mhurhangee/patent-ind-claim-en huggingface dataset:
A terminal comprising: a receiving section adapted to receive first higher layer signaling including information related to one or more reference resources; characterized by , a control section adapted to determine one reference resource out of the one or more reference resources based on second higher layer signaling, and wherein the control section is adapted to determine an allocated resource based on the one reference resource determined and size information in units of a set of consecutive resources provided . a receiving section adapted to receive first higher layer signaling including information related to one or more reference resources; characterized by , a control section adapted to determine one reference resource out of the one or more reference resources based on second higher layer signaling, and wherein the control section is adapted to determine an allocated resource based on the one reference resource determined and size information in units of a set of consecutive resources provided .
A composition comprising HPRT deficient lymphocytes for use in a method of preventing or mitigating post-transplant immune deficiency while mitigating side effects, the method comprising: (a) generating HPRT deficient lymphocytes ex vivo; (b) positively selecting for the HPRT deficient lymphocytes ex vivo to provide a population of modified lymphocytes, wherein the HPRT deficient lymphocytes are generated through knockdown of the HPRT gene; (c) administering the population of modified lymphocytes to the patient contemporaneously with or after an administration of an allogenic HSC graft; and (d) optionally administering MTX if side effects arise. (a) generating HPRT deficient lymphocytes ex vivo; (b) positively selecting for the HPRT deficient lymphocytes ex vivo to provide a population of modified lymphocytes, wherein the HPRT deficient lymphocytes are generated through knockdown of the HPRT gene; (c) administering the population of modified lymphocytes to the patient contemporaneously with or after an administration of an allogenic HSC graft; and (d) optionally administering MTX if side effects arise.
A method for assembling blade parts of a wind turbine blade , the method comprising the steps of: obtaining information about a connection area of a blade part , selecting, customizing and/or manufacturing an adaptor piece depending on the obtained information about the connection area of the blade part , wherein the adaptor piece serves to connect the blade part with at least another blade part , and connecting the blade part to the adaptor piece , characterized in that the step of obtaining information about the connection area comprises placing tracker markers on the blade part and recording positions of the placed tracker markers . obtaining information about a connection area of a blade part , selecting, customizing and/or manufacturing an adaptor piece depending on the obtained information about the connection area of the blade part , wherein the adaptor piece serves to connect the blade part with at least another blade part , and connecting the blade part to the adaptor piece , characterized in that the step of obtaining information about the connection area comprises placing tracker markers on the blade part and recording positions of the placed tracker markers .
A method for increasing the specific volume of tobacco stem particles by steam and a steam and water mixture, said method comprising the following steps: - introducing tobacco stem into the pre-conditioning tube prior to an acceleration zone in a first part of an apparatus; - further feeding said tobacco stem into a venturi tube in a second part of said apparatus, the cross-sectional area of said venturi tube being less than that in the first conditioning part; characterized in that : - both said apparatus parts have adjustable mass flow ratio steam jets ; - said tobacco stem is accelerated twice by jet flows, and - said apparatus comprises two narrow cross sectional pipes to improve treatment quality. - introducing tobacco stem into the pre-conditioning tube prior to an acceleration zone in a first part of an apparatus; - further feeding said tobacco stem into a venturi tube in a second part of said apparatus, the cross-sectional area of said venturi tube being less than that in the first conditioning part; characterized in that : - both said apparatus parts have adjustable mass flow ratio steam jets ; - said tobacco stem is accelerated twice by jet flows, and - said apparatus comprises two narrow cross sectional pipes to improve treatment quality.
