm per pixel) are in a proportion of 30% by number or less based on the total number of toner particles.
A structure (10, 110) especially designed for use in an underwater environment, comprising at least two construction blocks (12, 12a, 12b, 12c; 112, 112a, 112b) formed from a non-reinforced concrete comprising a binder and an eco-aggregate agglomerated by the binder; wherein the eco-aggregate, which is free of metallic elements, comprises gravel, reinforcing fibers, and shell sand composed of aggregates formed from shells of shellfish waste and having dimensions ranging from 160 micrometers to 4 millimeters; characterized in that the two construction blocks (12, 12a, 12b, 12c; 112, 112a, 112b) comprise rigid mutual connection means (30, 130) having a female member (32; 132) and a male member (36, 136) that are adapted to engage with each other to ensure the structural association of the construction blocks (12, 12a, 12b, 12c; 112, 112a, 112b), the male member (36, 136) being formed by a fiberglass rod (38; 138) partially embedded in the non-reinforced concrete, the fiberglass rod comprising an upper end portion (38ext; 138ext) spreading beyond pockets (34c; 134b), which allows the attachment of lifting means.
A method of characterizing a phenotype of a sample containing microvesicles comprising: (a) contacting the sample with a pool of different aptamers enriched to target one or more microvesicles; (b) removing unbound aptamers; (c) eluting bound aptamers; and (d) identifying the aptamers that are eluted, by sequencing, and wherein (i) the presence and copy number of the identified aptamers is used to characterize the phenotype; (ii) it is not necessary to know the precise target of the different aptamers; and, (iii) the phenotype is cancer (a) contacting the sample with a pool of different aptamers enriched to target one or more microvesicles; (b) removing unbound aptamers; (c) eluting bound aptamers; and (d) identifying the aptamers that are eluted, by sequencing, and wherein (i) the presence and copy number of the identified aptamers is used to characterize the phenotype; (ii) it is not necessary to know the precise target of the different aptamers; and, (iii) the phenotype is cancer (i) the presence and copy number of the identified aptamers is used to characterize the phenotype; (ii) it is not necessary to know the precise target of the different aptamers; and, (iii) the phenotype is cancer
A method for the preparation of an alkali metal cinnamate powdery product of which the particle size of the alkali metal cinnamate particles is between 100 and 1000 micrometers, said method comprising atomizing a solution or slurry comprising from 10 to 50 wt.% alkali metal cinnamate to droplets and contacting the droplets with heated gas to form solid alkali metal cinnamate particles followed by separating the solid particles from the gas, wherein the solution or slurry of alkali metal cinnamate is obtained by the reaction of cinnamic acid with alkali metal hydroxide.
A power management module for a wind turbine system comprising one or more consumers, which are devices, components or systems within the wind turbine system that consume electrical power, the power management module being configured to: determine a voltage level of a power supply bus of the wind turbine system; and control a level of power consumption of one or more consumers coupled to the power supply bus based at least in part on the determined voltage level of the power supply bus, wherein by determining the voltage level on the power supply bus, the power management module can determine whether a primary or backup power supply is providing power to the power supply bus, and if it is detected that the backup power supply is providing power, the power management module is configured to reduce power consumption of any non-essential consumers that are under its control and maintain power for essential consumers. determine a voltage level of a power supply bus of the wind turbine system; and control a level of power consumption of one or more consumers coupled to the power supply bus based at least in part on the determined voltage level of the power supply bus, wherein by determining the voltage level on the power supply bus, the power management module can determine whether a primary or backup power supply is providing power to the power supply bus, and if it is detected that the backup power supply is providing power, the power management module is configured to reduce power consumption of any non-essential consumers that are under its control and maintain power for essential consumers.
