mhurhangee/patent-ind-claim-en huggingface dataset:
A cryogenic energy storage system, comprising: at least one cryogenic fluid storage tank having an output; a primary conduit through which a stream of cryogenic fluid may flow from the output of the fluid storage tank to an exhaust of the cryogenic energy storage system; a pump within the primary conduit downstream of the output of the tank for pressurising the cryogenic fluid stream; evaporative means within the primary conduit downstream of the pump for vaporising the pressurised cryogenic fluid stream; at least one expansion stage within the primary conduit downstream of the evaporative means for expanding the vaporised cryogenic fluid stream and for extracting work therefrom; a secondary conduit configured to divert at least a portion of the cryogenic fluid stream from the primary conduit and reintroduce it to the cryogenic fluid storage tank; and primary pressure control means within the secondary conduit for controlling the flow of the diverted cryogenic fluid stream and thereby controlling the pressure within the tank; wherein the secondary conduit is coupled to the primary conduit downstream of one or more of the at least one expansion stages. at least one cryogenic fluid storage tank having an output; a primary conduit through which a stream of cryogenic fluid may flow from the output of the fluid storage tank to an exhaust of the cryogenic energy storage system; a pump within the primary conduit downstream of the output of the tank for pressurising the cryogenic fluid stream; evaporative means within the primary conduit downstream of the pump for vaporising the pressurised cryogenic fluid stream; at least one expansion stage within the primary conduit downstream of the evaporative means for expanding the vaporised cryogenic fluid stream and for extracting work therefrom; a secondary conduit configured to divert at least a portion of the cryogenic fluid stream from the primary conduit and reintroduce it to the cryogenic fluid storage tank; and primary pressure control means within the secondary conduit for controlling the flow of the diverted cryogenic fluid stream and thereby controlling the pressure within the tank; wherein the secondary conduit is coupled to the primary conduit downstream of one or more of the at least one expansion stages.
A method for detecting a structural variant comprising: amplifying a nucleic acid sample in the presence of a primer pool to produce a plurality of amplicons, the primer pool including first and second pairs of primers, the first pair of primers including a first and a second primer flanking a first breakpoint region associated with a first breakpoint, the second pair of primers including a third primer and a fourth primer flanking a second breakpoint region associated with a second breakpoint; sequencing the amplicons by next generation sequencing to generate a plurality of reads; mapping the reads to a reference sequence, the reference sequence including a whole or partial genome; and detecting the structural variant between the first breakpoint and the second breakpoint in the nucleic acid sample when a first portion of the plurality of reads is partially mapped to a first region and partially mapped to a second region of the reference genome, wherein the first region is between the first primer and the first breakpoint and wherein the second region is between the second breakpoint and the fourth primer. amplifying a nucleic acid sample in the presence of a primer pool to produce a plurality of amplicons, the primer pool including first and second pairs of primers, the first pair of primers including a first and a second primer flanking a first breakpoint region associated with a first breakpoint, the second pair of primers including a third primer and a fourth primer flanking a second breakpoint region associated with a second breakpoint; sequencing the amplicons by next generation sequencing to generate a plurality of reads; mapping the reads to a reference sequence, the reference sequence including a whole or partial genome; and detecting the structural variant between the first breakpoint and the second breakpoint in the nucleic acid sample when a first portion of the plurality of reads is partially mapped to a first region and partially mapped to a second region of the reference genome, wherein the first region is between the first primer and the first breakpoint and wherein the second region is between the second breakpoint and the fourth primer.
