mhurhangee/patent-ind-claim-en huggingface dataset:
Splicing method for splicing two packaging films for a horizontal packaging machine, whereby a first packaging film being used in the packaging machine for packaging the products is spliced to a second packaging film , which is a spare film, by means of an adhesive element comprising a first adhesive surface which is adhered to the second film and a second adhesive surface opposite the first adhesive surface and which is adhered to the first film , characterized in that in the method the second adhesive surface of the adhesive element is adhered to an adhering element of the packaging machine , the first adhesive surface of said adhesive element being exposed; the adhering element moves to a position in which said first adhesive surface of the adhesive element comes into contact with the second film for being adhered to same; the adhering element is separated from the second film such that the second adhesive surface of the adhesive element is peeled off said adhering element and the adhesive element is adhered to said second film with the second adhesive surface exposed; and contact between the first film and said exposed second adhesive surface of the adhesive element is caused for splicing both films to one another by means of the adhesive element .
A method of putting a point of interest on an object and an optical inspection system of a non-contact probe mounted on a coordinate positioning apparatus in a desired relationship, the method comprising: a) a user manually manipulating the relative position and/or relative orientation of the non-contact probe and object so as to arrange the non-contact probe and object at a first relative configuration at which a marker feature, which is projected by the non-contact probe along a projector axis that is not coaxial with the optical inspection system's optical axis , falls on the point of interest, and receiving an indication that the marker feature identifies the point of interest; and b) subsequently moving the non-contact probe and/or object so as to put them at a second relative configuration at which the point of interest and optical inspection system are at the desired relationship, in which the coordinate positioning apparatus is configured to guide such motion, in which the coordinate positioning apparatus is configured to guide the motion in step b) such that at the second relative configuration the projector axis intersects the surface of the object at substantially the same position at which it intersected the surface of the object at the first relative configuration. a) a user manually manipulating the relative position and/or relative orientation of the non-contact probe and object so as to arrange the non-contact probe and object at a first relative configuration at which a marker feature, which is projected by the non-contact probe along a projector axis that is not coaxial with the optical inspection system's optical axis , falls on the point of interest, and receiving an indication that the marker feature identifies the point of interest; and b) subsequently moving the non-contact probe and/or object so as to put them at a second relative configuration at which the point of interest and optical inspection system are at the desired relationship, in which the coordinate positioning apparatus is configured to guide such motion, in which the coordinate positioning apparatus is configured to guide the motion in step b) such that at the second relative configuration the projector axis intersects the surface of the object at substantially the same position at which it intersected the surface of the object at the first relative configuration.
A method for producing a variable light (VL) domain that binds specifically to a target antigen, the method comprising: a) providing a library of chimeric, unpaired VL domains, wherein diversity lies in the FR1-FR3 regions of the VL domains, and wherein each member of the library comprises the CDR3 region sequence from the VL domain of a reference antibody that binds specifically to the target antigen; b) contacting the library with the target antigen; and c) selecting from the library at least one chimeric, unpaired VL domain that binds specifically to the target antigen, thereby producing a VL domain that binds specifically to the target antigen. a) providing a library of chimeric, unpaired VL domains, wherein diversity lies in the FR1-FR3 regions of the VL domains, and wherein each member of the library comprises the CDR3 region sequence from the VL domain of a reference antibody that binds specifically to the target antigen; b) contacting the library with the target antigen; and c) selecting from the library at least one chimeric, unpaired VL domain that binds specifically to the target antigen, thereby producing a VL domain that binds specifically to the target antigen.
