mhurhangee/patent-ind-claim-en huggingface dataset:
Wind turbine , comprising an electrical installation to transform wind energy into electrical energy , whereby the electrical installation produces waste heat, a waste heat recovery system to transform at least a part of the waste heat into electrical energy , a cooling system with a cooling circuit to cool the electrical installation that produces waste heat, whereby the waste heat recovery system is connected to the cooling circuit of the wind turbine in a way that thermal energy is transferred from the cooling circuit to the waste heat recovery system , and whereby the waste heat recovery system comprises - a fluid circuit to transport thermal energy, whereby the thermal energy of the cooling circuit of the wind turbine is transferred to a fluid in the fluid circuit of the waste heat recovery system , - a turbine to expand the fluid in the circuit of the waste heat recovery system , and to transform thermal energy of the fluid into rotational energy of the turbine, and - a waste heat recovery generator to transform the rotational energy of the turbine into electrical energy , characterized in that the fluid is carbon dioxide, and the process to transform the thermal energy into electrical energy is employing a Carbon Transcritical Power Cycle. an electrical installation to transform wind energy into electrical energy , whereby the electrical installation produces waste heat, a waste heat recovery system to transform at least a part of the waste heat into electrical energy , a cooling system with a cooling circuit to cool the electrical installation that produces waste heat, whereby the waste heat recovery system is connected to the cooling circuit of the wind turbine in a way that thermal energy is transferred from the cooling circuit to the waste heat recovery system , and whereby the waste heat recovery system comprises - a fluid circuit to transport thermal energy, whereby the thermal energy of the cooling circuit of the wind turbine is transferred to a fluid in the fluid circuit of the waste heat recovery system , - a turbine to expand the fluid in the circuit of the waste heat recovery system , and to transform thermal energy of the fluid into rotational energy of the turbine, and - a waste heat recovery generator to transform the rotational energy of the turbine into electrical energy , - a fluid circuit to transport thermal energy, whereby the thermal energy of the cooling circuit of the wind turbine is transferred to a fluid in the fluid circuit of the waste heat recovery system , - a turbine to expand the fluid in the circuit of the waste heat recovery system , and to transform thermal energy of the fluid into rotational energy of the turbine, and - a waste heat recovery generator to transform the rotational energy of the turbine into electrical energy ,
A method for determining a reagent concentration within a sample, comprising the steps: (a) immersing the sample in the reagent; (b) obtaining an experimental time-of-flight versus time for an acoustic signal to pass through the sample immersed in the reagent (S330, S430); (c) providing a plurality of candidate diffusivity constants of the sample (S331, S431); (d) simulating a spatial dependence of diffusion into the sample to generate a model time-of-flight versus time over a plurality of time points, wherein the simulation is conducted for each of the candidate diffusivity constants (S332-S335, S432-S437); (e) comparing the model time-of-flight versus time with the experimental time-of- flight versus time to obtain an error function, wherein a minimum of the error function yields a diffusivity constant for the sample (S336-S339, S438-S439); (f) providing a plurality of candidate porosities of the sample (S440); (g) simulating a spatial dependence of diffusion into the sample to generate a model time-of-flight versus time over a plurality of time points, wherein the simulation is conducted for each of the candidate porosities (S441-S444); (h) comparing the model time-of-flight with the experimental time-of-flight to obtain a second error function, wherein a minimum of the error function yields a porosity of the sample (S445-S448); and (i) calculating a concentration of the reagent at one or more particular spatial points within the sample at a particular time using the diffusivity constant for the sample and the porosity of the sample (S449). (a) immersing the sample in the reagent; (b) obtaining an experimental time-of-flight versus time for an acoustic signal to pass through the sample immersed in the reagent (S330, S430); (c) providing a plurality of candidate diffusivity constants of the sample (S331, S431); (d) simulating a spatial dependence of diffusion into the sample to generate a model time-of-flight versus time over a plurality of time points, wherein the simulation is conducted for each of the candidate diffusivity constants (S332-S335, S432-S437); (e) comparing the model time-of-flight versus time with the experimental time-of- flight versus time to obtain an error function, wherein a minimum of the error function yields a diffusivity constant for the sample (S336-S339, S438-S439); (f) providing a plurality of candidate porosities of the sample (S440); (g) simulating a spatial dependence of diffusion into the sample to generate a model time-of-flight versus time over a plurality of time points, wherein the simulation is conducted for each of the candidate porosities (S441-S444); (h) comparing the model time-of-flight with the experimental time-of-flight to obtain a second error function, wherein a minimum of the error function yields a porosity of the sample (S445-S448); and (i) calculating a concentration of the reagent at one or more particular spatial points within the sample at a particular time using the diffusivity constant for the sample and the porosity of the sample (S449).
