mhurhangee/patent-ind-claim-en huggingface dataset:
A method of determining the glycoprofile of a protein, comprising (a) contacting a sample comprising said protein with an antibody directed against said protein to form an antibody-protein complex; (b) isolating the antibody-protein complex obtained in step (a); and (c) contacting the antibody-protein complex with one or more lectins to determine the glycoprofile of said protein, wherein said antibody of step (a) is not immobilized on a solid surface, and wherein said protein is not released from said antibody while performing the method. (a) contacting a sample comprising said protein with an antibody directed against said protein to form an antibody-protein complex; (b) isolating the antibody-protein complex obtained in step (a); and (c) contacting the antibody-protein complex with one or more lectins to determine the glycoprofile of said protein,
An air-conditioning light-emitting system including a plurality of air conditioning units and a plurality of light emitting units , the air-conditioning light-emitting system comprising: first communication means configured to connect the air conditioning units such that the air conditioning units communicate with each other; a plurality of second communication means (78a to 78i); and a control unit which is configured to control the plurality of light emitting units using the first communication means and the second communication means, characterized in that each second communication means (78a to 78i) of the plurality of second communication means electrically connects an air conditioning unit of the plurality of air conditioning units and a light emitting unit of the plurality of light emitting units with one-to-one correspondence such that the air conditioning unit communicates with the connected light emitting unit, each second communication means of the plurality of second communication means (78a to 78i) includes a power line and a communication line, and each of the light emitting units is configured to receive power source supply from the air conditioning unit to which the light emitting unit is communicably connected via the respective second communication means. first communication means configured to connect the air conditioning units such that the air conditioning units communicate with each other; a plurality of second communication means (78a to 78i); and a control unit which is configured to control the plurality of light emitting units using the first communication means and the second communication means, characterized in that each second communication means (78a to 78i) of the plurality of second communication means electrically connects an air conditioning unit of the plurality of air conditioning units and a light emitting unit of the plurality of light emitting units with one-to-one correspondence such that the air conditioning unit communicates with the connected light emitting unit, each second communication means of the plurality of second communication means (78a to 78i) includes a power line and a communication line, and each of the light emitting units is configured to receive power source supply from the air conditioning unit to which the light emitting unit is communicably connected via the respective second communication means. each second communication means (78a to 78i) of the plurality of second communication means electrically connects an air conditioning unit of the plurality of air conditioning units and a light emitting unit of the plurality of light emitting units with one-to-one correspondence such that the air conditioning unit communicates with the connected light emitting unit, each second communication means of the plurality of second communication means (78a to 78i) includes a power line and a communication line, and each of the light emitting units is configured to receive power source supply from the air conditioning unit to which the light emitting unit is communicably connected via the respective second communication means.
Offset printing ink comprising platelet-shaped aluminium pigments having an average thickness hso from a range from 15 to 80 nm, and also binders and solvents, characterized in that the platelet-shaped aluminium pigments are produced by PVD methods and are coated at least partly with a leafing additive and in that the offset printing ink has a viscosity of 4 to 15 Pa s, measured on the sample conditioned at 25°C, using a rotational viscometer having a cone/plate geometry at a shear stress of 185.9 Pa, wherein the solvent is taken from the group consisting of mineral oils, vegetable oils, and fatty acid esters or mixtures thereof, wherein the vegetable oils are not being used without at least one of the other two solvents.
