mhurhangee/patent-ind-claim-en huggingface dataset:
Method for locally taking-up the tension of a prestressing cable of a structure and in particular of a civil engineering structure, with a view to its removal or its conservation, consisting in: ▪ positioning by wedging at least two prestressing bars on either side of the cable in question, said prestressing bars extending substantially parallel to said cable at the take-up area, that is to say the area of fragility of said cable, upstream and downstream of said area; ▪ forming the assembly consisting of the cable and the prestressing bars upstream and/or downstream of the take-up area, and over at least part of the take-up area, defining a volume substantially centred around the cable; ▪ injecting, into said volume, fibred concrete BFUP (ultra-high performance fibred concrete) or a resin with equivalent characteristics, occupying the entirety of said volume; ▪ mechanically confining said volume then filled with the fiber concrete BFUP or resin; ▪ allowing the concrete or resin to set; ▪ tensioning the prestressing bars . ▪ positioning by wedging at least two prestressing bars on either side of the cable in question, said prestressing bars extending substantially parallel to said cable at the take-up area, that is to say the area of fragility of said cable, upstream and downstream of said area; ▪ forming the assembly consisting of the cable and the prestressing bars upstream and/or downstream of the take-up area, and over at least part of the take-up area, defining a volume substantially centred around the cable; ▪ injecting, into said volume, fibred concrete BFUP (ultra-high performance fibred concrete) or a resin with equivalent characteristics, occupying the entirety of said volume; ▪ mechanically confining said volume then filled with the fiber concrete BFUP or resin; ▪ allowing the concrete or resin to set; ▪ tensioning the prestressing bars .
Cartridge with a first opening , a second opening , a channel , which extends from the first opening to the second opening and has a taper , an intraocular lens , which is arranged in the channel between the first opening and the second opening , and a cartridge plunger , which is arranged in the channel between the intraocular lens and the second opening and is set up to first preload the intraocular lens by displacing the cartridge plunger toward the first opening , then to fold the intraocular lens by displacing it in the taper and then to push the lens out of the channel via the first opening , wherein the cartridge is set up to be coupled with a syringe , so that a fluid can be forced into the channel via the second opening by means of the syringe and the cartridge plunger can thereby be propelled in a direction of insertion toward the first opening , wherein the cartridge plunger has a first cartridge-plunger longitudinal end and a second cartridge-plunger longitudinal end , characterized in that the cartridge plunger has a fluid line , which extends from the first cartridge-plunger longitudinal end to the second cartridge-plunger longitudinal end and via which the fluid can be forced in from the second cartridge-plunger longitudinal end to the first cartridge-plunger longitudinal end and then to the intraocular lens .
A memory control method comprising: dividing a memory used by a graphic processor for processing a plurality of tasks in a time-divided manner into a first area and a second areas, characterized by : using the first area as a fixed area which stores data related to a predetermined task regardless of whether a task change occurs or not; and using the second area as a switchable area which stores data related to a task after the change in response to a task change. using the first area as a fixed area which stores data related to a predetermined task regardless of whether a task change occurs or not; and using the second area as a switchable area which stores data related to a task after the change in response to a task change.
A method for adjusting a collimator of an X-ray source, comprising: - controlling a position and/or orientation of the X-ray source with a processing device by generating control signals for controlling at least one actuator connected to the X-ray source, - detecting (401-403) an arrangement of an X-ray detector with respect to the X-ray source , wherein detecting the arrangement comprises capturing an image comprising the X-ray detector and automatically computing, based on the captured image, which shows the X-ray detector , and based on the control of the at least one actuator, a distance between the X-ray detector and the X-ray source , an orientation of the X-ray detector with respect to the X-ray source , and a size of an active field of the X-ray detector , - automatically determining an adjustment for the collimator based on the detected position of the X-ray detector with respect to the X-ray source , and - automatically adjusting the collimator based on the determined adjustment for the collimator . - controlling a position and/or orientation of the X-ray source with a processing device by generating control signals for controlling at least one actuator connected to the X-ray source, - detecting (401-403) an arrangement of an X-ray detector with respect to the X-ray source , wherein detecting the arrangement comprises capturing an image comprising the X-ray detector and automatically computing, based on the captured image, which shows the X-ray detector , and based on the control of the at least one actuator, a distance between the X-ray detector and the X-ray source , an orientation of the X-ray detector with respect to the X-ray source , and a size of an active field of the X-ray detector , - automatically determining an adjustment for the collimator based on the detected position of the X-ray detector with respect to the X-ray source , and - automatically adjusting the collimator based on the determined adjustment for the collimator .