A selective miticidal composition comprising a miticidal nucleic acid molecule having a sequence that is essentially complementary to a region of a Varroa destructor calmodulin gene sequence, or an RNA transcribed therefrom, wherein said composition is mite-ingestible or mite-absorbable.
Preform for manufacturing plastic containers, in particular plastic bottles, in a two-step stretch blow molding process comprising: - an elongate body , - a bottom that is configured at a first longitudinal end of the body , - a neck portion that is configured at a second longitudinal end of the body and that is opposite to the first longitudinal end, - a pouring aperture that is provided on the neck portion and - a support ring that - radially projects from the body and separates the neck portion from the body and - includes a data carrier that is at least the carrier of an identification number, characterized in that the support ring is a separate support element that can be positively secured on the preform and that can be removed again therefrom. - an elongate body , - a bottom that is configured at a first longitudinal end of the body , - a neck portion that is configured at a second longitudinal end of the body and that is opposite to the first longitudinal end, - a pouring aperture that is provided on the neck portion and - a support ring that - radially projects from the body and separates the neck portion from the body and - includes a data carrier that is at least the carrier of an identification number, characterized in that the support ring is a separate support element that can be positively secured on the preform and that can be removed again therefrom. - radially projects from the body and separates the neck portion from the body and - includes a data carrier that is at least the carrier of an identification number,
A method of imaging an interior of an eye , comprising: illuminating the interior of the eye with one or more beams of light from a light source, wherein said illuminating is configured to trigger a change to a pupil of the eye ; capturing, with an image sensor , a sequence of images of light reflected by the interior of the eye during an expected timeframe when a width of the pupil is changing in response to said illuminating; and combining, with a processing apparatus , images in the sequence of images to form a composite image having a larger depth of field than a depth of field of each of the images in the sequence of images, wherein the depth of field for each of the images corresponds to the width of the pupil when each of the images is captured. illuminating the interior of the eye with one or more beams of light from a light source, wherein said illuminating is configured to trigger a change to a pupil of the eye ; capturing, with an image sensor , a sequence of images of light reflected by the interior of the eye during an expected timeframe when a width of the pupil is changing in response to said illuminating; and combining, with a processing apparatus , images in the sequence of images to form a composite image having a larger depth of field than a depth of field of each of the images in the sequence of images, wherein the depth of field for each of the images corresponds to the width of the pupil when each of the images is captured.
A hair brush for detangling hair comprising: an elongate mounting having a head end and a foot end and defining a longitudinal axis therebetween; and a bristle body mounted on the elongate mounting, the bristle body including a plurality of substantially parallel spaced apart rows of mutually spaced apart upright bristles, wherein each bristle has a cross-section which is at least in part substantially elliptical with a major axis, wherein the plurality of substantially parallel spaced apart rows includes first multiple rows of bristles in which the major axis is substantially perpendicular to the longitudinal axis and second multiple rows of bristles in which the major axis is at an acute or obtuse angle to the longitudinal axis, wherein the first multiple rows are spaced apart singly or jointly by the second multiple rows. an elongate mounting having a head end and a foot end and defining a longitudinal axis therebetween; and a bristle body mounted on the elongate mounting, the bristle body including a plurality of substantially parallel spaced apart rows of mutually spaced apart upright bristles, wherein each bristle has a cross-section which is at least in part substantially elliptical with a major axis, wherein the plurality of substantially parallel spaced apart rows includes first multiple rows of bristles in which the major axis is substantially perpendicular to the longitudinal axis and second multiple rows of bristles in which the major axis is at an acute or obtuse angle to the longitudinal axis, wherein the first multiple rows are spaced apart singly or jointly by the second multiple rows.
