mhurhangee/patent-ind-claim-en huggingface dataset:
Use of a library of multimeric barcoding reagents to produce two or more sequence reads from a target nucleic acid, wherein two or more sequence reads are identified as derived from the same target nucleic acid and combined to produce a synthetic long read, wherein the library of multimeric barcoding reagents comprises at least 10 multimeric barcoding reagents, wherein each multimeric barcoding reagent comprises: a. first and second barcode molecules comprised within a nucleic acid molecule, wherein each of the barcode molecules comprises a nucleic acid sequence comprising a barcode region; and b. first and second barcoded oligonucleotides, wherein the first barcoded oligonucleotide comprises, optionally in the 5' to 3' direction, a barcode region complementary and annealed to the barcode region of the first barcode molecule and a target region that anneals or ligates to a first sub-sequence of a target nucleic acid, and wherein the second barcoded oligonucleotide comprises, optionally in the 5' to 3' direction, a barcode region complementary and annealed to the barcode region of the second barcode molecule and a target region that anneals or ligates to a second sub-sequence of the target nucleic acid; and wherein the barcode regions of the first and second barcode molecules of each multimeric barcoding reagent are different to the barcode regions of at least 9 other multimeric barcoding reagents in the library. a. first and second barcode molecules comprised within a nucleic acid molecule, wherein each of the barcode molecules comprises a nucleic acid sequence comprising a barcode region; and b. first and second barcoded oligonucleotides, wherein the first barcoded oligonucleotide comprises, optionally in the 5' to 3' direction, a barcode region complementary and annealed to the barcode region of the first barcode molecule and a target region that anneals or ligates to a first sub-sequence of a target nucleic acid, and wherein the second barcoded oligonucleotide comprises, optionally in the 5' to 3' direction, a barcode region complementary and annealed to the barcode region of the second barcode molecule and a target region that anneals or ligates to a second sub-sequence of the target nucleic acid;
Filter element for a particle filter comprising a porous filter body made of a ceramic material and including a plurality of flow channels extending fluidically in parallel, characterised in that the filter body is provided at least in a portion of the flow channels with a mechanically applied coating made of a coating material, which is different from the ceramic material and is made up of orthorhombic crystals, the coating material has a specific surface area of at least 200 m 2 /g, and an amount of material of the coating material applied to the filter body in relation to a total volume of the filter body is 2 g/l to 5 g/l.
Upholstery module (UM) for a seat , in particular a vehicle seat, such as an aircraft seat, comprising - at least an upholstery part forming at least one of a backrest upholstery part (9") and a seat pan upholstery part , and - at least a support shell , wherein - the upholstery part comprises - a number of stacked comfort layers (9.4 to 9.7) forming a cushion foam part and side bolsters (9.12, 9.13) and - a number of functional elements (9.8, 9.9, 9.17, 11.7, 11.8) comprising at least one of a massage device, a thermal conditioning device, suspension springs, valve unit blocks, a lumbar support and a cable and hose fixation, - wherein the upholstery part is detachably coupled on the support shell , - and the support shell is detachably mounted on a seat support structure of the seat . - at least an upholstery part forming at least one of a backrest upholstery part (9") and a seat pan upholstery part , and - at least a support shell , wherein - the upholstery part comprises - a number of stacked comfort layers (9.4 to 9.7) forming a cushion foam part and side bolsters (9.12, 9.13) and - a number of functional elements (9.8, 9.9, 9.17, 11.7, 11.8) comprising at least one of a massage device, a thermal conditioning device, suspension springs, valve unit blocks, a lumbar support and a cable and hose fixation, - a number of stacked comfort layers (9.4 to 9.7) forming a cushion foam part and side bolsters (9.12, 9.13) and - a number of functional elements (9.8, 9.9, 9.17, 11.7, 11.8) comprising at least one of a massage device, a thermal conditioning device, suspension springs, valve unit blocks, a lumbar support and a cable and hose fixation, - wherein the upholstery part is detachably coupled on the support shell , - and the support shell is detachably mounted on a seat support structure of the seat .
