mhurhangee/patent-ind-claim-en huggingface dataset:
An injection device comprising - a housing containing a cartridge containing a medicament and a movable bung , wherein the housing comprises an inner thread , - a piston rod for moving the bung during dose dispensing, wherein the piston rod comprises an outer thread engaging the inner thread of the housing and a bearing at its end facing the bung , - a driver coupled to the piston rod for driving the piston rod during dose dispensing, wherein in the unused delivery state of the device, the bearing abuts the bung characterized in that the driver comprises a drive tube which is directly coupled to the piston rod and a drive sleeve which is coupled to a power reservoir , wherein the drive tube and the drive sleeve are permanently rotationally coupled to each other. - a housing containing a cartridge containing a medicament and a movable bung , wherein the housing comprises an inner thread , - a piston rod for moving the bung during dose dispensing, wherein the piston rod comprises an outer thread engaging the inner thread of the housing and a bearing at its end facing the bung , - a driver coupled to the piston rod for driving the piston rod during dose dispensing,
Household refrigeration appliance with a carcass and a door , wherein the carcass or the door has a heat-insulating wall (21; 51), wherein the heat-insulating wall (21; 51) is provided with a thermally insulating core , which has first and second main surfaces (25; 27) that lie opposite one another and at least one narrow side that connects the main surfaces , and with a first cladding element formed from a blank of flat material, wherein the cladding element extends on at least the first main surface and the narrow side , characterised in that the first cladding element , on the narrow side , at least locally, has a plurality of superimposed layers of the flat material.
An antibody for use in treating atypical hemolytic uremic syndrome (aHUS) in a patient, wherein the antibody is eculizumab.
A method for generating at least one high fidelity resource state, the method comprising: selecting a classical error correcting code, having a generator matrix, in which all of the rows of the generator matrix associated with the code have a weight of zero mod 2g, where g is a positive integer power of two; puncturing the classical error correcting code, by deleting at least one column of the generator matrix, such that a first set of generators retains a weight of zero mod 2g and a second set of generators has a weight of 2g -1 mod 2g ; mapping the first set of generators to a set of stabilizer generators; mapping the second set of generators to a set of logical operators; preparing a set of relatively low fidelity resource states in a plurality of physical qubits , said preparing comprising: encoding the plurality of physical qubits with the punctured classical code via a series of gates; and applying a transversal rotation across the plurality of physical qubits; performing a decoding process, according to a quantum CSS code represented by the set of stabilizer generators and the set of logical operators, on the physical qubits ; and performing, on a set of the physical qubits , measurements , whose values correspond to stabilizers of the quantum CSS code to provide a set of measurement values. selecting a classical error correcting code, having a generator matrix, in which all of the rows of the generator matrix associated with the code have a weight of zero mod 2g, where g is a positive integer power of two; puncturing the classical error correcting code, by deleting at least one column of the generator matrix, such that a first set of generators retains a weight of zero mod 2g and a second set of generators has a weight of 2g -1 mod 2g ; mapping the first set of generators to a set of stabilizer generators; mapping the second set of generators to a set of logical operators; preparing a set of relatively low fidelity resource states in a plurality of physical qubits , said preparing comprising: encoding the plurality of physical qubits with the punctured classical code via a series of gates; and applying a transversal rotation across the plurality of physical qubits; encoding the plurality of physical qubits with the punctured classical code via a series of gates; and applying a transversal rotation across the plurality of physical qubits; performing a decoding process, according to a quantum CSS code represented by the set of stabilizer generators and the set of logical operators, on the physical qubits ; and performing, on a set of the physical qubits , measurements , whose values correspond to stabilizers of the quantum CSS code to provide a set of measurement values.
