mhurhangee/patent-ind-claim-en huggingface dataset:
Method carried out in a radio communications network for communicating with a user equipment , comprising transmitting resource allocation information, identifying resources within a resource bandwidth, addressed to the user equipment, wherein said resource allocation information comprises an indication of frequency domain repetition, wherein said frequency domain repetition is associated with a predetermined mapping of repetitions involving scheduled repetitive transmission of physical data within radio resource units at different frequencies of a common timeslot within said resource bandwidth, the method further characterized in that : - an integer number of repetitive transmissions of a whole block of physical data, and a first portion of one further transmission of the block of physical data, is scheduled within a first timeslot over the full frequency range of the resource bandwidth, and - a second portion of the further transmission of the block of physical data is scheduled within a second timeslot. transmitting resource allocation information, identifying resources within a resource bandwidth, addressed to the user equipment, wherein said resource allocation information comprises an indication of frequency domain repetition, wherein said frequency domain repetition is associated with a predetermined mapping of repetitions involving scheduled repetitive transmission of physical data within radio resource units at different frequencies of a common timeslot within said resource bandwidth, the method further characterized in that : - an integer number of repetitive transmissions of a whole block of physical data, and a first portion of one further transmission of the block of physical data, is scheduled within a first timeslot over the full frequency range of the resource bandwidth, and - a second portion of the further transmission of the block of physical data is scheduled within a second timeslot. - an integer number of repetitive transmissions of a whole block of physical data, and a first portion of one further transmission of the block of physical data, is scheduled within a first timeslot over the full frequency range of the resource bandwidth, and - a second portion of the further transmission of the block of physical data is scheduled within a second timeslot.
Human interleukin-2 (IL-2) for use in the treatment of amyotrophic lateral sclerosis in a human subject, wherein each dose of human IL-2 administered to said subject is between 0.1 x10 6 to 3x10 6 international units (IU) and said treatment does not comprise the administration of regulatory T-cells (Tregs) to the subject and does not comprise the administration of rapamycin or any other suppressive agent of effector T cells (Teffs) to the subject, wherein the human IL-2 administered to the patient is not complexed with anti-human IL-2 antibodies.
An apparatus for use in delivering a blended fracturing fluid to a wellbore, the apparatus comprising: an electric blender module comprising: a first electrically driven blender unit ; a first inlet manifold coupled to the first electrically driven blender unit and capable of delivering an unblended fracturing fluid thereto; a first outlet manifold coupled to the first electrically driven blender unit and capable of delivering the blended fracturing fluid away therefrom; a second electrically driven blender unit ; a second inlet manifold coupled to the second electrically driven blender unit and capable of delivering the unblended fracturing fluid thereto; a second outlet manifold coupled to the second electrically driven blender unit and capable of delivering the blended fracturing fluid away therefrom; an inlet crossing line coupled to the first inlet manifold and the second inlet manifold and capable of delivering the unblended fracturing fluid therebetween; and an outlet crossing line coupled to the first outlet manifold and the second outlet manifold and capable of delivering the blended fracturing fluid therebetween. a first electrically driven blender unit ; a first inlet manifold coupled to the first electrically driven blender unit and capable of delivering an unblended fracturing fluid thereto; a first outlet manifold coupled to the first electrically driven blender unit and capable of delivering the blended fracturing fluid away therefrom; a second electrically driven blender unit ; a second inlet manifold coupled to the second electrically driven blender unit and capable of delivering the unblended fracturing fluid thereto; a second outlet manifold coupled to the second electrically driven blender unit and capable of delivering the blended fracturing fluid away therefrom; an inlet crossing line coupled to the first inlet manifold and the second inlet manifold and capable of delivering the unblended fracturing fluid therebetween; and an outlet crossing line coupled to the first outlet manifold and the second outlet manifold and capable of delivering the blended fracturing fluid therebetween.
Glass furnace with at least one glass melting tank for optionally continuous or discontinuous operation with spatially separated and via connections mutually connected tank areas for the rough melting, the refining and the intermediate storage of molten glass, wherein all tank areas have electrical heating electrodes for heating, and which glass furnace further has a control for regulating the withdrawal quantity and/or for the filling level in the tank area for the intermediate storage, characterized in that the glass furnace is sealed off from the atmosphere so that gas areas are arranged above the tank areas, that the tank area for the intermediate storage is the largest of all three tank areas , and that the control has a data input for energy availability parameters and a processing unit designed to evaluate the data obtained via the data input into control data as a basis for the above-mentioned control, the control being designed to fill the tank area for intermediate storage during the time of favourable energy prices and to empty it during the time of unfavourable energy prices.