An insulin-like growth factor receptor-1 antisense oligodeoxynucleotide (IGF-1R AS ODN) having the sequence of SEQ ID NO: 1 and 1 × 10 4 to 5 × 10 6 tumor cells for use in a method of vaccinating a subject having a brain cancer, wherein the insulin-like growth factor receptor-1 antisense oligodeoxynucleotide (IGF-1R AS ODN) having the sequence of SEQ ID NO: 1 and 1 × 10 4 to 5 × 10 6 tumor cells are comprised in a biodiffusion chamber; wherein the method comprises: (i) obtaining tumor tissue from the subject, wherein the tumor tissue is surgically removed from the subject; (ii) collecting the tumortissue in a sterile trap; (iii) harvesting adherent cells from the tumor tissue; (iv) encapsulating the harvested cells in the biodiffusion chamber along with the insulin-like growth factor receptor-1 antisense oligodeoxynucleotide (IGF-1R AS ODN) having the sequence of SEQ ID NO: 1; (v) irradiating the chamber, and (vi) implanting the chamber in the subject, wherein an immune response against the brain cancer is obtained; and wherein the tumor cells in the chamber are enriched for Nestin-positive cells compared to the tumor tissue obtained from the subject. (i) obtaining tumor tissue from the subject, wherein the tumor tissue is surgically removed from the subject; (ii) collecting the tumortissue in a sterile trap; (iii) harvesting adherent cells from the tumor tissue; (iv) encapsulating the harvested cells in the biodiffusion chamber along with the insulin-like growth factor receptor-1 antisense oligodeoxynucleotide (IGF-1R AS ODN) having the sequence of SEQ ID NO: 1; (v) irradiating the chamber, and (vi) implanting the chamber in the subject, wherein an immune response against the brain cancer is obtained; and wherein the tumor cells in the chamber are enriched for Nestin-positive cells compared to the tumor tissue obtained from the subject.
A method for operating an automated motor vehicle , preferably a commercial vehicle, characterized by planning a trajectory of the motor vehicle depending on a gear shift time of a transmission of the motor vehicle , the gear shift time being the time required by the transmission to shift from an initial gear of a shift operation to a target gear of the shift operation; and operating the motor vehicle depending on the planned trajectory. planning a trajectory of the motor vehicle depending on a gear shift time of a transmission of the motor vehicle , the gear shift time being the time required by the transmission to shift from an initial gear of a shift operation to a target gear of the shift operation; and operating the motor vehicle depending on the planned trajectory.
A device comprising: a tubular drape for covering surgical equipment ; and a container adapted to accommodate a substantial portion of the drape in an axially compressed state in a ring-shape; wherein the container comprises a first sheet and a second sheet , wherein the first sheet and the second sheet are oppositely arranged, the first sheet having a first opening and the second sheet having a second opening , wherein the first opening is configured for withdrawal of the drape from the container , wherein the first and the second openings are configured for passing the surgical equipment to be covered therethrough, wherein a first end of the drape is attached to and/or inside the container , and wherein the other end of the drape is free to be coupled with the surgical equipment or attached to a coupler for coupling the surgical equipment to a camera ; and wherein the accommodated ring-shaped drape portion has a mechanical stiffness substantially contributing to the overall stiffness of the device. a tubular drape for covering surgical equipment ; and a container adapted to accommodate a substantial portion of the drape in an axially compressed state in a ring-shape; wherein the container comprises a first sheet and a second sheet , wherein the first sheet and the second sheet are oppositely arranged, the first sheet having a first opening and the second sheet having a second opening , wherein the first opening is configured for withdrawal of the drape from the container , wherein the first and the second openings are configured for passing the surgical equipment to be covered therethrough, wherein a first end of the drape is attached to and/or inside the container , and wherein the other end of the drape is free to be coupled with the surgical equipment or attached to a coupler for coupling the surgical equipment to a camera ; and wherein the accommodated ring-shaped drape portion has a mechanical stiffness substantially contributing to the overall stiffness of the device.
A method for providing a Graphical User Interface, in a mobile terminal , the method comprising: executing and displaying, by the mobile terminal, a full-mode execution screen of a first application on an application execution screen region ; displaying, based on a control signal, a mini-mode execution icon region with the application execution screen region, the mini-mode execution icon region including one or more mini-mode execution icons; and executing and displaying, in response to an input for selecting one of the one or more mini-mode execution icons, a mini-mode execution screen of a second application corresponding to the selected mini-mode execution icon on the application execution screen region, the mini-mode execution screen comprising an execution screen configured to be a partial region of the application execution screen region while executing the first application, wherein when the first application is executing on the application execution screen region in full mode and the display of the mini-mode execution screen is hidden, in response to a selection of a mini-mode change key included in the full-mode execution screen, changing display of the first application to a mini-mode execution screen, and, based on a user control, changing display of the second application to a full-mode execution screen in which the mini-mode execution screen of the first application overlaps the full-mode execution screen of the second application on the application execution screen region. executing and displaying, by the mobile terminal, a full-mode execution screen of a first application on an application execution screen region ; displaying, based on a control signal, a mini-mode execution icon region with the application execution screen region, the mini-mode execution icon region including one or more mini-mode execution icons; and executing and displaying, in response to an input for selecting one of the one or more mini-mode execution icons, a mini-mode execution screen of a second application corresponding to the selected mini-mode execution icon on the application execution screen region, the mini-mode execution screen comprising an execution screen configured to be a partial region of the application execution screen region while executing the first application, wherein when the first application is executing on the application execution screen region in full mode and the display of the mini-mode execution screen is hidden, in response to a selection of a mini-mode change key included in the full-mode execution screen, changing display of the first application to a mini-mode execution screen, and, based on a user control, changing display of the second application to a full-mode execution screen in which the mini-mode execution screen of the first application overlaps the full-mode execution screen of the second application on the application execution screen region.