A method comprising: receiving, by a wireless device, configuration parameters indicating a redundancy version, RV, sequence associated with a configured grant for transmission of a transport block; receiving downlink control information indicating that an uplink radio resource is pre-empted; based on the uplink radio resource overlapping with a first transmission occasion of consecutive transmission occasions, cancelling a transmission scheduled via the first transmission occasion, of a first RV of the transport block; and transmitting, via a second transmission occasion of the consecutive transmission occasions and based on the uplink radio resource not overlapping with the second transmission occasion, a second RV of the transport block, wherein each transmission occasion of the consecutive transmission occasions is associated with an RV based on the RV sequence. receiving, by a wireless device, configuration parameters indicating a redundancy version, RV, sequence associated with a configured grant for transmission of a transport block; receiving downlink control information indicating that an uplink radio resource is pre-empted; based on the uplink radio resource overlapping with a first transmission occasion of consecutive transmission occasions, cancelling a transmission scheduled via the first transmission occasion, of a first RV of the transport block; and transmitting, via a second transmission occasion of the consecutive transmission occasions and based on the uplink radio resource not overlapping with the second transmission occasion, a second RV of the transport block, wherein each transmission occasion of the consecutive transmission occasions is associated with an RV based on the RV sequence.
Cell for performing a reverse electrodialysis process, comprising at least two membranes, wherein a membrane comprises a number of channels arranged on at least a first side of the membrane, wherein the channels are suitable for throughfeed of a fluid, characterized in that at least one membrane is an anion-exchanging membrane and at least one other membrane is a cation-exchanging membrane, wherein the anion-exchanging membrane and the cation-exchanging membrane are placed alternately, and characterized in that dimensions and conditions of the channels and the flow are chosen such that a substantially laminar flow of the fluid is realized in the channels.
Ammonia removal equipment comprising: a first ammonia removal apparatus that accommodates an ammonia removal material and removes ammonia in a mixed gas comprising hydrogen and ammonia; a second ammonia removal apparatus that is installed at a stage subsequent to the first ammonia removal apparatus and that treats a first treated gas treated by the first ammonia removal apparatus; and a first ammonia concentration measurement apparatus that measures an ammonia concentration in the first treated gas treated by the first ammonia removal apparatus, wherein the first ammonia removal apparatus comprises: a plurality of detachably attachable first ammonia removal containers installed in parallel; and a first switching apparatus that is capable of supplying the mixed gas into a part or the whole of the plurality of first ammonia removal containers. a first ammonia removal apparatus that accommodates an ammonia removal material and removes ammonia in a mixed gas comprising hydrogen and ammonia; a second ammonia removal apparatus that is installed at a stage subsequent to the first ammonia removal apparatus and that treats a first treated gas treated by the first ammonia removal apparatus; and a first ammonia concentration measurement apparatus that measures an ammonia concentration in the first treated gas treated by the first ammonia removal apparatus, wherein the first ammonia removal apparatus comprises: a plurality of detachably attachable first ammonia removal containers installed in parallel; and a first switching apparatus that is capable of supplying the mixed gas into a part or the whole of the plurality of first ammonia removal containers. a plurality of detachably attachable first ammonia removal containers installed in parallel; and a first switching apparatus that is capable of supplying the mixed gas into a part or the whole of the plurality of first ammonia removal containers.
System comprising a worktop and at least one functional element which is arranged at a lower side of the worktop, wherein the worktop has at the lower side thereof at least one first centering means (6, 6'), wherein the functional element has at least one second centering means (7, 7') and wherein the first centering means (6, 6') and the second centering means (7, 7') are constructed to correspond to each other in such a manner that the functional element is arranged in a defined position with respect to the worktop, characterised in that a bearing element is connected directly or indirectly to the second centering means (7, 7') so that a positioning of the functional element with respect to the worktop is enabled and in that the second centering means (7, 7') and the functional element which is connected thereto can be moved vertically and/or laterally.
Pressure sensitive adhesive comprising at least 30 wt% of a polymer component, up to 50 wt% (based on the adhesive) of a saccharide component, where the saccharide component is formed of one or more saccharide derivatives selected from the list composed of glucose acetate, glucose benzoate, sucrose acetate, sucrose benzoate and a mixture of hexa, hepta and octa esters from the esterification of sucrose with the fatty acids from rapeseed oil, sunflower oil or palm oil, and the polymer component used comprises solvent-based polyacrylates, solvent-free polyacrylates or aqueously dispersed polyacrylates with a solids content of between 25% and 75%. at least 30 wt% of a polymer component, up to 50 wt% (based on the adhesive) of a saccharide component, where the saccharide component is formed of one or more saccharide derivatives selected from the list composed of glucose acetate, glucose benzoate, sucrose acetate, sucrose benzoate and a mixture of hexa, hepta and octa esters from the esterification of sucrose with the fatty acids from rapeseed oil, sunflower oil or palm oil, and the polymer component used comprises solvent-based polyacrylates, solvent-free polyacrylates or aqueously dispersed polyacrylates with a solids content of between 25% and 75%.