A wheel assembly including a sensor for measuring wheel movement comprising: a frame member ; an axle fixed to the frame member ; a wheel rotatably mounted to the axle , wherein the wheel comprises a wheel recess ; a code ring located within the wheel recess for rotation with the wheel ; and a sensor device coupled to the frame member and located adjacent to the code ring , wherein the sensor device senses movement of the code ring and generates an output signal indicative of the wheel movement; wherein the frame member comprises opposing axle plates for supporting the axle , each of the opposing axle plates comprising a bore formed therethrough for receiving the axle ; one of the opposing axle plates comprises a further bore through which a portion of the sensor device at least partially extends; and the wheel assembly further comprises a side member that is coupled to the one axle plate and comprises a cavity , or an opening , that receives and at least partially encloses the sensor device . a frame member ; an axle fixed to the frame member ; a wheel rotatably mounted to the axle , wherein the wheel comprises a wheel recess ; a code ring located within the wheel recess for rotation with the wheel ; and a sensor device coupled to the frame member and located adjacent to the code ring , wherein the sensor device senses movement of the code ring and generates an output signal indicative of the wheel movement; wherein the frame member comprises opposing axle plates for supporting the axle , each of the opposing axle plates comprising a bore formed therethrough for receiving the axle ; one of the opposing axle plates comprises a further bore through which a portion of the sensor device at least partially extends; and the wheel assembly further comprises a side member that is coupled to the one axle plate and comprises a cavity , or an opening , that receives and at least partially encloses the sensor device .
A memory system, comprising: a substrate; a stack of dynamic random-access memory (DRAM) coupled to the substrate and comprising a number of vaults, wherein each vault of the number of vaults comprises a respective stacked plurality of memory arrays; and a controller coupled to the substrate and comprising a number of vault interface blocks (100; 420) coupled to the number of vaults of the stack of dynamic random-access memory, wherein each of the number of vault interface blocks comprises: a plurality of data interface blocks (120, 122; 440, 450), each data interface block providing a first plurality of contacts for data signals and timing signals; and a command interface block (110; 430) providing a second plurality of contacts for command signals; wherein at least two vaults of the vaults of the stack of dynamic random-access memory are tied together to form a vault pair to share a common command interface block of a respective vault interface block, and wherein the number of vault interface blocks is less than the number of vaults. a substrate; a stack of dynamic random-access memory (DRAM) coupled to the substrate and comprising a number of vaults, wherein each vault of the number of vaults comprises a respective stacked plurality of memory arrays; and a controller coupled to the substrate and comprising a number of vault interface blocks (100; 420) coupled to the number of vaults of the stack of dynamic random-access memory, wherein each of the number of vault interface blocks comprises: a plurality of data interface blocks (120, 122; 440, 450), each data interface block providing a first plurality of contacts for data signals and timing signals; and a command interface block (110; 430) providing a second plurality of contacts for command signals; wherein at least two vaults of the vaults of the stack of dynamic random-access memory are tied together to form a vault pair to share a common command interface block of a respective vault interface block, and wherein the number of vault interface blocks is less than the number of vaults. a plurality of data interface blocks (120, 122; 440, 450), each data interface block providing a first plurality of contacts for data signals and timing signals; and a command interface block (110; 430) providing a second plurality of contacts for command signals;
Tank for transporting and storing fuel, characterized in that it comprises: - a vat configured to contain fuel and comprising a manhole on an upper surface ; - a cover to close the manhole on the upper surface; and - a removable device for storing additive , comprising: - a closed vessel configured to contain an additive, which vessel can be inserted into the manhole; - a shoulder whose dimensions are greater than the dimensions of the manhole fastened on the upper surface and closing off the manhole; - at least one valve for dispensing the fuel mixed with the additive; and - a pump configured to pump the additive contained in the vessel. - a vat configured to contain fuel and comprising a manhole on an upper surface ; - a cover to close the manhole on the upper surface; and - a removable device for storing additive , comprising: - a closed vessel configured to contain an additive, which vessel can be inserted into the manhole; - a shoulder whose dimensions are greater than the dimensions of the manhole fastened on the upper surface and closing off the manhole; - a closed vessel configured to contain an additive, which vessel can be inserted into the manhole; - a shoulder whose dimensions are greater than the dimensions of the manhole fastened on the upper surface and closing off the manhole; - at least one valve for dispensing the fuel mixed with the additive; and - a pump configured to pump the additive contained in the vessel.