A monoclonal antibody that specifically binds to a C-terminus amino acid sequence QGASTQGLWE (SEQ ID NO: 1).
A process for producing acetic acid, comprising: separating a reaction medium in a flash vessel to form a liquid recycle stream and a vapor product stream comprising acetic acid in an amount from 60 to 70 wt.%, methyl iodide in an amount from 25 to 35 wt.%, methyl acetate in an amount from 0.5 to 6.5 wt.%, water in an amount from 1 to 8 wt.%, acetaldehyde in an amount from 0.01 to 0.7 wt.%, and hydrogen iodide in an amount less than or equal to 0.1 wt.%; and distilling at least a portion of the vapor product stream in a first column to obtain an acetic acid product stream comprising acetic acid and hydrogen iodide in an amount of less than or equal to 300 wppm, preferably less than or equal to 50 wppm, and an overhead stream comprising methyl iodide, water and methyl acetate. separating a reaction medium in a flash vessel to form a liquid recycle stream and a vapor product stream comprising acetic acid in an amount from 60 to 70 wt.%, methyl iodide in an amount from 25 to 35 wt.%, methyl acetate in an amount from 0.5 to 6.5 wt.%, water in an amount from 1 to 8 wt.%, acetaldehyde in an amount from 0.01 to 0.7 wt.%, and hydrogen iodide in an amount less than or equal to 0.1 wt.%; and distilling at least a portion of the vapor product stream in a first column to obtain an acetic acid product stream comprising acetic acid and hydrogen iodide in an amount of less than or equal to 300 wppm, preferably less than or equal to 50 wppm, and an overhead stream comprising methyl iodide, water and methyl acetate.
An applicator for spraying hair building solids, the applicator is configured for one-handed operation and comprises an applicator body which is connectable with a container comprising hair building solids, the applicator body comprises: a top part , a bottom part and a main part extending between the top part and the bottom part ; an air pump electrically configured for creating an air flow; a nozzle for spraying hair building solids out from the applicator ; the bottom part comprises an attachment structure for attaching the container to the applicator body , a first orifice in flow connection with the air pump for delivering air flow from the air pump via the bottom part and a second orifice in flow connection with the nozzle for delivering hair building solids via the bottom part to the nozzle , characterized in that the first orifice is arranged closer to the nozzle than the second orifice , the first orifice is smaller in diameter than the second orifice and the first orifice and the second orifice are arranged in line with the nozzle when seeing from above. a top part , a bottom part and a main part extending between the top part and the bottom part ; an air pump electrically configured for creating an air flow; a nozzle for spraying hair building solids out from the applicator ; the bottom part comprises an attachment structure for attaching the container to the applicator body , a first orifice in flow connection with the air pump for delivering air flow from the air pump via the bottom part and a second orifice in flow connection with the nozzle for delivering hair building solids via the bottom part to the nozzle , characterized in that the first orifice is arranged closer to the nozzle than the second orifice , the first orifice is smaller in diameter than the second orifice and the first orifice and the second orifice are arranged in line with the nozzle when seeing from above.
A method of analyzing a maternal plasma sample of a pregnant woman, the maternal plasma sample including cell-free DNA fragments originating from maternal cells and from fetal cells, the method comprising: (a) sequencing a plurality of the DNA fragments to obtain a plurality of sequence reads comprising the outermost nucleotides at each end of a plurality of DNA fragments; (b) aligning the sequence reads to a reference genome, thereby obtaining a set of genomic coordinates including genomic coordinates of the outermost nucleotides defining a size of a DNA fragment for each of the plurality of DNA fragments; (c) calculating a value of a parameter based on an amount of DNA fragments of a particular size or range of sizes, the parameter providing a statistical measure of a size profile of DNA fragments in the maternal plasma sample; (d) comparing the value to a calibration value; and (e) estimating the fractional concentration of fetal DNA in the maternal plasma sample based on the comparison. (a) sequencing a plurality of the DNA fragments to obtain a plurality of sequence reads comprising the outermost nucleotides at each end of a plurality of DNA fragments; (b) aligning the sequence reads to a reference genome, thereby obtaining a set of genomic coordinates including genomic coordinates of the outermost nucleotides defining a size of a DNA fragment for each of the plurality of DNA fragments; (c) calculating a value of a parameter based on an amount of DNA fragments of a particular size or range of sizes, the parameter providing a statistical measure of a size profile of DNA fragments in the maternal plasma sample; (d) comparing the value to a calibration value; and (e) estimating the fractional concentration of fetal DNA in the maternal plasma sample based on the comparison.