Device for operating a circulation system, the device having two electrodes and a gas inlet, additionally comprising an interior space with inner surfaces to be coated, the inner surfaces being at least partly electrically conductive, in particular of metallic material, characterized in that the device is functionally sealed and at least one inner surface in the interior space of the device can be used for generating a plasma by contacting as an electrode and at least one of the inner surfaces of the device can be coated by the plasma.
A method of transmitting an acknowledgment message in a random access procedure in a mobile telecommunications system in which a system bandwidth comprises a plurality of narrow bands, each narrow band comprising a plurality of physical resource blocks, the method comprising: transmitting (S101) an uplink random access request; responsive to the random access request, transmitting (S102) a downlink allocation message indicating downlink resources for sending a downlink message; transmitting (S103) the downlink message using the resources indicated in the downlink allocation message; responsive to receiving the downlink message, transmitting (S104) an uplink message; and transmitting (S105) an acknowledgement message in respect of the uplink message and using one or more acknowledgment resources, characterized in that one or more acknowledgment resources are within one of the plurality of narrow bands in the frequency domain, and the one of the plurality of narrow bands is identified based on a resource indication in the downlink allocation message. transmitting (S101) an uplink random access request; responsive to the random access request, transmitting (S102) a downlink allocation message indicating downlink resources for sending a downlink message; transmitting (S103) the downlink message using the resources indicated in the downlink allocation message; responsive to receiving the downlink message, transmitting (S104) an uplink message; and transmitting (S105) an acknowledgement message in respect of the uplink message and using one or more acknowledgment resources, characterized in that one or more acknowledgment resources are within one of the plurality of narrow bands in the frequency domain, and the one of the plurality of narrow bands is identified based on a resource indication in the downlink allocation message.
A transformer arrangement having an adjustable output voltage, comprising a primary winding which is designed for inputting an AC voltage, a secondary winding which is designed for outputting an output voltage to a load, a first core which is guided through the primary winding and the secondary winding and guides a magnetic flux generated by the primary winding to the secondary winding, a control winding, a second core and an activation unit, wherein the second core is guided through the secondary winding or the primary winding, wherein the second core is additionally guided through the control winding, wherein the activation unit is connected to the control winding and wherein the activation unit is designed in such a manner for inputting a control current into the control winding that the magnetic flux that is effective at the secondary winding and thus the output voltage is increased or reduced characterized in that a pick-up winding is additionally arranged around the first core in such a manner that a magnetic flux generated by the primary winding induces a pick-up voltage in the pick-up winding, and in that the pick-up winding is connected to the activation unit, wherein the activation unit is designed to generate the control current from the pick-up voltage. a primary winding which is designed for inputting an AC voltage, a secondary winding which is designed for outputting an output voltage to a load, a first core which is guided through the primary winding and the secondary winding and guides a magnetic flux generated by the primary winding to the secondary winding, a control winding, a second core and an activation unit, wherein the second core is guided through the secondary winding or the primary winding, wherein the second core is additionally guided through the control winding, wherein the activation unit is connected to the control winding and wherein the activation unit is designed in such a manner for inputting a control current into the control winding that the magnetic flux that is effective at the secondary winding and thus the output voltage is increased or reduced characterized in that a pick-up winding is additionally arranged around the first core in such a manner that a magnetic flux generated by the primary winding induces a pick-up voltage in the pick-up winding, and in that the pick-up winding is connected to the activation unit, wherein the activation unit is designed to generate the control current from the pick-up voltage.