A method for manufacturing citrus fibers in dry form, comprising the steps of: a. Providing an aqueous slurry of a source of citrus fibers, said slurry having a pH of between 2 and 9; b. Homogenizing the aqueous slurry of a source of citrus fibers to obtain an aqueous slurry of citrus fibers; c. Contacting the aqueous slurry of citrus fibers with an organic solvent to obtain a precipitate phase and a liquid phase; wherein the precipitate is in the form of granules, wherein the precipitate granules are formed by bringing the slurry under agitation into a container containing the organic solvent or by pouring said slurry in the organic solvent; d. Separating said precipitate phase from the liquid phase to obtain a semi-dry citrus fiber cake having a dry substance-content of at least 10 wt% relative to the mass of said cake; e. Comminuting said cake to obtain grains containing citrus fibers; and optionally mixing said grains with an additive to obtain semi-dry citrus fibers optionally comprising the additive; and f. Desolventizing and/or dehydrating said semi-dry citrus fibers to obtain dry citrus fibers optionally comprising an additive and having a moisture content of preferably below 20 wt% relative to the total weight of the fibers. a. Providing an aqueous slurry of a source of citrus fibers, said slurry having a pH of between 2 and 9; b. Homogenizing the aqueous slurry of a source of citrus fibers to obtain an aqueous slurry of citrus fibers; c. Contacting the aqueous slurry of citrus fibers with an organic solvent to obtain a precipitate phase and a liquid phase; wherein the precipitate is in the form of granules, wherein the precipitate granules are formed by bringing the slurry under agitation into a container containing the organic solvent or by pouring said slurry in the organic solvent; d. Separating said precipitate phase from the liquid phase to obtain a semi-dry citrus fiber cake having a dry substance-content of at least 10 wt% relative to the mass of said cake; e. Comminuting said cake to obtain grains containing citrus fibers; and optionally mixing said grains with an additive to obtain semi-dry citrus fibers optionally comprising the additive; and f. Desolventizing and/or dehydrating said semi-dry citrus fibers to obtain dry citrus fibers optionally comprising an additive and having a moisture content of preferably below 20 wt% relative to the total weight of the fibers.
A H. polymorpha strain comprising a gene encoding an α-amylase enzyme according to Fig.20B and a gene encoding a glucoamylase enzyme according to Fig.21B, the genes being operably linked to a HpGAP promoter obtained from H. polymorpha that expresses said genes in the H. polymorpha strain, each of the genes encoding the α-amylase and glucoamylase are integrated into the H. polymorpha chromosome, and further including a gene encoding a pyruvate decarboxylase enzyme from H. polymorpha operably linked to a HpGAP promoter that expresses said pyruvate decarboxylase in the H. polymorpha strain.
An ultrasound based measurement method, the method comprising: performing ultrasonic beamfocusing on an actual focusing point; receiving data by receiving an acoustic field reflected from a reflector in response to the ultrasonic beamfocusing; characterized by obtaining an element of synthetic data corresponding to a focusing point in a region adjacent to the reflector by applying a synthetic focusing method to the received data corresponding to the actual focusing point, wherein the obtaining the element of the synthetic data comprises determining a synthetic focusing point, i.e. a virtual focusing point, in the region adjacent to the reflector and estimating a delay between the synthetic focusing point and the actual focusing point; and generating an image of the reflector based on the element of the synthetic data. performing ultrasonic beamfocusing on an actual focusing point; receiving data by receiving an acoustic field reflected from a reflector in response to the ultrasonic beamfocusing; characterized by obtaining an element of synthetic data corresponding to a focusing point in a region adjacent to the reflector by applying a synthetic focusing method to the received data corresponding to the actual focusing point, wherein the obtaining the element of the synthetic data comprises determining a synthetic focusing point, i.e. a virtual focusing point, in the region adjacent to the reflector and estimating a delay between the synthetic focusing point and the actual focusing point; and generating an image of the reflector based on the element of the synthetic data.