A refrigerator having a door, the refrigerator comprising: a dispenser to enable a user to extract water or ice without opening the door, the dispenser comprises: a case forming an extraction section (31 a) which is a space through which the water or ice is extracted; a push button installed to the case and causing the water or ice to be extracted by push operation; a cover comprising an opening defined therethrough, and a lever hinged to the cover opening and closing the opening by rotating a portion of the cover with respect to the opening and pushing the push button while the opening is open, characterized in that the cover is pivotably installed to the case so as to open and close the extraction section (31 a). a dispenser to enable a user to extract water or ice without opening the door, the dispenser comprises: a case forming an extraction section (31 a) which is a space through which the water or ice is extracted; a push button installed to the case and causing the water or ice to be extracted by push operation; a cover comprising an opening defined therethrough, and a lever hinged to the cover opening and closing the opening by rotating a portion of the cover with respect to the opening and pushing the push button while the opening is open, characterized in that the cover is pivotably installed to the case so as to open and close the extraction section (31 a). a case forming an extraction section (31 a) which is a space through which the water or ice is extracted; a push button installed to the case and causing the water or ice to be extracted by push operation; a cover comprising an opening defined therethrough, and a lever hinged to the cover opening and closing the opening by rotating a portion of the cover with respect to the opening and pushing the push button while the opening is open, characterized in that the cover is pivotably installed to the case so as to open and close the extraction section (31 a).
A horizontal directional drilling rig operation method, the horizontal directional drilling rig includes a plurality of traverse carrier drive components disposed on a traverse carrier and a plurality of drill pipe rotation components disposed on the traverse carrier, the method includes: electronically monitoring the performance and/or life cycle of one or more of the following: a plurality of the traverse carrier drive components; a plurality of the drill pipe rotation components; a plurality of power control components that supply power to the traverse carrier drive components and the drill pipe rotation components; based on the electronic monitoring, identifying a specific one of the plurality of traverse carrier drive components, a specific one of the drill pipe rotation components, or a specific one of the power control components as having substandard performance and/or being at the end of its life cycle; characterized in that it comprises adjusting the performance of at least one of the other traverse carrier drive components if one of the plurality of traverse carrier drive components is identified as having substandard performance, or adjusting the performance of at least one of the other drill pipe rotation components if one of the plurality of drill pipe rotation components is identified as having substandard performance, or adjusting the performance of at least one of the other power control components if one of the plurality of power control components is identified as having substandard performance. electronically monitoring the performance and/or life cycle of one or more of the following: a plurality of the traverse carrier drive components; a plurality of the drill pipe rotation components; a plurality of power control components that supply power to the traverse carrier drive components and the drill pipe rotation components; a plurality of the traverse carrier drive components; a plurality of the drill pipe rotation components; a plurality of power control components that supply power to the traverse carrier drive components and the drill pipe rotation components; based on the electronic monitoring, identifying a specific one of the plurality of traverse carrier drive components, a specific one of the drill pipe rotation components, or a specific one of the power control components as having substandard performance and/or being at the end of its life cycle; characterized in that it comprises adjusting the performance of at least one of the other traverse carrier drive components if one of the plurality of traverse carrier drive components is identified as having substandard performance, or adjusting the performance of at least one of the other drill pipe rotation components if one of the plurality of drill pipe rotation components is identified as having substandard performance, or adjusting the performance of at least one of the other power control components if one of the plurality of power control components is identified as having substandard performance.
A device comprising a bidirectional switch comprising two switches (210-1, 210-2) electrically in series, and a circuit for controlling said bidirectional switch, the control circuit comprising sensors (310-1, 310-2) of voltage across the switches and a circuit of comparison of signals output by said sensors, one at least of said sensors being an active circuit, wherein said switches (210-1, 210-2) comprise field-effect transistors (T1, T2) of the same type having a common source terminal, the circuit for controlling being capable of delivering a control signal, according to a result output by the comparison circuit, to a control terminal common to said switches (210-1, 201-2).