A method comprising: obtaining a plurality of source images (221-226); stabilizing the plurality of source images to generate a plurality of stabilized images; averaging the plurality of stabilized images to generate a synthetic long exposure image ; and generating a dynamism map indicative of a level of pixel value variation of the pixels of the plurality of stabilized images, wherein generating a particular pixel of the dynamism map at a particular pixel location comprises: determining pixel values of the plurality of stabilized images in a neighbourhood surrounding the particular pixel location, wherein determining the pixel values includes determining, for each pixel in the neighbourhood, a minimum pixel value and a maximum pixel value; and determining a dynamism value of the particular pixel indicative of variation of the pixel values, wherein the dynamism value is based on a selected one of a plurality of candidate distance metrics, and wherein the plurality of candidate distance metrics is indicative of distances between the maximum pixel value and the minimum pixel values. obtaining a plurality of source images (221-226); stabilizing the plurality of source images to generate a plurality of stabilized images; averaging the plurality of stabilized images to generate a synthetic long exposure image ; and generating a dynamism map indicative of a level of pixel value variation of the pixels of the plurality of stabilized images, wherein generating a particular pixel of the dynamism map at a particular pixel location comprises: determining pixel values of the plurality of stabilized images in a neighbourhood surrounding the particular pixel location, wherein determining the pixel values includes determining, for each pixel in the neighbourhood, a minimum pixel value and a maximum pixel value; and determining a dynamism value of the particular pixel indicative of variation of the pixel values, wherein the dynamism value is based on a selected one of a plurality of candidate distance metrics, and wherein the plurality of candidate distance metrics is indicative of distances between the maximum pixel value and the minimum pixel values. determining pixel values of the plurality of stabilized images in a neighbourhood surrounding the particular pixel location, wherein determining the pixel values includes determining, for each pixel in the neighbourhood, a minimum pixel value and a maximum pixel value; and determining a dynamism value of the particular pixel indicative of variation of the pixel values, wherein the dynamism value is based on a selected one of a plurality of candidate distance metrics, and wherein the plurality of candidate distance metrics is indicative of distances between the maximum pixel value and the minimum pixel values.
An article , comprising: at least one microneedle , the at least one microneedle comprising: a base ; an elongated body having a central axis ; a tip portion comprising a tip , a beveled surface , and a bevel opening in the beveled surface; a first channel that extends axially from the bevel opening through at least a portion of the elongated body, wherein the first channel has a first wall that is substantially aligned with the central axis; and a second channel that extends radially from the first channel to the bevel opening, wherein the second channel has a second wall that is oriented substantially orthogonal to the central axis; wherein the first channel and second channel merge to form the bevel opening. a base ; an elongated body having a central axis ; a tip portion comprising a tip , a beveled surface , and a bevel opening in the beveled surface; a first channel that extends axially from the bevel opening through at least a portion of the elongated body, wherein the first channel has a first wall that is substantially aligned with the central axis; and a second channel that extends radially from the first channel to the bevel opening, wherein the second channel has a second wall that is oriented substantially orthogonal to the central axis; wherein the first channel and second channel merge to form the bevel opening.
A method for determining a carrier center frequency, wherein the method is applied to a Narrow Band Internet of Things, NB-IoT, system and comprises: determining a frequency band starting frequency, an absolute radio frequency channel number, a frequency band offset, and a relative radio frequency channel number; and determining a carrier center frequency according to the frequency band starting frequency, the absolute radio frequency channel number, the frequency band offset, and the relative radio frequency channel number that are determined; wherein the carrier center frequency is a downlink carrier center frequency F NB DL , and the determining a carrier center frequency according to the frequency band starting frequency, the absolute radio frequency channel number, the frequency band offset, and the relative radio frequency channel number that are determined comprises: F NB DL = F DL _ low + 0.1 ∗ N DL − N Offs − DL + 0.0025 ∗ 2 M DL + 1 ; wherein F DL_low is a downlink frequency band starting frequency, N DL is a downlink absolute radio frequency channel number, and N Offs-DL is a downlink frequency band offset; and M DL is a downlink relative radio frequency channel number, a value range of which comprises any one in the following set: -10, -9, -8, -7, -6, -5, -4, -3, -2, -1, 0, 1, 2, 3, 4, 5, 6, 7, 8, 9. determining a frequency band starting frequency, an absolute radio frequency channel number, a frequency band offset, and a relative radio frequency channel number; and determining a carrier center frequency according to the frequency band starting frequency, the absolute radio frequency channel number, the frequency band offset, and the relative radio frequency channel number that are determined; wherein the carrier center frequency is a downlink carrier center frequency F NB DL , and the determining a carrier center frequency according to the frequency band starting frequency, the absolute radio frequency channel number, the frequency band offset, and the relative radio frequency channel number that are determined comprises: F NB DL = F DL _ low + 0.1 ∗ N DL − N Offs − DL + 0.0025 ∗ 2 M DL + 1 ; wherein F DL_low is a downlink frequency band starting frequency, N DL is a downlink absolute radio frequency channel number, and N Offs-DL is a downlink frequency band offset; and M DL is a downlink relative radio frequency channel number, a value range of which comprises any one in the following set: -10, -9, -8, -7, -6, -5, -4, -3, -2, -1, 0, 1, 2, 3, 4, 5, 6, 7, 8, 9. wherein F DL_low is a downlink frequency band starting frequency, N DL is a downlink absolute radio frequency channel number, and N Offs-DL is a downlink frequency band offset; and M DL is a downlink relative radio frequency channel number, a value range of which comprises any one in the following set: -10, -9, -8, -7, -6, -5, -4, -3, -2, -1, 0, 1, 2, 3, 4, 5, 6, 7, 8, 9.