Rotor for a synchronous drive motor of an electrically driven motor vehicle having a plurality of rotor poles, wherein each rotor pole has at least three U-shaped magnetic layers arranged radially one behind the other, and each magnetic layer comprises a series of at least three cavities (10 - 34), of which at least the inner cavities are filled with a permanent magnetic material, and furthermore the two outer cavities are closed in each case by an outer web facing a rotor gap formed by a stator , wherein - the outermost magnetic layer comprises at least one cavity filled with a permanent magnetic material and each other magnetic layer comprises at least two cavities filled with permanent magnetic material, characterized in that - each magnetic layer has an extension of a section of an ellipse respectively having a long axis and a short axis , which substantially coincides with a radial pole axis (d), - wherein the center points of all ellipses lie within the smallest ellipse of the outer magnetic layer , - wherein 1.2 < X i < 4, where X i = a i /b i applies to the ratio of the two axes of all magnetic layers , - wherein the ratio of the largest X value to the smallest X value is not more than 1.5, - wherein each cavity belongs to one of the at least three magnetic layers and defines an interface (49+51) in a radial plane, and each of these interfaces (49+51) of a magnetic layer is divided by the associated ellipse into two partial interfaces , wherein the surface ratio of each partial interface to an interface (49+51) lies between 1/3 and 3, - wherein webs made from the rotor material are formed between each of the cavities in the second and each additional magnetic layer , and these webs are at least twice as wide at the narrowest point as the respective outer webs of the same magnetic layer . - the outermost magnetic layer comprises at least one cavity filled with a permanent magnetic material and each other magnetic layer comprises at least two cavities filled with permanent magnetic material, - each magnetic layer has an extension of a section of an ellipse respectively having a long axis and a short axis , which substantially coincides with a radial pole axis (d), - wherein the center points of all ellipses lie within the smallest ellipse of the outer magnetic layer , - wherein 1.2 < X i < 4, where X i = a i /b i applies to the ratio of the two axes of all magnetic layers , - wherein the ratio of the largest X value to the smallest X value is not more than 1.5, - wherein each cavity belongs to one of the at least three magnetic layers and defines an interface (49+51) in a radial plane, and each of these interfaces (49+51) of a magnetic layer is divided by the associated ellipse into two partial interfaces , wherein the surface ratio of each partial interface to an interface (49+51) lies between 1/3 and 3, - wherein webs made from the rotor material are formed between each of the cavities in the second and each additional magnetic layer , and these webs are at least twice as wide at the narrowest point as the respective outer webs of the same magnetic layer .
A tongue advancer implant or removal tool for a tongue manipulation system comprising: a loading mechanism configured to enable the loading of an implant or removal assembly; characterised by a propulsion element configured to be charged; and a release mechanism configured to permit the propulsion element to propel the implant or removal assembly from the implant or removal tool. a loading mechanism configured to enable the loading of an implant or removal assembly; characterised by a propulsion element configured to be charged; and a release mechanism configured to permit the propulsion element to propel the implant or removal assembly from the implant or removal tool.
Process for the preparation of a Chelidonium majus extract, said process comprising the following steps: a. bringing the aerial parts selected from the group consisting of flowers, flower-buds, buds and leaves without nervation of the Chelidonium majus plant into contact with an extraction solvent, selected from the group consisting of propylene glycol, and aqueous solutions of HCl, at a temperature from 20°C to 50 °C; b. recovering the extract from step a, wherein the Chelidonium majus extract comprising protopine, stylopine, chelidonine, sanguinarine, chelerythrine, berberine, coptisine, wherein: the ratio between the quantity expressed in weight of stylopine with respect to the sum of the quantities expressed in weight of chelidonine, sanguinarine and chelerythrine is greater than or equal to 5; the ratio between the quantity expressed in weight of berberine with respect to the sum of the quantities expressed in weight of chelidonine, sanguinarine and chelerythrine is greater than or equal to 1; and; the ratio between the quantity expressed in weight of berberine with respect to the quantity expressed in weight of coptisine is greater than or equal to 0.04. a. bringing the aerial parts selected from the group consisting of flowers, flower-buds, buds and leaves without nervation of the Chelidonium majus plant into contact with an extraction solvent, selected from the group consisting of propylene glycol, and aqueous solutions of HCl, at a temperature from 20°C to 50 °C; b. recovering the extract from step a, wherein the Chelidonium majus extract comprising protopine, stylopine, chelidonine, sanguinarine, chelerythrine, berberine, coptisine, wherein: the ratio between the quantity expressed in weight of stylopine with respect to the sum of the quantities expressed in weight of chelidonine, sanguinarine and chelerythrine is greater than or equal to 5; the ratio between the quantity expressed in weight of berberine with respect to the sum of the quantities expressed in weight of chelidonine, sanguinarine and chelerythrine is greater than or equal to 1; and; the ratio between the quantity expressed in weight of berberine with respect to the quantity expressed in weight of coptisine is greater than or equal to 0.04. the ratio between the quantity expressed in weight of stylopine with respect to the sum of the quantities expressed in weight of chelidonine, sanguinarine and chelerythrine is greater than or equal to 5; the ratio between the quantity expressed in weight of berberine with respect to the sum of the quantities expressed in weight of chelidonine, sanguinarine and chelerythrine is greater than or equal to 1; and; the ratio between the quantity expressed in weight of berberine with respect to the quantity expressed in weight of coptisine is greater than or equal to 0.04.