Lining for an A-pillar of a motor vehicle , comprising a mounting designed to secure a dashboard crossbar of the motor vehicle to the lining , characterized in that the mounting comprises a shaped part of the lining and an attached component , each having a half-shell.
A circuit for facilitating random edge injection locking of an oscillator comprising: a digitally controlled delay line configured to receive a clock signal and further to delay the clock signal , thereby generating a delayed clock signal , an edge selector configured to generate a phase select signal with a pulse sequence, and a pulse generator downstream to the digitally controlled delay line configured to generate injection pulses from the delayed clock signal for at least two phases of the signals generated by the oscillator based on the phase select signal , characterised in that said edge selector is configured to generate said phase select signal with a random pulse sequence. a digitally controlled delay line configured to receive a clock signal and further to delay the clock signal , thereby generating a delayed clock signal , an edge selector configured to generate a phase select signal with a pulse sequence, and a pulse generator downstream to the digitally controlled delay line configured to generate injection pulses from the delayed clock signal for at least two phases of the signals generated by the oscillator based on the phase select signal ,
A composition for oral administration comprising a beverage and beads distributed in the beverage, wherein the beads have an average diameter between 2 to 10 mm, comprise more than 50% (w/w) dietary fibres and wherein the amount of beads in the composition is between 1 and 20 wt.%, wherein the energy content of the composition is below 100 kJ/100 g.
Method for producing a composite membrane , in which a woven mesh is provided as a carrier layer , and on the carrier layer a membrane with a pore structure is arranged, wherein the membrane is produced directly on the woven mesh by electrospinning of fibers being superimposed, wherein the woven mesh is produced with at least two different filaments, a first filament being made with a first polymer material and a second filament being made with a second polymer material, which is different to the first polymer material, and the first filaments are thermally bonded to the membrane, while the second filaments do not form a thermal bonding to the membrane. a woven mesh is provided as a carrier layer , and on the carrier layer a membrane with a pore structure is arranged, wherein the membrane is produced directly on the woven mesh by electrospinning of fibers being superimposed, wherein the woven mesh is produced with at least two different filaments, a first filament being made with a first polymer material and a second filament being made with a second polymer material, which is different to the first polymer material, and the first filaments are thermally bonded to the membrane, while the second filaments do not form a thermal bonding to the membrane.
A first core network node in a core network, the first core network node comprising: reception means for receiving, from a second core network node that acts as an access and mobility management apparatus, first information indicating whether a network slice-specific authentication and authorization, NSSAA, feature is supported by the second core network node ; and transmission means for transmitting, to the second core network node , second information indicating a network slice being associated with the first information among pieces of information indicating a network slice being associated with a certain piece of subscriber information, wherein when the first information does not indicate that an NSSAA feature is supported by the second core network node , the second information does not include information indicating a network slice requiring NSSAA among pieces of information indicating a network slice being associated with the certain piece of subscriber information. reception means for receiving, from a second core network node that acts as an access and mobility management apparatus, first information indicating whether a network slice-specific authentication and authorization, NSSAA, feature is supported by the second core network node ; and transmission means for transmitting, to the second core network node , second information indicating a network slice being associated with the first information among pieces of information indicating a network slice being associated with a certain piece of subscriber information, wherein when the first information does not indicate that an NSSAA feature is supported by the second core network node , the second information does not include information indicating a network slice requiring NSSAA among pieces of information indicating a network slice being associated with the certain piece of subscriber information.
A method for evaluating a urine sample for the presence or absence of a suspicion of tubular proteinuria, the method comprising: detecting proteins in the urine sample with a protein detection reagent for detecting protein in the urine sample, and a detection reagent having a higher detection sensitivity to albumin than the protein detection reagent; evaluating the presence or absence of a suspicion of tubular proteinuria of the urine sample based on an indicator calculated using a P value and an A value, where the P value is determined using the protein detection reagent, and the A value is determined using the detection reagent having a higher detection sensitivity to albumin than the protein detection reagent, and where the indicator is the following A/P value or P/A value: A / P value = A value / P value or A / C value / P / C value ; P / A value = P value / A value or P / C value / A / C value , where the P/C value is calculated by correcting the P value with a C value that is determined using a creatinine detection reagent for detecting creatinine in the urine sample, and the A/C value is calculated by correcting the A value with the C value; and comparing the indicator to a threshold value. detecting proteins in the urine sample with a protein detection reagent for detecting protein in the urine sample, and a detection reagent having a higher detection sensitivity to albumin than the protein detection reagent; evaluating the presence or absence of a suspicion of tubular proteinuria of the urine sample based on an indicator calculated using a P value and an A value, where the P value is determined using the protein detection reagent, and the A value is determined using the detection reagent having a higher detection sensitivity to albumin than the protein detection reagent, and where the indicator is the following A/P value or P/A value: A / P value = A value / P value or A / C value / P / C value ; P / A value = P value / A value or P / C value / A / C value , where the P/C value is calculated by correcting the P value with a C value that is determined using a creatinine detection reagent for detecting creatinine in the urine sample, and the A/C value is calculated by correcting the A value with the C value; and comparing the indicator to a threshold value.