A system comprising: a first pump ; a pelletization system that comprises an underwater pelletizer ; where the pelletization system is located downstream of the first pump and is in fluid communication with it; a direct line that is located downstream of the first pump and upstream of the pelletization system ; where the direct line does not contain a pump or a heat exchanger; and a bypass line that is located downstream of the first pump and upstream of the pelletization system ; where the bypass line comprises a second pump ; where the first pump is configured to discharge the polymer to the pelletization system via the direct line when the polymer has a melt viscosity greater than 100 Pa·s (10 5 centipoise); and where the first pump is configured to discharge the polymer to the pelletization system via the bypass line when the polymer has a melt viscosity less than 100 Pa·s (10 5 centipoise). a first pump ; a pelletization system that comprises an underwater pelletizer ; where the pelletization system is located downstream of the first pump and is in fluid communication with it; a direct line that is located downstream of the first pump and upstream of the pelletization system ; where the direct line does not contain a pump or a heat exchanger; and a bypass line that is located downstream of the first pump and upstream of the pelletization system ; where the bypass line comprises a second pump ; where the first pump is configured to discharge the polymer to the pelletization system via the direct line when the polymer has a melt viscosity greater than 100 Pa·s (10 5 centipoise); and where the first pump is configured to discharge the polymer to the pelletization system via the bypass line when the polymer has a melt viscosity less than 100 Pa·s (10 5 centipoise).
A resistance variable memory array , comprising: a plurality of first dielectric materials and a plurality of stacks , wherein each respective first dielectric material and each respective stack alternate, and wherein each respective stack comprises a first conductive material and a resistive storage material ; and a second conductive material passing through the plurality of first dielectric materials and the plurality of stacks ; wherein each respective stack further comprises a second dielectric material between the first conductive material and the second conductive material , characterised in that each respective stack further comprises a dielectric barrier material between the resistive storage material and the second conductive material and between the resistive storage material and the second dielectric material . a plurality of first dielectric materials and a plurality of stacks , wherein each respective first dielectric material and each respective stack alternate, and wherein each respective stack comprises a first conductive material and a resistive storage material ; and a second conductive material passing through the plurality of first dielectric materials and the plurality of stacks ; wherein each respective stack further comprises a second dielectric material between the first conductive material and the second conductive material , characterised in that each respective stack further comprises a dielectric barrier material between the resistive storage material and the second conductive material and between the resistive storage material and the second dielectric material .
A method for calibrating sensor data generated by a continuous analyte sensor comprising a membrane, the method comprising: • generating sensor data using a continuous analyte sensor; • iteratively determining, with an electronic device, a sensitivity value of the continuous analyte sensor as a function of time by applying a priori information comprising sensor sensitivity information, including information relating to the thickness of the sensor membrane; and • calibrating the sensor data based at least in part on the determined sensitivity value. • generating sensor data using a continuous analyte sensor; • iteratively determining, with an electronic device, a sensitivity value of the continuous analyte sensor as a function of time by applying a priori information comprising sensor sensitivity information, including information relating to the thickness of the sensor membrane; and • calibrating the sensor data based at least in part on the determined sensitivity value.
An esterified cellulose ether having i)as ester groups aliphatic monovalent acyl groups or groups of the formula - C(O) - R - COOA or a combination of aliphatic monovalent acyl groups and groups of the formula -C(O) - R - COOA, wherein R is a divalent aliphatic or aromatic hydrocarbon group and A is hydrogen or a cation, and ii) a content of not more than 0.85 weight percent acetone-insoluble esterified cellulose ether particles, when the esterified cellulose ether is present in a mixture of 12.5 weight parts of esterified cellulose ether and 87.5 weight parts of acetone at 21 °C, the weight percent acetone-insoluble esterified cellulose ether particles being based on the total weight of the esterified cellulose ether, wherein iii) not more than 14 percent of the acetone-insoluble esterified cellulose ether particles have a particle size of more than 90 micrometers, the percentage being based on the total number of acetone-insoluble esterified cellulose ether particles. i)as ester groups aliphatic monovalent acyl groups or groups of the formula - C(O) - R - COOA or a combination of aliphatic monovalent acyl groups and groups of the formula -C(O) - R - COOA, wherein R is a divalent aliphatic or aromatic hydrocarbon group and A is hydrogen or a cation, and ii) a content of not more than 0.85 weight percent acetone-insoluble esterified cellulose ether particles, when the esterified cellulose ether is present in a mixture of 12.5 weight parts of esterified cellulose ether and 87.5 weight parts of acetone at 21 °C, the weight percent acetone-insoluble esterified cellulose ether particles being based on the total weight of the esterified cellulose ether, wherein iii) not more than 14 percent of the acetone-insoluble esterified cellulose ether particles have a particle size of more than 90 micrometers, the percentage being based on the total number of acetone-insoluble esterified cellulose ether particles.
