mhurhangee/patent-ind-claim-en huggingface dataset:
A method for forming a composite object in an loT network, the method being performed by an apparatus including the composite object which includes a device owner, also including a name server, the method comprising building , by a primary collection group member of the composite object, a list of sub-objects making up the composite object; creating , by the primary collection group member, a first collection group identifier; sending , by one or more of the sub-objects, corresponding one or more join requests to the name server; accepting , by the name server, the first collection group identifier from the primary collection group member; getting , by the name server, the first collection group identifier from a blockchain; determining , from the blockchain, if the first collection group identifier is already in use; and in response to determining that the first collection group identifier is in use, generating a second collection group identifier; and in response to determining that the first collection group identifier is not in use, determining whether group membership is privacy sensitive; in response to determining that the group membership is privacy sensitive acting , by the primary collection group member, as a proxy brokering join requests from the sub-objects determining whether a requester is an authorized group member; in response to determining that the requester is an authorized group member performing a join request; and committing , by the name server, the first collection group identifier to the blockchain. building , by a primary collection group member of the composite object, a list of sub-objects making up the composite object; creating , by the primary collection group member, a first collection group identifier; sending , by one or more of the sub-objects, corresponding one or more join requests to the name server; accepting , by the name server, the first collection group identifier from the primary collection group member; getting , by the name server, the first collection group identifier from a blockchain; determining , from the blockchain, if the first collection group identifier is already in use; and in response to determining that the first collection group identifier is in use, generating a second collection group identifier; and in response to determining that the first collection group identifier is not in use, determining whether group membership is privacy sensitive; in response to determining that the group membership is privacy sensitive acting , by the primary collection group member, as a proxy brokering join requests from the sub-objects determining whether a requester is an authorized group member; in response to determining that the requester is an authorized group member performing a join request; and committing , by the name server, the first collection group identifier to the blockchain.
A method comprising: a) providing a biological sample from a subject having bladder cancer; b) measuring levels of expression in the biological sample of genes BAMBI, SPINK1, TIMP2, GRHL3, ERBB2, SAA1, TGFBI, UPK3A, VIM, PAQR7, TMEM45B, LAMC2, FLRT3, TNFRSF21, ATP8B1, BGN, TACSTD2, LRRC37A2, CPSF6, PLP2, SAMD9, ZNF486, DCN, FBP1, EFEMP1, TPM2, MALL, TMPRSS2, MYL9, HLA-DRA, C3, IGFL1, KRT7, CTSK, SYTL2, MMP2, GBP5, SPRR2F, IER3, KRT23, GJB2, PLXNB2, TMSB10, ITGA6, HIST1H2BF, TBX3, PPARG, FGFBP1, ZNF91, ACOX1, MAL, STS, SERPINB3, TOX3, TWIST2, HLA-A, SCCPDH, CYP4Z2P, GSTM2, SNAI2, ACTG2, UGT1A8, IFITM2, DDIT4, MGP, CRISP3, UGT1A3, SNCG, SEMA5A, PTPRM, RNF128, POSTN, LAPTM5, MMP1, ASPN, SULF1, TNC, DSP, ADAM10, CD74, SCNN1B, TIMP3, CASP14, S100P, PVRL4, IGFBP3, MMP13, GABRP, MUC16, COL3A1, RNF138P1, IFI30, CFH, LYZ, AHR, BTBD16, LUM, NQO1, MACC1, TIMP1, GBP1, SFRP2, DUSP1, KRT8, UGT1A4, GOS2, UGT1A1, CGB2, TPX2, EPCAM, NDRG1, SNX31, GATA3, PSCA, KRT5, OLFM4, CALD1, VCAN, EHF, MT1L, PTN, DHRS2, UPK1B, GSTM3, UPK2, MMP12, ACER2, MYH11, SLC14A1, SPARCL1, HPGD, HLA-DRB5, COL1A2, ELF3, THBS2, CD68, RALBP1, CLDN1, CCL5, SAT1, KRT18, SPP1, CXCL17, UGT1A5, ANXA1, AHNAK, UGT1A10, AGR2, and RARRES1; and c) subtyping the bladder cancer of the subject according to a genomic subtyping classifier based on the levels of expression of the plurality of genes, wherein said subtyping comprises assigning the bladder cancer to one of four subtypes selected from the group consisting of a claudin-low subtype, a basal subtype, a luminal-infiltrated subtype, and a luminal non-infiltrated subtype. a) providing