A rotor , comprising a rotation shaft , a rotor iron core , and a plurality of rotor windings , wherein the rotor iron core is sleeved on the rotation shaft , the rotor winding is wound around the rotor iron core , and the plurality of rotor windings are spaced apart in a circumferential direction of the rotor iron core ; the rotation shaft has a first flow channel distributed in an axial direction, the rotation shaft further has a first through hole , and the first through hole is connected to the first flow channel ; and the rotor iron core has a second flow channel , both ends of the second flow channel extend to both ends of the rotor iron core , the second flow channel comprises a first inlet end , a first axial flow channel , and a first outlet end that are connected to each other, the first inlet end is connected to the first through hole , and the first axial flow channel is located between two adjacent rotor windings ; wherein the rotor further comprises an end plate and an excitation module , wherein the end plate is located on one side of the rotor iron core, the end plate is adjacent to the first inlet end, and the excitation module is disposed on the end plate; and the end plate has a plurality of third grooves , the plurality of third grooves are distributed in the circumferential direction of the rotor iron core , the first inlet end comprises a first radial flow channel distributed in a radial direction of the rotor iron core , the first radial flow channel is connected to the first axial flow channel , and the third groove covers a part of the first radial flow channel . the rotation shaft has a first flow channel distributed in an axial direction, the rotation shaft further has a first through hole , and the first through hole is connected to the first flow channel ; and the rotor iron core has a second flow channel , both ends of the second flow channel extend to both ends of the rotor iron core , the second flow channel comprises a first inlet end , a first axial flow channel , and a first outlet end that are connected to each other, the first inlet end is connected to the first through hole , and the first axial flow channel is located between two adjacent rotor windings ; wherein the rotor further comprises an end plate and an excitation module , wherein the end plate is located on one side of the rotor iron core, the end plate is adjacent to the first inlet end, and the excitation module is disposed on the end plate; and the end plate has a plurality of third grooves , the plurality of third grooves are distributed in the circumferential direction of the rotor iron core , the first inlet end comprises a first radial flow channel distributed in a radial direction of the rotor iron core , the first radial flow channel is connected to the first axial flow channel , and the third groove covers a part of the first radial flow channel .
Machine for machining workpieces, having at least three stations and having a movably mounted table , wherein at least one clamping device for clamping a workpiece, and the clamped workpiece can be transferred into the working regions of the stations by a movement of the table, wherein a first station is configured as a processing station for processing a surface of the workpiece with a tool held by a tool holder , wherein the tool holder is connected to a feed unit and the feed unit is mounted such that the feed unit can be aligned with respect to the workpiece by an alignment unit, characterized in that according to the invention, a second station comprises a cleaning device for removing coolant and/or lubricant residues from the machined surface, and a third station comprises a measuring device that optically determines at least one surface property of the finished and cleaned surface of the workpiece, wherein the measuring device is connected to an evaluation unit, which is embodied to evaluate the optically determined surface property and to determine on the basis of the evaluation, the extent that orientation of the tool holder has to be readjusted by the alignment unit to comply with tolerance specifications.
Use of a composition for regulating the cell cycle of hematopoietic stem cells, the composition comprising: a KAI1(CD82) polypeptide or a gene encoding the same, and a DARC polypeptide or a gene encoding the same., wherein the use is in vitro. a KAI1(CD82) polypeptide or a gene encoding the same, and a DARC polypeptide or a gene encoding the same., wherein the use is in vitro.
An anode active material for a lithium secondary battery, comprising: a carbon-based particle comprising pores, wherein a pore size of the carbon-based particle is 20 nm or less; and silicon formed at an inside of the pores of the carbon-based particle or on the surface of the carbon-based particle, wherein the pore size of the carbon-based particle is determined based on nitrogen gas adsorption-desorption using a Barrett-Joyner-Halenda (BJH) method, wherein a peak intensity ratio in a Raman spectrum of silicon defined by Equation 2 is 1.2 or less: Peak intensity ratio of Raman spectrum = I 515 / I 480 wherein, in Equation 2, I is a peak intensity of silicon in a region having a wavenumber of 515 cm -1 in the Raman spectrum, and I is a peak intensity of silicon in a region having a wavenumber of 480 cm -1 in the Raman spectrum. a carbon-based particle comprising pores, wherein a pore size of the carbon-based particle is 20 nm or less; and silicon formed at an inside of the pores of the carbon-based particle or on the surface of the carbon-based particle, wherein the pore size of the carbon-based particle is determined based on nitrogen gas adsorption-desorption using a Barrett-Joyner-Halenda (BJH) method, wherein a peak intensity ratio in a Raman spectrum of silicon defined by Equation 2 is 1.2 or less: Peak intensity ratio of Raman spectrum = I 515 / I 480 wherein, in Equation 2, I is a peak intensity of silicon in a region having a wavenumber of 515 cm -1 in the Raman spectrum, and I is a peak intensity of silicon in a region having a wavenumber of 480 cm -1 in the Raman spectrum.
Method for packaging products, wherein a tray is generated by means of bonding a plastic film on a base film of a material of plant or cellulosic origin, the tray comprising a cavity (9.1) of a given perimeter and area and a rim (9.2) surrounding the cavity (9.1), and said cavity (9.1) being generated by applying a given pressure on a forming area (1.0, 2.0) of said films , a product to be packaged is arranged in the cavity (9.1) of the tray , a lid film is sealed to at least the rim (9.2) of the tray , with the product arranged in the cavity (9.1), said tray being thus closed, and the set formed by the lid film and the tray is cut after said sealing, a package (E) being obtained, characterized in that before generating the tray and before pressing the base film , at least one support cut (1.2) is generated in the forming area (1.0) of the base film , such that the subsequent pressure that is applied on said forming area (1.0) causes the separation of the regions of said base film which are on either side of the support cut (1.2), the base film having at least one gap (1.9) in the cavity (9.1) of the tray as a result of said separation, such that a package (E) with a tray in which the area of the cavity (9.1) of the tray is larger than the forming area (1.0) of the base film is obtained.