A rodent whose genome comprises: (a) the human IgH VDJ region inserted upstream of the host rodent constant region; and (b) one or more human Ig light chain kappa V regions and one or more human Ig light chain kappa J regions upstream of the host rodent kappa constant region; wherein the rodent is able to produce a repertoire of chimaeric antibodies having a rodent constant region and a human variable region; wherein the genome comprises V, D (heavy chain only) and J genes at the heavy chain locus and one light chain locus, but not at both light chain loci, and the rodent genome is homozygous at both immunoglobulin loci; wherein the insertion of the human DNA is made between the rodent constant region and the last, 3', rodent J region wherein the genome is obtainable by i. insertion of DNA forming an initiation cassette into the genome of a cell; ii. insertion of a first DNA fragment into the insertion site, the first DNA fragment comprising a first portion of a human VDJ DNA region and a first vector portion containing a first selectable marker or generating a selectable marker upon insertion; iii. removal of part of the vector DNA; iv. insertion of a second DNA fragment into the vector portion of the first DNA fragment, the second DNA fragment containing a second portion of human VDJ DNA and a second vector portion, the second vector portion containing a second selectable marker, or generating a second selectable marker upon insertion; v. removal of any vector DNA to allow the first and second human DNA fragments to form a contiguous sequence; and vi. iteration of the steps of insertion of a part of the human VDJ DNA and vector DNA removal, as necessary, to produce a cell with all of the human VDJ region, wherein, one or more insertion events utilises site specific recombination. (a) the human IgH VDJ region inserted upstream of the host rodent constant region; and (b) one or more human Ig light chain kappa V regions and one or more human Ig light chain kappa J regions upstream of the host rodent kappa constant region; i. insertion of DNA forming an initiation cassette into the genome of a cell; ii. insertion of a first DNA fragment into the insertion site, the first DNA fragment comprising a first portion of a human VDJ DNA region and a first vector portion containing a first selectable marker or generating a selectable marker upon insertion; iii. removal of part of the vector DNA; iv. insertion of a second DNA fragment into the vector portion of the first DNA fragment, the second DNA fragment containing a second portion of human VDJ DNA and a second vector portion, the second vector portion containing a second selectable marker, or generating a second selectable marker upon insertion; v. removal of any vector DNA to allow the first and second human DNA fragments to form a contiguous sequence; and vi. iteration of the steps of insertion of a part of the human VDJ DNA and vector DNA removal, as necessary, to produce a cell with all of the human VDJ region,
Apparatus for transmitted-light illumination for light microscopes, in particular stereo microscopes or macroscopes, having a variable effective entrance pupil of an objective, having a light source (LQ) for emitting an illumination beam, having a holding device (TOA) for holding a sample to be examined, and having a stop edge (BK) for clipping the illumination beam, wherein the stop edge (BK) is arranged between the holding device (TOA) and the light source (LQ), wherein the stop edge (BK) extends transversely to an optical axis (OA), in particular of an objective (OBJ1, OBJ2, OBJ3), of a light microscope, which is positionable, in an operating state, at the apparatus for transmitted-light illumination, and wherein a beam path of the illumination light between the stop edge (BK) and a sample that is held by the holding device (TOA) is free from adjustable beam-focusing components, wherein means for retrieving a microscope setting and/or a microscope configuration of a light microscope that is positionable at the apparatus for transmitted-light illumination are present, wherein means for variably positioning the stop edge (BK) in the direction (X, Y) transversely to the optical axis (OA) are present, and that a control device is present, which is configured to position the stop edge (BK) with the means for variably positioning the stop edge (BK) in the direction (X, Y) transversely to the optical axis (OA) in dependence on the microscope setting and/or the microscope configuration, wherein the microscope configuration comprises at least one type of the zoom system and/or of a selected objective, wherein the microscope configuration comprises at least one type of the zoom system and/or of a selected objective, wherein means for variably positioning the stop edge (BK) in the direction (Z) of the optical axis (OA) are present for adapting the beam path of the illumination light to the effective entrance pupil of the objective (OBJ1, OBJ2, OBJ3), wherein a position of the stop edge (BK) in the direction (Z) of the optical axis (OA) is variable independently of a position of the stop edge (BK) transversely to the optical axis (OA), characterized in that at least two stop edges (BK, BKL, BKR, BKV, BKH) are present, which are movable relative to one another, and in that the control device is configured to position the at least two stop edges (BK, BKL, BKR, BKV, BKH) in dependence on the microscope setting and/or microscope configuration.
A method of enumerating gas-producing coliform bacteria present in a cultured dairy product, the method comprising: forming a mixture that comprises a predefined quantity of the dairy product and a predefined volume of a diluent, wherein the diluent comprises MOPS; inoculating a thin film culture device with the mixture to form a hydrogel comprising a nutrient medium for growing coliform bacteria, an effective concentration of lactose, and an effective concentration of MOPS, wherein the effective concentration of lactose in the hydrogel is ≥ 0.5 % (w/v) and the effective concentration of MOPS in the hydrogel is ≥ 16 mM; incubating the inoculated thin film culture device under conditions that facilitate growth of a coliform bacterium; and identifying and counting a gas-producing colony present in the inoculated culture device. forming a mixture that comprises a predefined quantity of the dairy product and a predefined volume of a diluent, wherein the diluent comprises MOPS; inoculating a thin film culture device with the mixture to form a hydrogel comprising a nutrient medium for growing coliform bacteria, an effective concentration of lactose, and an effective concentration of MOPS, wherein the effective concentration of lactose in the hydrogel is ≥ 0.5 % (w/v) and the effective concentration of MOPS in the hydrogel is ≥ 16 mM; incubating the inoculated thin film culture device under conditions that facilitate growth of a coliform bacterium; and identifying and counting a gas-producing colony present in the inoculated culture device.