a biological sample from a subject having bladder cancer; b) measuring levels of expression in the biological sample of genes BAMBI, SPINK1, TIMP2, GRHL3, ERBB2, SAA1, TGFBI, UPK3A, VIM, PAQR7, TMEM45B, LAMC2, FLRT3, TNFRSF21, ATP8B1, BGN, TACSTD2, LRRC37A2, CPSF6, PLP2, SAMD9, ZNF486, DCN, FBP1, EFEMP1, TPM2, MALL, TMPRSS2, MYL9, HLA-DRA, C3, IGFL1, KRT7, CTSK, SYTL2, MMP2, GBP5, SPRR2F, IER3, KRT23, GJB2, PLXNB2, TMSB10, ITGA6, HIST1H2BF, TBX3, PPARG, FGFBP1, ZNF91, ACOX1, MAL, STS, SERPINB3, TOX3, TWIST2, HLA-A, SCCPDH, CYP4Z2P, GSTM2, SNAI2, ACTG2, UGT1A8, IFITM2, DDIT4, MGP, CRISP3, UGT1A3, SNCG, SEMA5A, PTPRM, RNF128, POSTN, LAPTM5, MMP1, ASPN, SULF1, TNC, DSP, ADAM10, CD74, SCNN1B, TIMP3, CASP14, S100P, PVRL4, IGFBP3, MMP13, GABRP, MUC16, COL3A1, RNF138P1, IFI30, CFH, LYZ, AHR, BTBD16, LUM, NQO1, MACC1, TIMP1, GBP1, SFRP2, DUSP1, KRT8, UGT1A4, GOS2, UGT1A1, CGB2, TPX2, EPCAM, NDRG1, SNX31, GATA3, PSCA, KRT5, OLFM4, CALD1, VCAN, EHF, MT1L, PTN, DHRS2, UPK1B, GSTM3, UPK2, MMP12, ACER2, MYH11, SLC14A1, SPARCL1, HPGD, HLA-DRB5, COL1A2, ELF3, THBS2, CD68, RALBP1, CLDN1, CCL5, SAT1, KRT18, SPP1, CXCL17, UGT1A5, ANXA1, AHNAK, UGT1A10, AGR2, and RARRES1; and c) subtyping the bladder cancer of the subject according to a genomic subtyping classifier based on the levels of expression of the plurality of genes, wherein said subtyping comprises assigning the bladder cancer to one of four subtypes selected from the group consisting of a claudin-low subtype, a basal subtype, a luminal-infiltrated subtype, and a luminal non-infiltrated subtype.
Window washing apparatus , in particular for a motor vehicle, comprising a switching element , a wiper blade which can move over a window , and a wetting means , which comprises at least one pump and one nozzle , for applying a liquid to a window of the motor vehicle, wherein a control device which controls the wetting means is provided, wherein the control device has at least one normal programme and one intensive programme and the intensive programme is selected and started by the control device in the event of three successive operations of the switching element , which operations are performed within two seconds, or in the event of continuous operation of the switching element over a specific operating time period, in particular over two seconds, characterized in that the pump is actuated with a higher voltage in the intensive programme than in the normal programme for the purpose of generating a higher washing water pressure.
A method for configuring on-site a device , said method comprising: generating, using a processor, electronic configuration settings for the device based on site plans of the site where the device is to be installed that specify how to configure the device with site-specific settings and data, the electronic configuration settings including a safety check value; generating, using a code generator , one or more machine readable codes embedding site-specific information and associated with the electronic configuration settings ; generating modified site plans for the device by applying images of the one or more machine readable codes to the site plans for the device by copying the images of the one or more machine readable codes into the site plan ; reading, by a machine readable code reader connected to the device , the images of the one or more codes from the modified site plans to obtain the electronic configuration settings and safety check value; and configuring the device based on the obtained electronic configuration settings . generating, using a processor, electronic configuration settings for the device based on site plans of the site where the device is to be installed that specify how to configure the device with site-specific settings and data, the electronic configuration settings including a safety check value; generating, using a code generator , one or more machine readable codes embedding site-specific information and associated with the electronic configuration settings ; generating modified site plans for the device by applying images of the one or more machine readable codes to the site plans for the device by copying the images of the one or more machine readable codes into the site plan ; reading, by a machine readable code reader connected to the device , the images of the one or more codes from the modified site plans to obtain the electronic configuration settings and safety check value; and configuring the device based on the obtained electronic configuration settings .