A packet processing method, wherein the method is applied to an Ethernet virtual private network, EVPN, multi-homing configuration comprising a customer edge, CE, devices connected to a first interface of a first provider edge, PE, device over a first link, the CE device further connected to a second interface of a second PE device over a second link, and the method comprises: receiving , by the second PE device, a first message sent by the first PE device, wherein the first message carries a first Media Access Control/Internet Protocol, MAC/IP advertisement route, and a first VLAN identifier, the first MAC/IP advertisement route comprises a first MAC address and an Ethernet segment identifier, ESI, used to identify an Ethernet segment, ES, wherein the ES comprises the first link and the second link, and the first MAC address is a MAC address of the CE device or a MAC address of a terminal device managed by the CE device, and the first VLAN identifier is used to indicate a VLAN to which the first MAC address belongs; determining , by the second PE device based on the ESI, that the second PE device is connected to the CE device through the second interface; and generating , by the second PE device, a first MAC forwarding entry based on the determined second interface, the first MAC address, and the first VLAN identifier, wherein the first MAC forwarding entry comprises the first MAC address , the first VLAN identifier, and an outbound interface identifier corresponding to an identifier of the second interface, and the first MAC forwarding entry is used by the second PE device to forward, to the CE device, a packet that carries the first VLAN identifier and whose destination MAC address is the first MAC address. receiving , by the second PE device, a first message sent by the first PE device, wherein the first message carries a first Media Access Control/Internet Protocol, MAC/IP advertisement route, and a first VLAN identifier, the first MAC/IP advertisement route comprises a first MAC address and an Ethernet segment identifier, ESI, used to identify an Ethernet segment, ES, wherein the ES comprises the first link and the second link, and the first MAC address is a MAC address of the CE device or a MAC address of a terminal device managed by the CE device, and the first VLAN identifier is used to indicate a VLAN to which the first MAC address belongs; determining , by the second PE device based on the ESI, that the second PE device is connected to the CE device through the second interface; and generating , by the second PE device, a first MAC forwarding entry based on the determined second interface, the first MAC address, and the first VLAN identifier, wherein the first MAC forwarding entry comprises the first MAC address , the first VLAN identifier, and an outbound interface identifier corresponding to an identifier of the second interface, and the first MAC forwarding entry is used by the second PE device to forward, to the CE device, a packet that carries the first VLAN identifier and whose destination MAC address is the first MAC address.
A frame freezing detection method, comprising: when detecting a trigger operation for a target application, performing , by a terminal a target task corresponding to the trigger operation; recording , by the terminal, a first duration from generating the target task to starting to execute the target task, and a second duration of executing the target task; and determining , by the terminal by comparing the first duration with a preset first reference value and comparing the second duration with a preset second reference value, said first and second reference values being obtained from a server, that a location in which the frame freezing occurs is in a process of another task before the target task is executed or is in a process of executing the target task; wherein the determining comprises when the first duration is greater than the first reference value, determining , by the terminal , that the location in which the frame freezing occurs is in the process of another task before the target task is executed; and when the second duration is greater than the second reference value, determining , by the terminal , that the location in which the frame freezing occurs is in the process of executing the target task. when detecting a trigger operation for a target application, performing , by a terminal a target task corresponding to the trigger operation; recording , by the terminal, a first duration from generating the target task to starting to execute the target task, and a second duration of executing the target task; and determining , by the terminal by comparing the first duration with a preset first reference value and comparing the second duration with a preset second reference value, said first and second reference values being obtained from a server, that a location in which the frame freezing occurs is in a process of another task before the target task is executed or is in a process of executing the target task; wherein the determining comprises when the first duration is greater than the first reference value, determining , by the terminal , that the location in which the frame freezing occurs is in the process of another task before the target task is executed; and when the second duration is greater than the second reference value, determining , by the terminal , that the location in which the frame freezing occurs is in the process of executing the target task. when the first duration is greater than the first reference value, determining , by the terminal , that the location in which the frame freezing occurs is in the process of another task before the target task is executed; and when the second duration is greater than the second reference value, determining , by the terminal , that the location in which the frame freezing occurs is in the process of executing the target task.
An intelligent measurement cup, comprising a cup body and a cup cover covering the cup body , wherein the cup cover is internally provided with an electronic module , the electronic module comprises a battery , a main control circuit board electrically connected with the battery charachterized by a laser detection unit electrically connected with the main control circuit board , the laser detection unit comprises a laser probe and a transparent shielding sheet covering the laser probe , the laser probe is arranged towards one side on which the cup body is located, a through hole corresponding to the laser probe is formed in the cup cover for light of the laser probe to penetrate through, and laser light emitted by the laser probe passes through the shielding sheet and then is emitted into the cup body in a scattering mode.
