mhurhangee/patent-ind-claim-en huggingface dataset:
Battery cell preparation line for preparing one or more unprocessed battery cells for battery module production , wherein the preparation line comprises a linear conveyor which moves at least one unprocessed battery cell from a supply region to one or more preparation process stations , which are arranged along the preparation line , and moves prepared battery cells onwards to a transfer region , characterized in that the preparation line comprises: - a main conveying means for battery cell movement, wherein the main conveying means is designed to transport the at least one battery cell and/or a product carrier , which is designed to receive a battery cell , with a constant macro conveying movement (A), in particular at a constant conveying speed and/or conveying cycle at the transfer points to the supply region and to the transfer region , - at least one auxiliary conveying means , which is interposed in the conveying line of the main conveying means , - wherein the auxiliary conveying means is designed to transport at least one battery cell and/or a product carrier , which is designed to receive a battery cell , with an intermediate conveying movement (B), which temporarily deviates from the macro conveying movement (A), such that a battery cell can be guided along the conveying line of the auxiliary conveying means to a preparation process station at such a speed that the momentary movement of the battery cell and/or of a product carrier is adapted to the process requirements of this preparation process station . - a main conveying means for battery cell movement, wherein the main conveying means is designed to transport the at least one battery cell and/or a product carrier , which is designed to receive a battery cell , with a constant macro conveying movement (A), in particular at a constant conveying speed and/or conveying cycle at the transfer points to the supply region and to the transfer region , - at least one auxiliary conveying means , which is interposed in the conveying line of the main conveying means , - wherein the auxiliary conveying means is designed to transport at least one battery cell and/or a product carrier , which is designed to receive a battery cell , with an intermediate conveying movement (B), which temporarily deviates from the macro conveying movement (A), such that a battery cell can be guided along the conveying line of the auxiliary conveying means to a preparation process station at such a speed that the momentary movement of the battery cell and/or of a product carrier is adapted to the process requirements of this preparation process station .
Method for producing an adhesive bond between a first component and a second component for microlithography, wherein the second component is an optical element (10; 500) and wherein the method comprises the following steps a) Introducing the first component and the second component into a positioning device , which makes it possible to change the relative position between first and second components; b) Calibrating a first relative position, in which a distance between first and second components has a first value defining a predefined adhesive gap ; c) Calibrating a second relative position, in which a distance between first and second components has a second value, which is greater than the first value; d) Applying adhesive to the first component while first and second components are at a distance from one another which is greater than the first value; and e) Setting the first relative position while forming the adhesive bond between first and second components; wherein both calibrating the first relative position and calibrating the second relative position are carried out still before applying the adhesive to the first component. a) Introducing the first component and the second component into a positioning device , which makes it possible to change the relative position between first and second components; b) Calibrating a first relative position, in which a distance between first and second components has a first value defining a predefined adhesive gap ; c) Calibrating a second relative position, in which a distance between first and second components has a second value, which is greater than the first value; d) Applying adhesive to the first component while first and second components are at a distance from one another which is greater than the first value; and e) Setting the first relative position while forming the adhesive bond between first and second components;
A system for assisting in attenuation correction of PET data of a moving object , the PET data being associated with a plurality of gates (21 i ) , each gate (21 i ) being associated with one of plurality of motion phases of the motion of the object and including PET data acquired during the respective motion phase, the system comprising an evaluation unit configured to - receive a CT image of the object and to segment the CT image in an axial direction of the object into a plurality of CT sub-images, each CT sub-image corresponding to an axial segment (23 i ) of an imaged volume , - determine, for each CT sub-image, a gate (21 i ) including PET data having a greatest correspondence with the CT sub-image in accordance with a predetermined criterion, - construct, for each CT sub-image, a PET sub-image from the PET data included in the gate (21 i ) determined for the respective CT sub-image, the PET sub-image substantially corresponding to the same axial segment of the imaged volume as the respective CT sub-image, and - combine the PET sub-images to form a PET reference image of the object, and the system further being configured to provide the reference image for attenuation correction of the PET data on the basis of the CT image. - receive a CT image of the object and to segment the CT image in an axial direction of the object into a plurality of CT sub-images, each CT sub-image corresponding to an axial segment (23 i ) of an imaged volume , - determine, for each CT sub-image, a gate (21 i ) including PET data having a greatest correspondence with the CT sub-image in accordance with a predetermined criterion, - construct, for each CT sub-image, a PET sub-image from the PET data included in the gate (21 i ) determined for the respective CT sub-image, the PET sub-image substantially corresponding to the same axial segment of the imaged volume as the respective CT sub-image, and - combine the PET sub-images to form a PET reference image of the object, and the system further being configured to provide the reference image for attenuation correction of the PET data on the basis of the CT image.