Method for operating a liquid-conducting household appliance having a pump element , a liquid reservoir and an output line by means of a control facility , wherein in a first operating state (B1) a liquid is carried out of the liquid reservoir via the output line from the liquid-conducting household appliance by means of the pump element , and characterised in that in a second operating state (B2), a return flow (RF) of the liquid out of the output line into the pump element is detected by means of the pump element , wherein an installation condition of the liquid-conducting household appliance is determined on the basis of the return flow (RF) detected in the second operating state (B2), wherein the installation condition is a relative alignment of an installation region with respect to the pump element and/or a liquid level in the liquid reservoir and/or a course of a connection line .
Transmission having a shifting unit , wherein the shifting unit comprises a shifting fork and a sensor assembly for sensing a shifting fork position, wherein the shifting fork has two fork limbs and a fastening region for fastening the shifting fork on a shifting rail , wherein the sensor assembly comprises a signal encoder on the shifting fork and a signal pickup which is arranged fixed to a transmission housing , wherein the fork limbs and the fastening region are fabricated together as a single-piece shifting fork body , and wherein the shifting fork body has a recess for accommodating the signal encoder , wherein the signal encoder is arranged directly on the shifting fork body , characterized in that the shifting fork body is composed of a non-ferritic material, and in that the signal encoder is a magnet.
A microelectronic unit comprising: a semiconductor element having a front surface and a rear surface remote from the front surface; a packaging layer of silicon, glass or ceramic attached to the front surface of the semiconductor element , wherein the semiconductor element includes a light detector disposed adjacent to the front surface and aligned with a portion of the rear surface to receive light through the rear surface portion, and a conductive contact at the front surface connected to the light detector , wherein the light detector includes a plurality of light detector elements arranged in an array, wherein the conductive contact is at least partially within the semiconductor element , wherein the conductive contact includes several layers of metal connected to each other by conductive vias or other vertical structures; a recess extending into the conductive contact to within the semiconductor element and to a depth not greater than the back surface of the metal layer of the conductive contact which is closest to the rear surface of the semiconductor element ; and a conductive interconnect extending through the packaging layer and within the recess to within the semiconductor element , at least a portion of the conductive interconnect being exposed at a surface of the microelectronic unit , wherein an active region of the semiconductor element is electrically isolated from the conductive interconnect within the recess . a semiconductor element having a front surface and a rear surface remote from the front surface; a packaging layer of silicon, glass or ceramic attached to the front surface of the semiconductor element , wherein the semiconductor element includes a light detector disposed adjacent to the front surface and aligned with a portion of the rear surface to receive light through the rear surface portion, and a conductive contact at the front surface connected to the light detector , wherein the light detector includes a plurality of light detector elements arranged in an array, wherein the conductive contact is at least partially within the semiconductor element , wherein the conductive contact includes several layers of metal connected to each other by conductive vias or other vertical structures; a recess extending into the conductive contact to within the semiconductor element and to a depth not greater than the back surface of the metal layer of the conductive contact which is closest to the rear surface of the semiconductor element ; and a conductive interconnect extending through the packaging layer and within the recess to within the semiconductor element , at least a portion of the conductive interconnect being exposed at a surface of the microelectronic unit , wherein an active region of the semiconductor element is electrically isolated from the conductive interconnect within the recess .
A method for regenerating used foundry sand with water glass adhered thereto, wherein: - the method comprises to provide a mould material mixture which comprises at least a foundry sand and at least a water glass containing binding agent as well as a particulate metal oxide and a phosphorus-containing additive which is in the form of a phosphorus-containing compound, wherein the particulate metal oxide is added as synthetically produced amorphous silicon dioxide to the mould material mixture, the mould material mixture is processed to a new casting mould and is cured by means of heat supply under removal of water and wherein a metal casting is conducted with the new casting mould to obtain a used casting mould comprising used foundry sand with a casting, and - the used foundry sand is subjected to thermal treatment, wherein the used foundry sand is heated to a temperature of at least 200°C, wherein before or after the thermal treatment a mechanical treatment is conducted to the used foundry sand for grain-singling, - whereby a regenerated grain-singled foundry sand is obtained. - the method comprises to provide a mould material mixture which comprises at least a foundry sand and at least a water glass containing binding agent as well as a particulate metal oxide and a phosphorus-containing additive which is in the form of a phosphorus-containing compound, wherein the particulate metal oxide is added as synthetically produced amorphous silicon dioxide to the mould material mixture, the mould material mixture is processed to a new casting mould and is cured by means of heat supply under removal of water and wherein a metal casting is conducted with the new casting mould to obtain a used casting mould comprising used foundry sand with a casting, and - the used foundry sand is subjected to thermal treatment, wherein the used foundry sand is heated to a temperature of at least 200°C, wherein before or after the thermal treatment a mechanical treatment is conducted to the used foundry sand for grain-singling, - whereby a regenerated grain-singled foundry sand is obtained.