A method for detecting the presence of one or more nucleic acids indicative of a health condition, tissue of origin, germ layer of origin or organ of origin in a mixture of nucleic acids comprising: performing methylation analysis on a sample comprising a plurality of nucleic acids by identifying methylation haplotype blocks, wherein the methylation haplotype blocks comprise a plurality of methylation sites for which the methylation status is coordinated; determining a methylation haplotype load (MHL), wherein said MHL comprises the normalized fraction of methylated haplotypes at different lengths; calculating a group specific index (GSI) using the MHL; and determining based on the GSI and MHL whether said sample includes a plurality of methylation haplotype blocks indicative of the presence of one or more nucleic acids indicative of a health condition, tissue of origin, germ layer of origin, organ of origin or any combination thereof. performing methylation analysis on a sample comprising a plurality of nucleic acids by identifying methylation haplotype blocks, wherein the methylation haplotype blocks comprise a plurality of methylation sites for which the methylation status is coordinated; determining a methylation haplotype load (MHL), wherein said MHL comprises the normalized fraction of methylated haplotypes at different lengths; calculating a group specific index (GSI) using the MHL; and determining based on the GSI and MHL whether said sample includes a plurality of methylation haplotype blocks indicative of the presence of one or more nucleic acids indicative of a health condition, tissue of origin, germ layer of origin, organ of origin or any combination thereof.
A valve repair device for repairing a native valve of a patient, the valve repair device comprising: a coaption element having a first end portion and a second end portion; a collar ; a paddle frame (524; 1400) connected to the collar ; an inner paddle connected to the first end portion of the coaption element ; an outer paddle connected to the collar and the inner paddle , such that the inner and outer paddles are disposed over the paddle frame (524; 1400). a coaption element having a first end portion and a second end portion; a collar ; a paddle frame (524; 1400) connected to the collar ; an inner paddle connected to the first end portion of the coaption element ; an outer paddle connected to the collar and the inner paddle , such that the inner and outer paddles are disposed over the paddle frame (524; 1400).
A multi-layered film comprising: a substrate; a layer of a hybrid film comprising; a three dimensionally interconnected network of carbon nanotubes, CNTs, and a plurality of metal oxide nanoparticles, MONs; wherein, the plurality of metal oxide nanoparticles are randomly distributed in the interconnected network; and a layer of a transparent conductive oxide, TCO, coating; wherein, the transparent conductive oxide is sputter deposited to form a distinct layer in contact with the hybrid film; wherein sheet resistance of the multi-layered film increases by less than five times its original value after 400 flexes, wherein the sheet resistance is measured according to the method in the description. a substrate; a layer of a hybrid film comprising; a three dimensionally interconnected network of carbon nanotubes, CNTs, and a plurality of metal oxide nanoparticles, MONs; wherein, the plurality of metal oxide nanoparticles are randomly distributed in the interconnected network; and a layer of a transparent conductive oxide, TCO, coating; wherein, the transparent conductive oxide is sputter deposited to form a distinct layer in contact with the hybrid film; wherein sheet resistance of the multi-layered film increases by less than five times its original value after 400 flexes, wherein the sheet resistance is measured according to the method in the description.
An agricultural working machine with a towing vehicle , in particular a tractor , with at least one agricultural working assembly for processing a field crop comprising a plurality of crop plants, and with a regulating device , wherein the regulating device has a camera system with at least one camera , in particular a 3D camera, which is configured to produce images of the field crop by means of the camera , wherein the regulating device has an image processing unit which is configured to generate situational information regarding the situation of rows of plants and/or sections of ground to be processed by means of image processing on the basis of the images produced, wherein the situational information comprises information regarding the width of the rows of plants or of the sections of ground , wherein the regulating device is configured to adjust the transverse position of the agricultural working assembly on the basis of the generated information regarding the width of the rows of plants or of the sections of ground , wherein the image processing unit is configured to dynamically and/or statically hide image areas (A) in the produced images which are not to be considered during the image processing, wherein "dynamically hide" means that the image processing unit is capable of freshly determining the said image areas (A) which are not to be considered for each image produced with the camera . wherein the regulating device has a camera system with at least one camera , in particular a 3D camera, which is configured to produce images of the field crop by means of the camera , wherein the regulating device has an image processing unit which is configured to generate situational information regarding the situation of rows of plants and/or sections of ground to be processed by means of image processing on the basis of the images produced, wherein the situational information comprises information regarding the width of the rows of plants or of the sections of ground , wherein the regulating device is configured to adjust the transverse position of the agricultural working assembly on the basis of the generated information regarding the width of the rows of plants or of the sections of ground , wherein the image processing unit is configured to dynamically and/or statically hide image areas (A) in the produced images which are not to be considered during the image processing, wherein "dynamically hide" means that the image processing unit is capable of freshly determining the said image areas (A) which are not to be considered for each image produced with the camera .