A microcapsule composition, comprising a detergent enzyme containing microcapsule, wherein the membrane of the microcapsule is produced by cross-linking by interfacial polymerization of a polybranched polyamine having a molecular weight of more than 1 kDa, and wherein the detergent enzyme is selected from the group consisting of protease, amylase, lipase, cellulase, mannanase, pectinase, DNAse, laccase, peroxidase, haloperoxidase, perhydrolase, and combinations thereof.
Choke arrangement for sealing a sliding surface of a body movable in an axial direction (A), in particular a piston rod or a piston , of a piston compressor , the choke arrangement having in use a high-pressure side on the compression chamber side and a low-pressure side on the crank drive side, the choke arrangement comprising a plurality of annular sealing discs and a sealing disc holder , wherein the sealing disc holder has an L-shaped radial section, with a first leg extending in the axial direction (A) and a second leg extending transversely to the axial direction (A), which legs together form the L-shaped radial section, the second leg being of annular design and having a bearing surface pointing in the direction of the high-pressure side , on which bearing surface the sealing discs are arranged stacked one on top of the other in the axial direction (A), the first leg being cylindrical and extending along the outer or inner circumference of the second leg from the bearing surface in the direction of the high-pressure side , the axial height of the first leg (H 4 ) being selected in such a manner that the sealing discs stacked on the bearing surface have axial play in use, the first leg having a plurality of gas passage openings , the first leg having a boundary surface pointing in the direction of the sealing discs , wherein, when the sealing discs are aligned coaxially with the first leg and the body to be sealed, a first annular gap (RS1) is formed in each case between the boundary surface and the sealing discs , which annular gap is fluidically connected to the high-pressure side by the gas passage openings , and wherein a second annular gap (RS2) is formed between the sliding surface of the body to be sealed and the sealing discs in each case, the wear-related enlargement of which is essentially limited by the radial width of the first annular gap (RS1).
A method for expanding memory for a system on chip, SoC, the method comprising: detecting a memory card loaded in an expandable memory socket electrically coupled to a system on chip, SoC, via an expansion bus, the memory card comprising a first volatile memory device; in response to detecting the memory card, configuring an expanded virtual memory map comprising a first virtual memory space associated with the first volatile memory device and a second virtual memory space associated with a second volatile memory device electrically coupled to the SoC via a high-performance memory bus; relocating one or more peripheral images associated with the second virtual memory space and assigned to hardware resources to a first portion of the first virtual memory space; and configuring a second portion of the first virtual memory space as a block device for performing swap operations associated with the second virtual memory space. detecting a memory card loaded in an expandable memory socket electrically coupled to a system on chip, SoC, via an expansion bus, the memory card comprising a first volatile memory device; in response to detecting the memory card, configuring an expanded virtual memory map comprising a first virtual memory space associated with the first volatile memory device and a second virtual memory space associated with a second volatile memory device electrically coupled to the SoC via a high-performance memory bus; relocating one or more peripheral images associated with the second virtual memory space and assigned to hardware resources to a first portion of the first virtual memory space; and configuring a second portion of the first virtual memory space as a block device for performing swap operations associated with the second virtual memory space.
An agent for use in reducing tumorigenesis or tumor growth in a MYC-dependent cancer occurring during the course of gene therapy in a subject, wherein the subject has been administered cells that have been transduced ex vivo with a gene therapy vector comprising a therapeutic gene operably linked to a first control element, and a dominant-negative MYC-interfering protein (D-MIP) gene operably linked to an inducible control element, wherein the MYC-dependent cancer is derived from the cells that have been administered to the subject for gene therapy, wherein the agent is an inducer of the inducible control element, and wherein, upon detection of cancer in the subject, the inducer is administered to the subject for a time and in an amount to activate D-MIP in the subject, thereby reducing tumorigenesis or tumor growth of the MYC-dependent cancer.