Electrically commutated electric motor, comprising a plurality of coil windings which are arranged in a stationary manner, wherein each coil winding has at least one winding wire with a winding wire end (24; 24a, 25; 25a, 26; 26a), and wherein the winding wire end (24; 24a, 25; 25a, 26; 26a) is electrically at least indirectly connected to a circuit carrier (28; 28a) for driving the coil windings, wherein the winding wire end (24; 24a, 25; 25a, 26; 26a) is directly connected to an electrically conductive region of the circuit carrier (28; 28a), wherein the circuit carrier (28; 28a) is in the form of a printed circuit board (29; 29a) and the conductive region is in the form of a conductor track, wherein the conductive region of the circuit carrier (28; 28a) is arranged on that side of the circuit carrier (28; 28a) which is averted from the coil windings, and wherein the circuit carrier (28; 28a) has a cutout (36; 36a, 37; 37a, 38; 38a) for leading the winding wire end (24; 24a, 25; 25a, 26; 26a) through, characterized in that the cutout (36a, 37a, 38a) is in the form of a constituent part of an insulation-displacement connection with a constricted cutting region for the winding wire end (24a, 25a, 26a), and in that the electrically conductive region is connected to the cutout (36a, 37a, 38a) in the contact region of the winding wire end (24a, 25a, 26a), in particular in the form of a metal coating. the winding wire end (24; 24a, 25; 25a, 26; 26a) is directly connected to an electrically conductive region of the circuit carrier (28; 28a), wherein the circuit carrier (28; 28a) is in the form of a printed circuit board (29; 29a) and the conductive region is in the form of a conductor track, wherein the conductive region of the circuit carrier (28; 28a) is arranged on that side of the circuit carrier (28; 28a) which is averted from the coil windings, and wherein the circuit carrier (28; 28a) has a cutout (36; 36a, 37; 37a, 38; 38a) for leading the winding wire end (24; 24a, 25; 25a, 26; 26a) through, characterized in that the cutout (36a, 37a, 38a) is in the form of a constituent part of an insulation-displacement connection with a constricted cutting region for the winding wire end (24a, 25a, 26a), and in that the electrically conductive region is connected to the cutout (36a, 37a, 38a) in the contact region of the winding wire end (24a, 25a, 26a), in particular in the form of a metal coating.
A multi-layer, gas-barrier, biaxially oriented and heat-shrinkable film comprising a first outer heat-sealable polyolefin layer a) an inner gas-barrier layer b), and a second outer abuse resistant layer c) wherein said second outer abuse layer c) is a polyamide layer that comprises a major proportion of one or more amorphous polyamides, wherein the amorphous polyamides making up the major proportion of said polyamide layer have a Tg which is ≤120 °C.
A method comprising: receiving information indicative of a volume setting corresponding to each listening zone of a plurality of listening zones (101a, 101b) associated with a multi-zone audio system; generating, by one or more processing devices, a zone-specific adjustment signal for each of the plurality of listening zones, wherein the zone-specific adjustment signal for a given listening zone accounts for a cross-zone effect associated with a volume setting corresponding to another listening zone, and wherein the zone-specific adjustment signal is configured to adjust an output of corresponding zone-specific circuitry; generating, by the one or more processing devices, an additional adjustment signal configured to adjust an output of a cross-zone equalization filter, wherein the output of the cross-zone equalization filter is configured to generate a target acoustic distribution across multiple listening zones; and generating an output of an acoustic transducer of the multi-zone audio system based on the zone-specific adjustment signals and the additional adjustment signal. receiving information indicative of a volume setting corresponding to each listening zone of a plurality of listening zones (101a, 101b) associated with a multi-zone audio system; generating, by one or more processing devices, a zone-specific adjustment signal for each of the plurality of listening zones, wherein the zone-specific adjustment signal for a given listening zone accounts for a cross-zone effect associated with a volume setting corresponding to another listening zone, and wherein the zone-specific adjustment signal is configured to adjust an output of corresponding zone-specific circuitry; wherein the zone-specific adjustment signal for a given listening zone accounts for a cross-zone effect associated with a volume setting corresponding to another listening zone, and wherein the zone-specific adjustment signal is configured to adjust an output of corresponding zone-specific circuitry; generating, by the one or more processing devices, an additional adjustment signal configured to adjust an output of a cross-zone equalization filter, wherein the output of the cross-zone equalization filter is configured to generate a target acoustic distribution across multiple listening zones; and generating an output of an acoustic transducer of the multi-zone audio system based on the zone-specific adjustment signals and the additional adjustment signal.