Device for storing electrical energy (1; 101) in the form of kinetic energy of the type comprising, placed inside a housing (10 ; 110), a flywheel secured to a shaft , the shaft being mounted freely rotatable relative to the housing by means of rolling means comprising at least two bearings holding the shaft by its ends, as well as conversion means capable of transforming an electrical energy applied at the input of the device into a mechanical energy stored in the flywheel and of transforming a mechanical energy stored in the flywheel into an electrical energy at the output of the device, the storage device comprising a first rotor/stator assembly consisting of a rotor and a stator, the rotor of which is coupled to the shaft and the stator of which is integral with the housing and surrounds the rotor, and a second rotor/stator assembly consisting of a rotor and a stator, the rotor of which is coupled to the shaft and the stator of which is integral with the housing, the housing having two inner walls , each inner wall supporting one of the stators of the two rotor/stator assemblies , characterised in that the device is symmetrical with respect to a median plane (P) orthogonal to an axis of rotation (A) of the shaft, in that the flywheel is annular in shape and a web of the flywheel rests in the median plane; in that said conversion means comprises the first and second rotor/stator assemblies, the rotor of each of the first and second rotor/stator assemblies being fixed directly to the shaft and the stator of each of the first and second rotor/stator assemblies surrounding the corresponding rotor; and in that the first and second rotor/stator assemblies are arranged on either side of said web and housed inside the ring formed by the flywheel .
A method for manufacturing an electrochemical device electrode comprising: a step of spray-drying a slurry comprising an electrode active material and a binder resin, a step of classifying granulated materials obtained by the step of spray-drying, and a step of obtaining an electrode active material layer, by pressure-molding an electrode material containing composite particles for an electrochemical device electrode on the current collector, the composite particles being obtained by the step of classifying, wherein the composite particles for an electrochemical device electrode have particles of 40 μm or less in an amount of 50% or less of an entire amount in a number-based particle size distribution obtained by particle size measurement using a laser light diffraction method, and a cumulative 95% size (D95 size) of 300 μm or less in a volume-based particle size distribution obtained by particle size measurement using a laser light diffraction method. a step of spray-drying a slurry comprising an electrode active material and a binder resin, a step of classifying granulated materials obtained by the step of spray-drying, and a step of obtaining an electrode active material layer, by pressure-molding an electrode material containing composite particles for an electrochemical device electrode on the current collector, the composite particles being obtained by the step of classifying, wherein the composite particles for an electrochemical device electrode have particles of 40 μm or less in an amount of 50% or less of an entire amount in a number-based particle size distribution obtained by particle size measurement using a laser light diffraction method, and a cumulative 95% size (D95 size) of 300 μm or less in a volume-based particle size distribution obtained by particle size measurement using a laser light diffraction method.
A method of generating a set of sequence-verified nucleic acid elements for the combinatorial construction of a genetic design, the method comprising; providing a plurality of nucleic acid parts, comprising one or more categories of nucleic acid parts, wherein nucleic acid parts of each category of parts share a defined structure and/or function, and wherein the plurality of nucleic acid parts comprise one or more of: a set of nucleic acid sequences comprising different promoters; a set of nucleic acid sequences comprising a set of different ribosomal binding sites; a set of coding sequences; and/or a set of nucleic acid sequences comprising a set of different transcription terminators; assembling the nucleic acid parts to form a plurality of nucleic acid elements, wherein the nucleic acid elements comprise at least two sequences selected from the plurality of nucleic acid parts; assembling onto the nucleic acid elements or parts a 3' and/or a 5' flanking nucleic acid sequence, wherein the 3' and/or 5' flanking sequences comprise one or more nucleic acid barcodes, such that each element of the set is uniquely tagged by the one or more nucleic acid barcodes, thereby facilitating selective retrieval of each individual nucleic acid element from the set; and determining the sequence of the nucleic acid elements, thereby providing a set of sequence-verified nucleic acid elements. providing a plurality of nucleic acid parts, comprising one or more categories of nucleic acid parts, wherein nucleic acid parts of each category of parts share a defined structure and/or function, and wherein the plurality of nucleic acid parts comprise one or more of: a set of nucleic acid sequences comprising different promoters; a set of nucleic acid sequences comprising a set of different ribosomal binding sites; a set of coding sequences; and/or a set of nucleic acid sequences comprising a set of different transcription terminators; a set of nucleic acid sequences comprising different promoters; a set of nucleic acid sequences comprising a set of different ribosomal binding sites; a set of coding sequences; and/or a set of nucleic acid sequences comprising a set of different transcription terminators; assembling the nucleic acid parts to form a plurality of nucleic acid elements, wherein the nucleic acid elements comprise at least two sequences selected from the plurality of nucleic acid parts; assembling onto the nucleic acid elements or parts a 3' and/or a 5' flanking nucleic acid sequence, wherein the 3' and/or 5' flanking sequences comprise one or more nucleic acid barcodes, such that each element of the set is uniquely tagged by the one or more nucleic acid barcodes, thereby facilitating selective retrieval of each individual nucleic acid element from the set; and determining the sequence of the nucleic acid elements, thereby providing a set of sequence-verified nucleic acid elements.