A passive reactivity control nuclear fuel device for a nuclear reactor core, the passive reactivity control nuclear fuel device comprising: a multiple-walled fuel chamber including an inner wall chamber configured to position nuclear fuel in a molten fuel state within a high neutron importance region of the nuclear reactor core, the inner wall chamber being further configured to allow at least a portion of the nuclear fuel to move in a molten fuel state into a lower neutron importance region of the nuclear reactor core while remaining within the inner wall chamber as temperature of the nuclear fuel satisfies a negative reactivity feedback expansion temperature condition, the movement of the nuclear fuel in a molten fuel state to the lower neutron importance region increasing negative reactivity feedback in the nuclear reactor core, and an outer wall chamber containing the inner wall chamber, a gap between the outer wall chamber and the inner wall chamber thermally isolating the inner wall chamber. an inner wall chamber configured to position nuclear fuel in a molten fuel state within a high neutron importance region of the nuclear reactor core, the inner wall chamber being further configured to allow at least a portion of the nuclear fuel to move in a molten fuel state into a lower neutron importance region of the nuclear reactor core while remaining within the inner wall chamber as temperature of the nuclear fuel satisfies a negative reactivity feedback expansion temperature condition, the movement of the nuclear fuel in a molten fuel state to the lower neutron importance region increasing negative reactivity feedback in the nuclear reactor core, and an outer wall chamber containing the inner wall chamber, a gap between the outer wall chamber and the inner wall chamber thermally isolating the inner wall chamber.
A composition comprising a xanthine oxidase inhibitor, and an organic base, and optionally a pharmaceutically acceptable carrier; wherein (i) the organic base is lysine or arginine or ornithine, (ii) the xanthine oxidase inhibitor is allopurinol or oxypurinol, (iii) the xanthine oxidase inhibitor and organic base are in powder form, and (iv) the xanthine oxidase inhibitor to organic base molar ratio is 1:0.01 to 1:100.
A compound of Formula II: or a pharmaceutically acceptable salt thereof; wherein R 1 is selected from
A method manufacturing artificial turf infill , wherein the method comprises: - providing an initial composition comprising a granulate , at least one first type of pigment, and a fluid binding agent, wherein the fluid binding agent comprises at least one type of polymer component; - mixing the initial composition; - adding water and a catalyst to the initial composition during the mixing of the initial composition to cure the fluid binding agent and the at least one type of pigment into an initial coating of the granulate; - providing a subsequent composition comprising the granulate with the initial coating, at least one second type of pigment, and the fluid binding agent; - mixing the subsequent composition; - adding water and the catalyst to the subsequent composition during the mixing of the subsequent composition to cure the fluid binding agent and the at least one type of pigment into a subsequent coating of the granulate, wherein the initial coating comprises gaps , wherein the subsequent coating comprises gaps ; and - providing the granulate with the subsequent coating as artificial turf infill. - providing an initial composition comprising a granulate , at least one first type of pigment, and a fluid binding agent, wherein the fluid binding agent comprises at least one type of polymer component; - mixing the initial composition; - adding water and a catalyst to the initial composition during the mixing of the initial composition to cure the fluid binding agent and the at least one type of pigment into an initial coating of the granulate; - providing a subsequent composition comprising the granulate with the initial coating, at least one second type of pigment, and the fluid binding agent; - mixing the subsequent composition; - adding water and the catalyst to the subsequent composition during the mixing of the subsequent composition to cure the fluid binding agent and the at least one type of pigment into a subsequent coating of the granulate, wherein the initial coating comprises gaps , wherein the subsequent coating comprises gaps ; and - providing the granulate with the subsequent coating as artificial turf infill.