Heat usage system, in particular for buildings, in particular residential buildings, with at least two heat sources which each have a supply and a return , with at least one heat carrier circuit system for transporting the heat from at least one of the heat sources to at least one heat consumer, with a central circulation pump unit for maintaining a heat carrier circulation flow in the heat carrier circuit system , with jet pumps upstream of the heat sources , wherein each jet pump has a drive port , a suction port and a diffuser port , wherein the diffuser ports are each connected to a respective return, characterised in that the heat sources are differently configured heat sources , and that the suction ports are connected to the respective supply , and the drive ports are connected via a return collection line to the pressure side of a circulation pump unit which comprises one or more electric pumps so that the circulation pump unit is connected directly to the return of all heat consumers or a buffer store .
A disc shaped throwing object having a central axis (AX) defined through a disc centre, the object comprising a first air cushion section joined to a rim , the rim comprising an inner surface (RIS) radially displaced from the central axis and a sequence of curved contour sections (CS1, CS2, CS3, CS4), where the inner surface (RIS) of the rim is at one end joined to an inner surface (BSIS) of the first air cushion section and at a second end is joined to an outer surface (BSOS) of the first air cushion section via said contour sections (CS1, CS2, CS3 Cs4), where the contour sections (CS1, CS2, CS3, CS4) interconnect the inner surface (RIS) of the rim with the outer surface (BSOS) of the first air cushion section via a first extreme radius (ER1) placed at a maximum horizontal distance from the inner surface (RIS) of the rim , wherein the inner surface (BSIS) of the first air cushion section has a first curvature and a last contour section (CS4) in the sequence together with at least a part of the outer surface (BSOS) of the first air cushion section has a second, different curvature, said curvatures causing the thickness of the first air cushion section to decrease towards the central axis and characterised in that the first curvature is an exponential curvature starting from a starting radius (SR) on the inner surface (RIS) of the rim and the second curvature is a parabolic curvature starting from the first extreme radius (ER1).
Power plant comprising a gas turbine , a heat recovery steam generator , and an intermediate circuit with a first heat exchanger , which is connected into an air inlet of the gas turbine , and a second heat exchanger , which is connected into a condensate circuit and comprises a condensate preheater in the heat recovery steam generator , characterized in that a first high-load valve and second high-load valve and, parallel thereto, a first low-load valve and second low-load valve , for smaller throughflows than through the first high-load valve and second high-load valve , are arranged on both sides of the second heat exchanger .
Device for measuring a tyre and components of the tyre , having a first measuring component and a second measuring component , wherein the first measuring component and the second measuring component are respectively intended for carrying out a time-of-flight method, and having an evaluation component , wherein the evaluation component is intended for evaluating measuring variables measured by means of the first measuring component and by means of the second measuring component , wherein the first measuring component has a first emission element and a first detection element and wherein the second measuring component has a second emission element and a second detection element , wherein the first emission element is intended for emitting first electromagnetic waves in a first emitting direction and the first detection element is intended for detecting the first electromagnetic waves after reflection of the first electromagnetic waves and wherein the second emission element is intended for emitting second electromagnetic waves in a second emitting direction and the second detection element is intended for detecting the second electromagnetic waves after reflection of the second electromagnetic waves , wherein the first emitting direction and the second emitting direction are parallel to one another, wherein the first electromagnetic waves lie in a first wavelength range and the second electromagnetic waves lie in a second wavelength range, wherein the first wavelength range is different from the second wavelength range and the first wavelength range does not overlap with the second wavelength range, characterized in that the first electromagnetic waves are laser waves and the second electromagnetic waves are radar waves.