A three-dimensional imaging apparatus comprising: a plurality of image capture devices , each image capture device including polarized filtering of a first orientation and belonging to one of a number of groups of image capture devices; a plurality of illumination sources , each illumination source including polarized filtering of a second orientation orthogonal to the first orientation and belonging to one of a number of groups of illumination sources, each of the groups of image capture devices corresponding to one of the groups of illumination sources; a support structure , wherein the plurality of image capture devices and the plurality of illumination sources are mounted on the support structure; and a controller , wherein the controller is configured to control the plurality of image capture devices and the plurality of illumination sources to sequentially activate each of the groups of image capture devices and each of the groups of illumination sources, wherein each group of illumination sources is activated while the corresponding group of image capture devices is activated. a plurality of image capture devices , each image capture device including polarized filtering of a first orientation and belonging to one of a number of groups of image capture devices; a plurality of illumination sources , each illumination source including polarized filtering of a second orientation orthogonal to the first orientation and belonging to one of a number of groups of illumination sources, each of the groups of image capture devices corresponding to one of the groups of illumination sources; a support structure , wherein the plurality of image capture devices and the plurality of illumination sources are mounted on the support structure; and a controller , wherein the controller is configured to control the plurality of image capture devices and the plurality of illumination sources to sequentially activate each of the groups of image capture devices and each of the groups of illumination sources, wherein each group of illumination sources is activated while the corresponding group of image capture devices is activated.
A method for operating a serving base station, BS, in a mobile communication system, the method comprising: generating a message including first information indicating a time to trigger, TTT, for at least one first cell and an alternative TTT for at least one second cell , and second information indicating at least one list of the at least one second cell, wherein the TTT indicates time during which specific criteria needs to be met in order to trigger a measurement report; transmitting, to a mobile station , the message; and receiving, from the mobile station, the measurement report for at least one of the at least one first cell or the at least one second cell, wherein the alternative TTT is used for the at least one second cell instead of the TTT, and wherein the second information further includes a physical cell identifier range indicating a range of physical cell identities in the at least one list. generating a message including first information indicating a time to trigger, TTT, for at least one first cell and an alternative TTT for at least one second cell , and second information indicating at least one list of the at least one second cell, wherein the TTT indicates time during which specific criteria needs to be met in order to trigger a measurement report; transmitting, to a mobile station , the message; and receiving, from the mobile station, the measurement report for at least one of the at least one first cell or the at least one second cell, wherein the alternative TTT is used for the at least one second cell instead of the TTT, and wherein the second information further includes a physical cell identifier range indicating a range of physical cell identities in the at least one list.
A controller , comprising: a processor and a memory communicatively connected to the processor, wherein the controller is configured to operate as a control element of a software defined network in which the control plane is separated from the data plane, wherein the processor is configured to: generate, based on detection of a resource utilization condition associated with a resource of a first network element configured to operate as a forwarding element of the software defined network, a flow forwarding rule to instruct the first network element to forward at least a portion of new flow requests received at the first network element from the first network element to a second network element of the software defined network so that the second network element will forward new flow requests received at the first network element to the controller on behalf of the first network element , and propagate the flow forwarding rule to the first network element to initiate flow deflection from the first network element to the second network element . a processor and a memory communicatively connected to the processor, wherein the controller is configured to operate as a control element of a software defined network in which the control plane is separated from the data plane, wherein the processor is configured to: generate, based on detection of a resource utilization condition associated with a resource of a first network element configured to operate as a forwarding element of the software defined network, a flow forwarding rule to instruct the first network element to forward at least a portion of new flow requests received at the first network element from the first network element to a second network element of the software defined network so that the second network element will forward new flow requests received at the first network element to the controller on behalf of the first network element , and propagate the flow forwarding rule to the first network element to initiate flow deflection from the first network element to the second network element . generate, based on detection of a resource utilization condition associated with a resource of a first network element configured to operate as a forwarding element of the software defined network, a flow forwarding rule to instruct the first network element to forward at least a portion of new flow requests received at the first network element from the first network element to a second network element of the software defined network so that the second network element will forward new flow requests received at the first network element to the controller on behalf of the first network element , and propagate the flow forwarding rule to the first network element to initiate flow deflection from the first network element to the second network element .