A method for supporting random access with beam refinement for wireless communication performed by a user equipment, UE, comprising: transmitting an initial random access request to a base station to establish a wireless connection with the base station; receiving a control channel order from the base station responsive to the initial random access request, the control channel order being indicative of a resource for a beam refinement signal transmission, or multiple resources for multiple beam refinement signal transmissions; transmitting , to the base station, one or more modified random access requests using a set of resources that are based at least in part on the control channel order, the one or more modified random access requests being beam refinement signals; and receiving a random access response in a refined beam from the base station responsive to the one or more modified random access requests. transmitting an initial random access request to a base station to establish a wireless connection with the base station; receiving a control channel order from the base station responsive to the initial random access request, the control channel order being indicative of a resource for a beam refinement signal transmission, or multiple resources for multiple beam refinement signal transmissions; transmitting , to the base station, one or more modified random access requests using a set of resources that are based at least in part on the control channel order, the one or more modified random access requests being beam refinement signals; and receiving a random access response in a refined beam from the base station responsive to the one or more modified random access requests.
A soup cooking control method for a pressure cooker, wherein the pressure cooker comprises a pressure relief valve and a heating body; the soup cooking control method comprises stages of cooking the soup: a preheating and temperature-increasing stage, a medium-high temperature maintenance stage, a high pressure maintenance stage, and a decompression exhaust stage; and the medium-high temperature maintenance stage comprises: opening the pressure relief valve, to allow the pressure cooker to be in a non-closed state (S10); and controlling, under the non-closed state of the pressure cooker, the heating body to supply heat with a first preset heating power, and maintaining an internal temperature of the pressure cooker at a first preset temperature within a first preset duration (S20), characterized in that the pressure cooker further comprises an air pump; and the operation of opening the pressure relief valve, to allow the pressure cooker to be in a non-closed state comprises: turning on the air pump, and drawing external air into the pressure cooker, to allow the pressure cooker to be in the non-closed state (S11). the pressure cooker comprises a pressure relief valve and a heating body; the soup cooking control method comprises stages of cooking the soup: a preheating and temperature-increasing stage, a medium-high temperature maintenance stage, a high pressure maintenance stage, and a decompression exhaust stage; and the medium-high temperature maintenance stage comprises: opening the pressure relief valve, to allow the pressure cooker to be in a non-closed state (S10); and controlling, under the non-closed state of the pressure cooker, the heating body to supply heat with a first preset heating power, and maintaining an internal temperature of the pressure cooker at a first preset temperature within a first preset duration (S20), characterized in that the pressure cooker further comprises an air pump; and the operation of opening the pressure relief valve, to allow the pressure cooker to be in a non-closed state comprises: turning on the air pump, and drawing external air into the pressure cooker, to allow the pressure cooker to be in the non-closed state (S11). opening the pressure relief valve, to allow the pressure cooker to be in a non-closed state (S10); and controlling, under the non-closed state of the pressure cooker, the heating body to supply heat with a first preset heating power, and maintaining an internal temperature of the pressure cooker at a first preset temperature within a first preset duration (S20), characterized in that the pressure cooker further comprises an air pump; and the operation of opening the pressure relief valve, to allow the pressure cooker to be in a non-closed state comprises: turning on the air pump, and drawing external air into the pressure cooker, to allow the pressure cooker to be in the non-closed state (S11).
Motor housing module for sealing a motor compartment of a motor of a cardiac assist system , having a feedthrough portion for establishing an electrical connection between the cardiac assist system and a connection cable for externally contacting the cardiac assist system ; having at least one feedthrough line , which is embedded in the feedthrough portion and extends through the feedthrough portion , wherein the feedthrough line can be connected to the motor and to the connection cable ; characterized by at least one contact pin , wherein a first end of the contact pin is embedded in the feedthrough portion , and a second end protrudes out of the feedthrough portion on a side facing away from the motor compartment , and wherein the second end of the contact pin can be connected to a sensor line to at least one sensor of the cardiac assist system and to the connection cable . having a feedthrough portion for establishing an electrical connection between the cardiac assist system and a connection cable for externally contacting the cardiac assist system ; having at least one feedthrough line , which is embedded in the feedthrough portion and extends through the feedthrough portion , wherein the feedthrough line can be connected to the motor and to the connection cable ; characterized by at least one contact pin , wherein a first end of the contact pin is embedded in the feedthrough portion , and a second end protrudes out of the feedthrough portion on a side facing away from the motor compartment , and wherein the second end of the contact pin can be connected to a sensor line to at least one sensor of the cardiac assist system and to the connection cable .
A pharmaceutical composition for use in the prevention or treatment of nocturnal acid breakthrough, comprising: a compound represented by Chemical Formula 1 below or a pharmaceutically acceptable salt thereof, as an active ingredient.