A bandage securing device comprising a first sheet part and a second sheet part , wherein the first and second sheet parts are connected to each other along a connection line extending in a width direction and arranged to overlap each other, thereby forming a jaw-like structure in a longitudinal direction, at least one of said first and second sheet parts being provided with at least one first adherent fastening layer on an internal surface facing said overlap, and wherein said bandage securing device further comprises at least one second adherent fastening layer on an external surface, not facing said overlap, said adherent fastening layers being arranged to detachably connect to the bandage , and further comprising a third sheet part , which is connected to the first and second sheet parts via said connection line, and extending away from said overlap, as seen from said connection line , wherein at least one of said second adherent fastening layer(s) is arranged on a surface of said third sheet part .
A method of data communication, comprising: obtaining resource unit information associated with a physical uplink shared channel, PUSCH , wherein the resource unit information comprises at least one of time resource unit information and frequency resource unit information; determining an identifier at least in part based on the resource unit information , wherein the identifier is a grant-free radio network temporary identifier, GF-RNTI, and the identifier is a function of at least one of the time resource unit information and frequency resource unit information; and using the identifier for transmission of the physical uplink shared channel, PUSCH, or obtaining resource unit information associated with a physical random access channel, PRACH , wherein the resource unit information comprises at least one of time resource unit information and frequency resource unit information; determining an identifier at least in part based on the resource unit information , wherein the identifier is a grant-free radio network temporary identifier, GF-RNTI, and the identifier is a function of at least one of the time resource unit information and frequency resource unit information; and using the identifier for transmission of a physical uplink shared channel, PUSCH. the resource unit information comprises at least one of time resource unit information and frequency resource unit information; determining an identifier at least in part based on the resource unit information , wherein the identifier is a grant-free radio network temporary identifier, GF-RNTI, and the identifier is a function of at least one of the time resource unit information and frequency resource unit information; and using the identifier for transmission of the physical uplink shared channel, PUSCH, or obtaining resource unit information associated with a physical random access channel, PRACH , wherein the resource unit information comprises at least one of time resource unit information and frequency resource unit information; determining an identifier at least in part based on the resource unit information , wherein the identifier is a grant-free radio network temporary identifier, GF-RNTI, and the identifier is a function of at least one of the time resource unit information and frequency resource unit information; and using the identifier for transmission of a physical uplink shared channel, PUSCH.
A Flavibacterium meningosepticum PNGase F having two or more mutations that: (i) eliminate catalytic activity of the enzyme; and (ii) increase the affinity of the inactivated enzyme for its substrate as compared to a wild-type enzyme; wherein the mutation includes D60N or D60A; and a mutation at amino acid residues D57, Y62, E118, S155, 1156, G192 and/or E206; wherein the PNGase F mutant has said two or more amino acid residues that differ from the residues of a PNGase F encoded by the corresponding gene from Flavibacterium meningosepticum. (i) eliminate catalytic activity of the enzyme; and (ii) increase the affinity of the inactivated enzyme for its substrate as compared to a wild-type enzyme;
Use of a pressure-sensitive adhesive sheet as a surface protective sheet for a Low-E layer provided on a glass plate, wherein the pressure-sensitive adhesive sheet comprises a substrate layer and a pressure-sensitive adhesive layer provided to at least one face of the substrate layer, wherein the pressure-sensitive adhesive layer is an acrylic pressure-sensitive adhesive layer comprising an acrylic polymer as its base polymer, wherein the acrylic polymer is a polymer of a starting monomer mixture comprising an alkyl (meth)acrylate as a monomer A and a monomer B copolymerizable with the alkyl (meth)acrylate, the monomer B being a functional group-containing monomer, wherein the pressure-sensitive adhesive layer is formed from a water-dispersed pressure-sensitive adhesive composition, wherein the pressure-sensitive adhesive composition comprises a crosslinking agent, and wherein the pressure-sensitive adhesive layer has a surface hardness of 0.3 MPa or greater, determined by nanoindentation under the conditions as defined herein. wherein the pressure-sensitive adhesive sheet comprises a substrate layer and a pressure-sensitive adhesive layer provided to at least one face of the substrate layer, wherein the pressure-sensitive adhesive layer is an acrylic pressure-sensitive adhesive layer comprising an acrylic polymer as its base polymer, wherein the acrylic polymer is a polymer of a starting monomer mixture comprising an alkyl (meth)acrylate as a monomer A and a monomer B copolymerizable with the alkyl (meth)acrylate, the monomer B being a functional group-containing monomer, wherein the pressure-sensitive adhesive layer is formed from a water-dispersed pressure-sensitive adhesive composition, wherein the pressure-sensitive adhesive composition comprises a crosslinking agent, and wherein the pressure-sensitive adhesive layer has a surface hardness of 0.3 MPa or greater, determined by nanoindentation under the conditions as defined herein.