A method for limiting supply of energy from an Induction Power Harvester (IPH) , the IPH being configured to provide energy for an electrical load , the IPH comprising a first winding having a first tap and a second tap, the first tap associated with a first number of turns between a third terminal and a fourth terminal of the first winding and the second tap associated with a second number of turns between a first terminal and a second terminal of the first winding, wherein the first number is larger than the second number, the method comprising: converting an alternating current (AC) power signal that is generated across said first and second terminals of said first winding of the IPH to a direct current (DC) input signal for a DC-to-DC converter , using an AC-to-DC converter connected to said first and second terminals through said second tap; and generating a short circuit across said third and fourth terminals of the first winding of the IPH in response to the DC input signal being greater than or equal to a first threshold, using a shorting switch connected to said third and fourth terminals through said first tap, thereby limiting the supply of energy from the IPH ; wherein at least one of the first or second terminals is connected to the AC-to-DC converter and not connected to the shorting switch . converting an alternating current (AC) power signal that is generated across said first and second terminals of said first winding of the IPH to a direct current (DC) input signal for a DC-to-DC converter , using an AC-to-DC converter connected to said first and second terminals through said second tap; and generating a short circuit across said third and fourth terminals of the first winding of the IPH in response to the DC input signal being greater than or equal to a first threshold, using a shorting switch connected to said third and fourth terminals through said first tap, thereby limiting the supply of energy from the IPH ; wherein at least one of the first or second terminals is connected to the AC-to-DC converter and not connected to the shorting switch .
A method of molding a single-phase solution, the method comprising: forming the single-phase solution, wherein the single-phase solution is comprised of a polymer composition and a gas; pressurizing a mold cavity of a mold above atmospheric pressure to a mold pressure, wherein the mold pressure is at least a pressure to maintain the single-phase solution as a single phase; injecting the single-phase solution into the mold cavity ; and maintaining at least the mold pressure in the mold cavity during the injecting of the single-phase solution, characterized in that the method further comprises cooling the single-phase solution below a glass transition temperature of the polymer and gas solution to form a single-phase, solid article .
A cutting insert for cutting work material, the cutting insert comprising: two principal surfaces opposite to each other; and a side surface connecting each of the principal surfaces to each other, wherein a boundary portion between each of the principal surfaces and the side surface forms a cutting edge that is formed of CBN as a whole, and wherein the side surface is provided with a groove so that the groove is recessed with respect to the side surface , wherein the groove is formed in a central portion of the side surface , characterised in that , in a case where a thickness of the insert is indicated as "a", and a width of the grove is indicated as "b", the following expression is satisfied: (a-b)/2≥1 mm. two principal surfaces opposite to each other; and a side surface connecting each of the principal surfaces to each other, wherein a boundary portion between each of the principal surfaces and the side surface forms a cutting edge that is formed of CBN as a whole, and wherein the side surface is provided with a groove so that the groove is recessed with respect to the side surface , wherein the groove is formed in a central portion of the side surface , characterised in that , in a case where a thickness of the insert is indicated as "a", and a width of the grove is indicated as "b", the following expression is satisfied: (a-b)/2≥1 mm.
An air conditioner indoor unit , comprising: an air outlet ; an air outlet component provided at the air outlet and configured to change an outlet airflow effect of the air outlet ; a heat exchange component and an air supplying component , the air supplying component being configured to make the air enter the air conditioner indoor unit and exchange heat with the heat exchange component , and then make the air, after exchanging heat, flow to the air outlet component , so as to be blown out through the air outlet ; and a detection component comprising a first detection device , the first detection device being mounted on the air outlet component and being configured to detect a refrigerant leakage condition of the air conditioner indoor unit ; characterized in that wherein the first detection device comprises a detection body and a transmission wire , the transmission wire electrically couples the detection body to an electric control board of the air conditioner indoor unit , the air outlet component defines a wiring trough for a wiring of the transmission wire ; or wherein the first detection device comprises a detection body and a power storage member , the power storage member is electrically coupled to the detection body , the detection body and an electric control board of the air conditioner indoor unit are provided with no transmission wire therebetween. an air outlet ; an air outlet component provided at the air outlet and configured to change an outlet airflow effect of the air outlet ; a heat exchange component and an air supplying component , the air supplying component being configured to make the air enter the air conditioner indoor unit and exchange heat with the heat exchange component , and then make the air, after exchanging heat, flow to the air outlet component , so as to be blown out through the air outlet ; and a detection component comprising a first detection device , the first detection device being mounted on the air outlet component and being configured to detect a refrigerant leakage condition of the air conditioner indoor unit ; characterized in that wherein the first detection device comprises a detection body and a transmission wire , the transmission wire electrically couples the detection body to an electric control board of the air conditioner indoor unit , the air outlet component defines a wiring trough for a wiring of the transmission wire ; or wherein the first detection device comprises a detection body and a power storage member , the power storage member is electrically coupled to the detection body , the detection body and an electric control board of the air conditioner indoor unit are provided with no transmission wire therebetween.