A block generation method, wherein the method is applied to a block generation device, private key information is built in the block generation device, and the method comprises signing a block generated by the block generation device according to the private key information to obtain a signed block; and issuing the signed block to other node devices through a first node device in a blockchain network; wherein the block generation device comprises a hash processor unit, when the blockchain network is initialized, private key and public key information is only allocated to block generation devices with hash processor units of the same model and specification; before signing the block generated by the block generation device according to the private key information, the method comprises: performing hash calculation according to a specific hash algorithm built in the hash processor unit to obtain the block; particularly, before performing the hash calculation according to the specific hash algorithm built in the first processing unit to obtain the block, the method further comprises: obtaining transaction data through the first node device, wherein the block includes the transaction data. performing hash calculation according to a specific hash algorithm built in the hash processor unit to obtain the block; particularly, before performing the hash calculation according to the specific hash algorithm built in the first processing unit to obtain the block, the method further comprises: obtaining transaction data through the first node device, wherein the block includes the transaction data.
A security element for securing valuable articles, having a carrier having an areal region that is furnished in some regions with a reflective coating and whose areal expanse defines an x-y plane and a z-axis perpendicular thereto, and that consists of a relief region composed of a plurality of embossing elements whose size is given by a lateral dimension in the x-y plane and a vertical dimension in the z-direction, and of an outer region that lies outside the relief region, - the relief region comprising an inner region in which the embossing elements are completely reflective coated, and comprising an edge region that lies between the inner region and the outer region and in which a portion of the embossing elements are reflective coated and the rest of the embossing elements are uncoated, - the outer region being completely uncoated, and - the average lateral dimension of the embossing elements in the edge region being less than 90% of the average lateral dimension of the embossing elements in the inner region , and/ or the average vertical dimension of the embossing elements in the edge region being less than 90% of the average vertical dimension of the embossing elements in the inner region . - the relief region comprising an inner region in which the embossing elements are completely reflective coated, and comprising an edge region that lies between the inner region and the outer region and in which a portion of the embossing elements are reflective coated and the rest of the embossing elements are uncoated, - the outer region being completely uncoated, and - the average lateral dimension of the embossing elements in the edge region being less than 90% of the average lateral dimension of the embossing elements in the inner region , and/ or the average vertical dimension of the embossing elements in the edge region being less than 90% of the average vertical dimension of the embossing elements in the inner region .
A process for adjusting the filling level in a gasifier for carbonaceous material in the form of a floating bed reactor , in which biomass and/or coke (K) is transformed into a product gas , comprising the steps of: providing a substantially conical, downwardly tapering floating bed reactor comprising an upper reactor ceiling and a lower inlet opening into which biomass and/or coke (K) and a gaseous gasification agent (V) are introduced into the floating bed reactor from the bottom to the top, so that a fixed bed , which is elevated from the location of the inlet opening and held in suspension, forms within the conical reactor , wherein the flow rate of the gaseous gasification agent (V) together with the biomass and/or the coke (K) is adapted in such a way to the shape of the flow cross-section of the conical reactor taking into account the material properties of the biomass and/or the coke that a stable bed held in suspension is formed in the floating bed reactor , wherein the filling level of the fixed bed held in suspension within the floating bed reactor is adjusted by extracting gas, together with particles, through an extraction pipe in the reactor ceiling , which pipe protrudes downwardly into the reactor room, wherein the position of the lower end of the extraction pipe defines the upper position of the floating bed within the reactor . providing a substantially conical, downwardly tapering floating bed reactor comprising an upper reactor ceiling and a lower inlet opening into which biomass and/or coke (K) and a gaseous gasification agent (V) are introduced into the floating bed reactor from the bottom to the top, so that a fixed bed , which is elevated from the location of the inlet opening and held in suspension, forms within the conical reactor , wherein the flow rate of the gaseous gasification agent (V) together with the biomass and/or the coke (K) is adapted in such a way to the shape of the flow cross-section of the conical reactor taking into account the material properties of the biomass and/or the coke that a stable bed held in suspension is formed in the floating bed reactor , wherein the filling level of the fixed bed held in suspension within the floating bed reactor is adjusted by extracting gas, together with particles, through an extraction pipe in the reactor ceiling , which pipe protrudes downwardly into the reactor room, wherein the position of the lower end of the extraction pipe defines the upper position of the floating bed within the reactor .