An arrangement for inductive energy transmission from a primary conductor system, in particular a primary conductor system arranged in a stationary manner, to a vehicle having a secondary winding, wherein the secondary winding is inductively coupled to the primary conductor system, wherein the primary conductor is in the form of a primary conductor loop, laid in an elongated manner, which in a line portion has a feed conductor and a return conductor , in particular a return conductor laid parallel thereto, wherein the return conductor is electrically earthed in that at least one inductor is arranged between the return conductor and the electrical earth , characterised in that the primary conductor loop has a plurality of line portions which each have a feed conductor and a return conductor , wherein the return conductors are electrically connected to a series circuit of inductors , wherein a first connection of the series circuit is electrically connected to the housing of a feeding unit for feeding a medium-frequency alternating current into the primary conductor loop, wherein the housing is electrically connected to earth , in particular electrically connected to earth potential.
Use of a film or sheet comprising a polymer blend obtained by melt blending a mixture comprising: (A) 60% to 98.8% by weight, preferably from 65% to 95% by weight, more preferably from 70% to 90% by weight, more preferably from 72% to 85% by weight, of a polyolefin; (B) 0.1% to 30% by weight, preferably from 5% to 30% by weight, more preferably from 10 to 25% by weight, more preferably from 15% to 25% by weight, of at least one compatibilizer; (C) 0.05% to 20% by weight, preferably from 0.05% to 10% by weight, more preferably from 0.1% to 7% by weight, more preferably from 0.5% to 5% by weight of an amino resin; and (D) 0% to 5% by weight, preferably 0.01% to 4% by weight, more preferably 0.05% to 3% by weight, more preferably 0.06% to 2.5 % by weight, of at least one additive, wherein the amounts of (A), (B), (C) and (D) are based on the total weight of (A)+(B)+(C)+(D), the total weight being 100%, as printing plate in an extrusion-based additive manufacturing process. (A) 60% to 98.8% by weight, preferably from 65% to 95% by weight, more preferably from 70% to 90% by weight, more preferably from 72% to 85% by weight, of a polyolefin; (B) 0.1% to 30% by weight, preferably from 5% to 30% by weight, more preferably from 10 to 25% by weight, more preferably from 15% to 25% by weight, of at least one compatibilizer; (C) 0.05% to 20% by weight, preferably from 0.05% to 10% by weight, more preferably from 0.1% to 7% by weight, more preferably from 0.5% to 5% by weight of an amino resin; and (D) 0% to 5% by weight, preferably 0.01% to 4% by weight, more preferably 0.05% to 3% by weight, more preferably 0.06% to 2.5 % by weight, of at least one additive, wherein the amounts of (A), (B), (C) and (D) are based on the total weight of (A)+(B)+(C)+(D), the total weight being 100%, as printing plate in an extrusion-based additive manufacturing process. wherein the amounts of (A), (B), (C) and (D) are based on the total weight of (A)+(B)+(C)+(D), the total weight being 100%, as printing plate in an extrusion-based additive manufacturing process.
Apparatus for data transmission using a transponder that can be fixed to the required components by means of a fixing band , said band comprising a housing-like top part to which portions of the band can be connected, forming a loop for the purpose of enclosing components of any shape, the top part comprising a through slot for this purpose, said slot being furnished with a latching device , which interacts with an assignable latching part of the fixing band when the free end of the band passes through the slot , the transponder being directly integrated in the housing of the top part without any further fixtures or additional parts and without any overhang, characterised in that a recess is designed in the form of a receiving cylinder or in the form of a receiving cone and in that , once the transponder is placed in the recess , said recess is sealed from the outside by means of a plug .