A method in a Next Generation Core Control Function NG-CCF, node for communication with a Next Generation Policy Control Function ,NG-PCF, node, comprising: receiving, from a Next Generation-Radio Access Network ,NG-RAN, request for a mobility policy for a Next Generation-User Equipment, NG-UE; transmitting, using a Gx interface, to the NG-PCF node a request for the mobility policy associated with one or more of Location-Based Service ,LBS, Next Generation User Plane ,NG-UP, selection, Radio Access Technology ,RAT, / Frequency Selection Priority RFSP, selection and mobility preference information handling; receiving the mobility policy from the NG-PCF node; and transmitting, using said Gx interface, information on deployment of the mobility policy, including UE level information, to the NG-RAN; wherein the method further comprises: receiving, from the NG-PCF node using the Gx interface, a request to modify said mobility policy, wherein said request comprises a radio frequency selection priority and/or a mobility policy data comprising quota limits and subscription information for said NG-UE; transmitting, to the NG-RAN, information on deployment of the modified mobility policy, including UE level information; receiving, from the NG-RAN, a report regarding the deployment of the mobility policy; and forwarding, using said Gx interface, the report to the NG-PCF. receiving, from a Next Generation-Radio Access Network ,NG-RAN, request for a mobility policy for a Next Generation-User Equipment, NG-UE; transmitting, using a Gx interface, to the NG-PCF node a request for the mobility policy associated with one or more of Location-Based Service ,LBS, Next Generation User Plane ,NG-UP, selection, Radio Access Technology ,RAT, / Frequency Selection Priority RFSP, selection and mobility preference information handling; receiving the mobility policy from the NG-PCF node; and transmitting, using said Gx interface, information on deployment of the mobility policy, including UE level information, to the NG-RAN; receiving, from the NG-PCF node using the Gx interface, a request to modify said mobility policy, wherein said request comprises a radio frequency selection priority and/or a mobility policy data comprising quota limits and subscription information for said NG-UE; transmitting, to the NG-RAN, information on deployment of the modified mobility policy, including UE level information; receiving, from the NG-RAN, a report regarding the deployment of the mobility policy; and forwarding, using said Gx interface, the report to the NG-PCF.
A dual-band antenna, comprising a conductive plane , a smooth curved-surface assembly that is joined onto the conductive plane , and a feed pin that is connected to the smooth curved-surface assembly , wherein the conductive plane is configured to function as a first antenna, for receiving and sending a radio frequency signal of a first frequency band; and the smooth curved-surface assembly is configured to function as a second antenna, for receiving and sending a radio frequency signal of a second frequency band; wherein the smooth curved-surface assembly is a surface of revolution that uses a two-dimensional curve in a plane perpendicular to the conductive plane as a generatrix; characterized in that the generatrix of the surface of revolution is determined by an equation z = H (2 x / D ) n , wherein n is an order of the symmetrical surface of revolution and n > 1, H is a vertical distance from the conductive plane to a bottom of the surface of revolution at z=0, D is a diameter of an opening of the surface of revolution at z = H , 0 ≤ x ≤ D / 2 and 0≤ z ≤ H.
Bone implant comprising an anchoring part and an body section , wherein the anchoring part comprises a basically cylindrical or truncated conical first section with an external thread , which is designed to be implanted by means of a rotary motion into a bone, and a second section that is designed to be arranged in the region of the soft tissue, wherein the anchoring part is made of a first biocompatible plastic, in particular, polyetheretherketone, and comprises a recess which is designed to start from a cover surface of the second section and reach to the first section and which comprises an internal thread in a first threaded section , which is arranged exclusively in the region of the first section and wherein the body section comprises a second thread section , which is designed to be screwed into the first thread section directly in a non-positive-locking manner or only indirectly by means of an adhesive substance in a substance-to-substance manner, thereby being connected.