An inkjet printer comprising: a main frame ; a first roller attached to the main frame ; a second roller attached to the main frame ; a transport belt wound around the first roller and the second roller and configured to transport a medium (P) in a transport direction by rotating while supporting the medium (P); and a printing unit configured to perform printing on the medium (P) supported on the transport belt , wherein the main frame is configured of a plurality of blocks that are separably connected with one another in the transport direction, characterised in that at least one of the first roller and the second roller is defined as a roller to be consolidated, and the first roller , the second roller , and the transport belt are configured to be consolidated in a consolidation block, which is a block for consolidation, by moving the roller to be consolidated from a deployment block, which is a block where the roller to be consolidated is fixed when the medium (P) is transported, to the consolidation block. a main frame ; a first roller attached to the main frame ; a second roller attached to the main frame ; a transport belt wound around the first roller and the second roller and configured to transport a medium (P) in a transport direction by rotating while supporting the medium (P); and a printing unit configured to perform printing on the medium (P) supported on the transport belt , wherein the main frame is configured of a plurality of blocks that are separably connected with one another in the transport direction, characterised in that at least one of the first roller and the second roller is defined as a roller to be consolidated, and the first roller , the second roller , and the transport belt are configured to be consolidated in a consolidation block, which is a block for consolidation, by moving the roller to be consolidated from a deployment block, which is a block where the roller to be consolidated is fixed when the medium (P) is transported, to the consolidation block.
A manufacturing method of a U-shaped stringer fabricated preformed structure, the manufacturing method adopting a mold for preforming of a U-shaped stringer, wherein the mold for preforming of a U-shaped stringer comprises: a base ; a rigid mold , detachably arranged on the base , the rigid mold being of a U-shaped structure and wrapping around three adjacent external sidewall surfaces of the base ; and an elastic mold , arranged on the rigid mold , the elastic mold being of a U-shaped structure and wrapping around external sidewall surfaces of the rigid mold ; and wherein manufacturing method of a U-shaped stringer fabricated preformed structure comprises: installing the rigid mold on the base ; laying a multi-layer structure on the rigid mold , and curing and milling the multi-layer structure to form the elastic mold having a U-shaped structure; laying a prepreg layer on the elastic mold , forming a U-shaped prepreg layer by performing vacuum preloading on the prepreg layer, and forming a U-shaped stringer preformed structure by the base , the rigid mold , the elastic mold , and the U-shaped prepreg layer ; and distributing a plurality of U-shaped stringer preformed structures in a horizontal direction, and disposing an intermediate interlayer between every two adjacent U-shaped stringer preformed structures. a base ; a rigid mold , detachably arranged on the base , the rigid mold being of a U-shaped structure and wrapping around three adjacent external sidewall surfaces of the base ; and an elastic mold , arranged on the rigid mold , the elastic mold being of a U-shaped structure and wrapping around external sidewall surfaces of the rigid mold ; and wherein manufacturing method of a U-shaped stringer fabricated preformed structure comprises: installing the rigid mold on the base ; laying a multi-layer structure on the rigid mold , and curing and milling the multi-layer structure to form the elastic mold having a U-shaped structure; laying a prepreg layer on the elastic mold , forming a U-shaped prepreg layer by performing vacuum preloading on the prepreg layer, and forming a U-shaped stringer preformed structure by the base , the rigid mold , the elastic mold , and the U-shaped prepreg layer ; and distributing a plurality of U-shaped stringer preformed structures in a horizontal direction, and disposing an intermediate interlayer between every two adjacent U-shaped stringer preformed structures. installing the rigid mold on the base ; laying a multi-layer structure on the rigid mold , and curing and milling the multi-layer structure to form the elastic mold having a U-shaped structure; laying a prepreg layer on the elastic mold , forming a U-shaped prepreg layer by performing vacuum preloading on the prepreg layer, and forming a U-shaped stringer preformed structure by the base , the rigid mold , the elastic mold , and the U-shaped prepreg layer ; and distributing a plurality of U-shaped stringer preformed structures in a horizontal direction, and disposing an intermediate interlayer between every two adjacent U-shaped stringer preformed structures.