A hearing aid configured to be disposed across a user's tympanic membrane , the hearing aid comprising: a housing comprising: a first portion, the first portion being configured for placement on a lateral side of the tympanic membrane , the first portion comprising: a first mass disposed within the first portion of the housing and configured to be actuated by an actuator , the first mass coupled to the first portion of the housing ; a second portion, the second portion being configured for placement on a medial side of the tympanic membrane , the second portion comprising: a second mass disposed within the second portion of the housing and configured to be actuated by the actuator , the second mass coupled to the second portion of the housing; a connecting portion coupling the first portion of the housing to the second portion of the housing , the connecting portion being configured to be placed through the tympanic membrane ; the actuator being disposed within at least one of the connecting portion , the first portion and the second portion; and wherein at least one of the first portion or the second portion has a conical shape. a first portion, the first portion being configured for placement on a lateral side of the tympanic membrane , the first portion comprising: a first mass disposed within the first portion of the housing and configured to be actuated by an actuator , the first mass coupled to the first portion of the housing ; a second portion, the second portion being configured for placement on a medial side of the tympanic membrane , the second portion comprising: a second mass disposed within the second portion of the housing and configured to be actuated by the actuator , the second mass coupled to the second portion of the housing; a connecting portion coupling the first portion of the housing to the second portion of the housing , the connecting portion being configured to be placed through the tympanic membrane ; the actuator being disposed within at least one of the connecting portion , the first portion and the second portion; and wherein at least one of the first portion or the second portion has a conical shape.
A control and processing unit for a touch-sensitive screen , comprising a communication unit and a memory, wherein the control and processing unit is configured for - receiving first sensor data which is generated by way of capacitive sensors of the touch-sensitive screen , - receiving second sensor data which is transferred from an input unit to the control and processing unit , wherein the second sensor data comprises data of a sensor of the input unit , said sensor being designed to detect a putting-down of the input unit , - examining, on the basis of a temporal sequence of the first and second sensor data, whether a putting-down of the input unit has been detected simultaneously with a placing of an object with a conductive structure onto the touch-sensitive screen , in order to ascertain whether the input unit has been put down on the touch-sensitive screen , - creating and storing a capacitance pattern for the conductive structure (1.6) of the input unit , wherein the capacitance pattern comprises a locally resolved representation of at least two capacitance changes of different amounts or of at least three capacitance values of different amounts in pairs or variables which are derived therefrom, - creating a coupling mode for the input unit by way of sending data to the input unit and/or receiving data from the input unit , if the placing-on and the putting-down have been detected simultaneously. - receiving first sensor data which is generated by way of capacitive sensors of the touch-sensitive screen , - receiving second sensor data which is transferred from an input unit to the control and processing unit , wherein the second sensor data comprises data of a sensor of the input unit , said sensor being designed to detect a putting-down of the input unit , - examining, on the basis of a temporal sequence of the first and second sensor data, whether a putting-down of the input unit has been detected simultaneously with a placing of an object with a conductive structure onto the touch-sensitive screen , in order to ascertain whether the input unit has been put down on the touch-sensitive screen , - creating and storing a capacitance pattern for the conductive structure (1.6) of the input unit , wherein the capacitance pattern comprises a locally resolved representation of at least two capacitance changes of different amounts or of at least three capacitance values of different amounts in pairs or variables which are derived therefrom, - creating a coupling mode for the input unit by way of sending data to the input unit and/or receiving data from the input unit , if the placing-on and the putting-down have been detected simultaneously.