An implantable medical device, comprising: a first electrode node coupleable to a first electrode configured to make electrical contact with a patient's tissue, and a second electrode node coupleable to a second electrode configured to make electrical contact with the patient's tissue, wherein the first electrode node is configured to receive via the first electrode a tissue signal from the patient's tissue; an amplifier with a first input connected to the first electrode node and with a second input connected to the second electrode node, wherein the amplifier produces a first amplifier output and a second amplifier output together comprising a differential amplifier output indicative of the tissue signal; comparator circuitry configured to determine from the first amplifier output a first comparator output indicating whether the first input meets an input requirement of the amplifier, and determine from the second amplifier output a second comparator output indicating whether the second input meets an input requirement of the amplifier; and logic circuitry configured to receive the first comparator output and the second comparator output and to generate an enable signal, wherein the enable signal indicates whether the differential amplifier output indicative of the tissue signal is valid or invalid. a first electrode node coupleable to a first electrode configured to make electrical contact with a patient's tissue, and a second electrode node coupleable to a second electrode configured to make electrical contact with the patient's tissue, wherein the first electrode node is configured to receive via the first electrode a tissue signal from the patient's tissue; an amplifier with a first input connected to the first electrode node and with a second input connected to the second electrode node, wherein the amplifier produces a first amplifier output and a second amplifier output together comprising a differential amplifier output indicative of the tissue signal; comparator circuitry configured to determine from the first amplifier output a first comparator output indicating whether the first input meets an input requirement of the amplifier, and determine from the second amplifier output a second comparator output indicating whether the second input meets an input requirement of the amplifier; and determine from the first amplifier output a first comparator output indicating whether the first input meets an input requirement of the amplifier, and determine from the second amplifier output a second comparator output indicating whether the second input meets an input requirement of the amplifier; and logic circuitry configured to receive the first comparator output and the second comparator output and to generate an enable signal, wherein the enable signal indicates whether the differential amplifier output indicative of the tissue signal is valid or invalid.
Method for the remote control of a function of a motor vehicle by means of a vehicle-external electronic unit, in which the vehicle-external electronic unit is checked during the driving event of the motor vehicle by virtue of the vehicle-external electronic unit triggering an operation, the result of which is checked for correctness by a control device of the motor vehicle , characterized in that the control device stores an index list, wherein an operation is triggered by virtue of an index being transmitted from the control device to the vehicle-external electronic unit and the vehicle-external electronic unit using the index to determine input variables, stored in the vehicle-external electronic unit on the basis of the index, by means of which the operation is carried out, wherein a check on the result computed by the vehicle-external electronic unit is performed in the motor vehicle and control of the motor vehicle by means of the electronic unit is enabled only if the computation is correct, the vehicle-external electronic unit storing for each index not only the input variables but also an expected result of the operation, which result is sent to the control device together with the computed result.
A method of logic cell placement, the method implemented by a computer, the method comprising: identifying a first transistor with a first diffusion node wherein the first diffusion node is bounded by a first diffusion cut ; replacing the first diffusion cut with a first floating gate ; and adding a first filler cell comprising a first filler diffusion region , the first filler diffusion region adjacent to the first floating gate, to extend a length of diffusion of the first diffusion node. identifying a first transistor with a first diffusion node wherein the first diffusion node is bounded by a first diffusion cut ; replacing the first diffusion cut with a first floating gate ; and adding a first filler cell comprising a first filler diffusion region , the first filler diffusion region adjacent to the first floating gate, to extend a length of diffusion of the first diffusion node.
Fuel cell with protection against off-load voltage, comprising: - a stack arrangement made from a number of bipolar plates and a number of membrane electrode units , wherein one particular membrane electrode unit is arranged between two of the bipolar pates in each case, - an electrical resistor element , - wherein the electrical resistor element can be connected electrically to each of the bipolar plates , - wherein on one side each of the bipolar plates has a contacting device for electrically contacting the electrical resistor element with the respective bipolar plate , characterised in that - each of the contacting devices has a respective contacting hole , - wherein the electrical resistor element is passed through the respective contacting hole of the contacting devices . - a stack arrangement made from a number of bipolar plates and a number of membrane electrode units , wherein one particular membrane electrode unit is arranged between two of the bipolar pates in each case, - an electrical resistor element , - wherein the electrical resistor element can be connected electrically to each of the bipolar plates , - wherein on one side each of the bipolar plates has a contacting device for electrically contacting the electrical resistor element with the respective bipolar plate , characterised in that - each of the contacting devices has a respective contacting hole , - wherein the electrical resistor element is passed through the respective contacting hole of the contacting devices .