A method comprising: receiving at a device (102-5), a messagefrom a controlling device (102-4) of a current network to request or force the device (102-5) to leave the current network to which the device (102-5) is currently connected; in response to receiving the request, determining whether one or more other networks exist that the device (102-5) is capable of joining ; and if one or more other networks exist that the device (102-5) is capable of joining, selecting a network from the one or more other networks and sending a request to join the selected network; else if no other network exists, sending a response to the current network to refuse leaving the current network; receiving a response from the selected network indicating that the device (102-5) is allowed to join the selected network; migrating from the current network to the selected network based on information provided in the received response ; and prior to a completion of the migrating and in response to receiving a packet at an old address of the device (102-5), the old address being related to the current network: forwarding the received packet to the current network if a connection between the device and the current network still exists, the packet not being destined to the device (102-5); or including the received packet in a new packet and sending the new packet using a new address of the device (102-5) upon receiving the new address assigned to the device (102-5), the new address being related to the selected network. receiving at a device (102-5), a messagefrom a controlling device (102-4) of a current network to request or force the device (102-5) to leave the current network to which the device (102-5) is currently connected; in response to receiving the request, determining whether one or more other networks exist that the device (102-5) is capable of joining ; and if one or more other networks exist that the device (102-5) is capable of joining, selecting a network from the one or more other networks and sending a request to join the selected network; else if no other network exists, sending a response to the current network to refuse leaving the current network; receiving a response from the selected network indicating that the device (102-5) is allowed to join the selected network; migrating from the current network to the selected network based on information provided in the received response ; and prior to a completion of the migrating and in response to receiving a packet at an old address of the device (102-5), the old address being related to the current network: forwarding the received packet to the current network if a connection between the device and the current network still exists, the packet not being destined to the device (102-5); or including the received packet in a new packet and sending the new packet using a new address of the device (102-5) upon receiving the new address assigned to the device (102-5), the new address being related to the selected network.
A dishwasher comprising: a tub that defines a dish washing space therein; a sump which contains washing water supplied into the tub ; a spray module which sprays washing water to the dish washing space; a pump which supplies the washing water stored in the sump to the spray module ; characterized by an air jet generator configured to receive, through a flow path branched from the pump , a part of the washing water supplied from the pump to the spray module , and to generate air bubbles in the washing water to supply the washing water including the air bubbles into the tub , and a discharge module configured to receive the washing water containing the air bubbles from the air jet generator and to discharge the washing water containing the air bubbles into the tub , wherein the air jet generator comprises: an impeller which applies centrifugal force to the washing water that flows; a decompression portion which decreases a pressure of the washing water that passed through the impeller ; an air suction portion which injects air into the decompression portion ; a pressing portion which increases pressure so as to crush the air introduced from the air suction portion ; and an air tap which has a plurality of holes so as to crush the air contained in washing water that passed through the pressing portion . a tub that defines a dish washing space therein; a sump which contains washing water supplied into the tub ; a spray module which sprays washing water to the dish washing space; a pump which supplies the washing water stored in the sump to the spray module ; characterized by an air jet generator configured to receive, through a flow path branched from the pump , a part of the washing water supplied from the pump to the spray module , and to generate air bubbles in the washing water to supply the washing water including the air bubbles into the tub , and a discharge module configured to receive the washing water containing the air bubbles from the air jet generator and to discharge the washing water containing the air bubbles into the tub , wherein the air jet generator comprises: an impeller which applies centrifugal force to the washing water that flows; a decompression portion which decreases a pressure of the washing water that passed through the impeller ; an air suction portion which injects air into the decompression portion ; a pressing portion which increases pressure so as to crush the air introduced from the air suction portion ; and an air tap which has a plurality of holes so as to crush the air contained in washing water that passed through the pressing portion . an impeller which applies centrifugal force to the washing water that flows; a decompression portion which decreases a pressure of the washing water that passed through the impeller ; an air suction portion which injects air into the decompression portion ; a pressing portion which increases pressure so as to crush the air introduced from the air suction portion ; and an air tap which has a plurality of holes so as to crush the air contained in washing water that passed through the pressing portion .