An apparatus comprising a chamber adapted to contain at least a part of a patient , said chamber comprising an inlet for a first flow of gas comprising carbon dioxide , and an outlet for a second flow of gas comprising carbon dioxide , detecting means suitable for being associated with said outlet of said chamber , said detecting means comprising a first and a second detector for a continuous detection at regular time intervals of a respective first and a second concentration of carbon dioxide of said first flow of gas and said second flow of gas , said first and second detector being operatively positioned, respectively, at the inlet and at the outlet of the chamber so that the total flow of the first and second flows of gas passes through the respective detector , at least one measuring device suitable for measuring a first flow rate of said first flow of gas and a second flow a rate of said second flow of gas , at least one programmable electronic unit configured to calculate a first total amount of carbon dioxide of the first flow of gas by multiplying the first concentration with the first flow rate and to calculate a second total amount of carbon dioxide of the second flow of gas by multiplying the second concentration with the second flow rate; said at least one programmable electronic unit is further configure to determine (F) continuously a third total amount (Q) of carbon dioxide per unit of time of a third flow of gas by subtracting the second total amount of carbon dioxide from the first total amount of carbon dioxide , wherein said third flow of gas is released by the patient into said chamber . detecting means suitable for being associated with said outlet of said chamber , said detecting means comprising a first and a second detector for a continuous detection at regular time intervals of a respective first and a second concentration of carbon dioxide of said first flow of gas and said second flow of gas , said first and second detector being operatively positioned, respectively, at the inlet and at the outlet of the chamber so that the total flow of the first and second flows of gas passes through the respective detector , at least one measuring device suitable for measuring a first flow rate of said first flow of gas and a second flow a rate of said second flow of gas , at least one programmable electronic unit configured to calculate a first total amount of carbon dioxide of the first flow of gas by multiplying the first concentration with the first flow rate and to calculate a second total amount of carbon dioxide of the second flow of gas by multiplying the second concentration with the second flow rate;
A computer-implemented method for obtaining a three-dimensional map of an eardrum comprising the steps of: - obtaining a two-dimensional representation of a reflection comprising a deformed illumination pattern of a structured illumination pattern projected onto the eardrum ; and - constructing by a trained deep learning model the three-dimensional map based on the reflection ; and wherein the deep learning model is trained by a training dataset comprising a plurality of height maps and corresponding two-dimensional representations of a reflection comprising a deformed illumination pattern. - obtaining a two-dimensional representation of a reflection comprising a deformed illumination pattern of a structured illumination pattern projected onto the eardrum ; and - constructing by a trained deep learning model the three-dimensional map based on the reflection ;
An electronic apparatus , comprising: a sensor ; a camera ; a memory ; and a processor configured to be connected to the sensor , the camera , and the memory , wherein the memory includes an artificial intelligence model trained to identify at least one object, and wherein the processor is further configured to: detect an object based on sensing data received from the sensor ; based on the detected object being identified as having a height less than a predetermined threshold value, warp an object region, including the detected object, in an image acquired through the camera based on distance information of the object region, wherein the distance information refers to a distance between a specific portion of the object and the electronic apparatus; and identify the detected object by inputting the warped object region into the artificial intelligence model , and wherein the processor is further configured to, based on a determination that the detected object has a height equal to or greater than the predetermined threshold value, identify the detected object by inputting the object region, that is not warped, into the artificial intelligence model . a sensor ; a camera ; a memory ; and a processor configured to be connected to the sensor , the camera , and the memory , wherein the memory includes an artificial intelligence model trained to identify at least one object, and wherein the processor is further configured to: detect an object based on sensing data received from the sensor ; based on the detected object being identified as having a height less than a predetermined threshold value, warp an object region, including the detected object, in an image acquired through the camera based on distance information of the object region, wherein the distance information refers to a distance between a specific portion of the object and the electronic apparatus; and identify the detected object by inputting the warped object region into the artificial intelligence model , and wherein the processor is further configured to, based on a determination that the detected object has a height equal to or greater than the predetermined threshold value, identify the detected object by inputting the object region, that is not warped, into the artificial intelligence model . detect an object based on sensing data received from the sensor ; based on the detected object being identified as having a height less than a predetermined threshold value, warp an object region, including the detected object, in an image acquired through the camera based on distance information of the object region, wherein the distance information refers to a distance between a specific portion of the object and the electronic apparatus; and identify the detected object by inputting the warped object region into the artificial intelligence model , and wherein the processor is further configured to, based on a determination that the detected object has a height equal to or greater than the predetermined threshold value, identify the detected object by inputting the object region, that is not warped, into the artificial intelligence model .