An optical lens comprising: a first surface ; a second surface ; a first lens portion ; and a second lens portion ; wherein the optical lens is a convex lens; the first surface and the second surface are at two side surfaces of the optical lens , the first surface is an aspheric surface that is convex in a direction away from the second surface , and the second surface is a Fresnel surface with a curved base that is recessed in a direction toward the first surface ; the first lens portion and the second lens portion are adjacent each other and connected in a direction perpendicular to a main optical axis of the optical lens ; a first focal point of the first lens portion and a second focal point of the second lens portion are on the main optical axis , and a focal length of the second lens portion is different from a focal length of the first lens portion ; characterized in that the focal length of the second lens portion is greater than the focal length of the first lens portion , the focal length of the first lens portion is in a range of from 35 mm to 50 mm, and the focal length of the second lens portion is in a range of from 80 mm to 100 mm. a first surface ; a second surface ; a first lens portion ; and a second lens portion ; wherein the optical lens is a convex lens; the first surface and the second surface are at two side surfaces of the optical lens , the first surface is an aspheric surface that is convex in a direction away from the second surface , and the second surface is a Fresnel surface with a curved base that is recessed in a direction toward the first surface ; the first lens portion and the second lens portion are adjacent each other and connected in a direction perpendicular to a main optical axis of the optical lens ; a first focal point of the first lens portion and a second focal point of the second lens portion are on the main optical axis , and a focal length of the second lens portion is different from a focal length of the first lens portion ; characterized in that the focal length of the second lens portion is greater than the focal length of the first lens portion , the focal length of the first lens portion is in a range of from 35 mm to 50 mm, and the focal length of the second lens portion is in a range of from 80 mm to 100 mm.
A cabinet configured to be attached to and/or to be placed against a wall of a room; wherein the cabinet comprises - a front panel intended to face a user of the cabinet , wherein the front panel delimits an interior of the cabinet ; - a slot for receiving a handheld electronic device having a display , wherein the slot extends from the front panel towards the interior of the cabinet ; and - a hologram plate which is configured to generate a hologram within a projection area , based on an image which is rendered by the display of the electronic device , wherein the hologram plate is located within the interior of the cabinet adjacent, notably above or below, the slot ; wherein - the cabinet comprises a movable cover configured to cover the hologram plate and configured to be moved away to give access to the hologram plate ; and - the movable cover is aligned with the front panel when the cover covers the hologram plate . - a front panel intended to face a user of the cabinet , wherein the front panel delimits an interior of the cabinet ; - a slot for receiving a handheld electronic device having a display , wherein the slot extends from the front panel towards the interior of the cabinet ; and - a hologram plate which is configured to generate a hologram within a projection area , based on an image which is rendered by the display of the electronic device , wherein the hologram plate is located within the interior of the cabinet adjacent, notably above or below, the slot ; - the cabinet comprises a movable cover configured to cover the hologram plate and configured to be moved away to give access to the hologram plate ; and - the movable cover is aligned with the front panel when the cover covers the hologram plate .
A method for manufacturing an inorganic particle composite fiber sheet, said method comprising: - a composite fiber generating step of generating composite fibers composed of cellulosic fibers and inorganic particles by synthesizing the inorganic particles in slurry containing the cellulosic fibers; and - a sheet generating step of continuously generating a sheet by supplying composite-fiber-containing slurry including the composite fibers to a continuous paper machine, - the composite fiber generating step being carried out while using at least one of (i) slurry in which cellulosic fibers having a length of 1.2 mm to 2.0 mm are contained in an amount of 16% or more in terms of length-weighted fiber length distribution (%) and (ii) slurry in which cellulosic fibers having a length of 1.2 mm to 3.2 mm are contained in an amount of 30% or more in terms of length-weighted fiber length distribution (%) said method further comprising a slurry preparing step of preparing the slurry by beating the cellulosic fibers and then mixing the cellulosic fibers thus beaten with a material of the inorganic particles, the slurry preparing step being carried out before the composite fiber generating step. - a composite fiber generating step of generating composite fibers composed of cellulosic fibers and inorganic particles by synthesizing the inorganic particles in slurry containing the cellulosic fibers; and - a sheet generating step of continuously generating a sheet by supplying composite-fiber-containing slurry including the composite fibers to a continuous paper machine, - the composite fiber generating step being carried out while using at least one of (i) slurry in which cellulosic fibers having a length of 1.2 mm to 2.0 mm are contained in an amount of 16% or more in terms of length-weighted fiber length distribution (%) and (ii) slurry in which cellulosic fibers having a length of 1.2 mm to 3.2 mm are contained in an amount of 30% or more in terms of length-weighted fiber length distribution (%)