mhurhangee/ep-ind-claims huggingface dataset:
A protection method for a multi-domain network, wherein the multi-domain network comprises a first domain and a second domain, wherein the first domain and the second domain interconnected by a first node and a second node, the method comprises: detecting, by the second node, a failure on a first link (B-C) between the first node and the second node; disconnecting, by the second node, a first protection path, wherein the first protection path is a protection path of a working path and is formed by splicing the first sub-path and a second sub-path, the working path is a path between the first node and a third node within the first domain, the first sub-path is a path between the second node and the third node, and the second sub-path is a path that passes through the first link (B-C) and is between the first node and the second node; connecting, by the second node, the first sub-path and a path that is within the second domain to reconstruct a new protection path; and sending, by the second node, a first failure monitoring message that carries first maintenance information to the third node, wherein the first maintenance information is the same as a second maintenance information, and the second maintenance information is carried in a second failure monitoring message that is used to monitor a failure of the first protection path being sent from the first node to the third node. detecting, by the second node, a failure on a first link (B-C) between the first node and the second node; disconnecting, by the second node, a first protection path, wherein the first protection path is a protection path of a working path and is formed by splicing the first sub-path and a second sub-path, the working path is a path between the first node and a third node within the first domain, the first sub-path is a path between the second node and the third node, and the second sub-path is a path that passes through the first link (B-C) and is between the first node and the second node; connecting, by the second node, the first sub-path and a path that is within the second domain to reconstruct a new protection path; and sending, by the second node, a first failure monitoring message that carries first maintenance information to the third node, wherein the first maintenance information is the same as a second maintenance information, and the second maintenance information is carried in a second failure monitoring message that is used to monitor a failure of the first protection path being sent from the first node to the third node.
An antibody for use in the treatment of an IgE-mediated disorder, wherein said antibody comprises a variable region and a Fc region, wherein said variable region binds membrane anchored IgE and said Fc region is a variant of a parent human IgG Fc region comprising an amino acid substitution selected from the group consisting of S267E, S267E/L328F, G236D/S267E, S239D/S267E, and S239D/I332E, wherein the numbering is according to the EU index of Kabat.
A method for providing multicast local breakout for subscriber device, CPE, in a 5G wireless wireline convergence, performed by an access gateway function of a fifth-generation network, AGF, the method comprising the steps of: enabling multicast local breakout for a first subscriber device, CPE-1, and a second subscriber device, CPE-2; receiving, from the first subscriber device, CPE-1, a first request to receive multicast data from a data network; receiving, from the second subscriber device, CPE-2, a second request to receive the multicast data from the data network; determining whether a connection with a user plane function, UPF, is available receiving the multicast data directly from the data network based on determining that the connection with the user plane function, UPF, is unavailable and based on enabling the multicast local breakout; generating a copy of the multicast data based on determining that the connection with the user plane function, UPF, is unavailable; and providing the multicast data to the first subscriber device, CPE-1, and the copy of the multicast data to the second subscriber device, CPE-2 enabling multicast local breakout for a first subscriber device, CPE-1, and a second subscriber device, CPE-2; receiving, from the first subscriber device, CPE-1, a first request to receive multicast data from a data network; receiving, from the second subscriber device, CPE-2, a second request to receive the multicast data from the data network; determining whether a connection with a user plane function, UPF, is available receiving the multicast data directly from the data network based on determining that the connection with the user plane function, UPF, is unavailable and based on enabling the multicast local breakout; generating a copy of the multicast data based on determining that the connection with the user plane function, UPF, is unavailable; and providing the multicast data to the first subscriber device, CPE-1, and the copy of the multicast data to the second subscriber device, CPE-2
A process for preparing crystalline methyl N-[2-[[[1-(4-chlorophenyl)-1H-pyrazol-3-yl]oxy]methyl]phenyl]-N-methoxycarbamate, comprising a) reacting a compound of formula II with an alkylating agent in the presence of a base in the presence of a polar solvent selected from alcohols or ketons followed by b) the addition of water. a) reacting a compound of formula II with an alkylating agent in the presence of a base in the presence of a polar solvent selected from alcohols or ketons followed by b) the addition of water.
A manufacturing method of a sub-muffler comprising: a tubular body shaping step of bending a plate material and thereby forming a tubular body having a trapezoidal shape in cross section; a preliminary shaping step of preliminarily forming an end part (221, 222; 724, 725) of the tubular body and thereby shaping a cross-sectional shape of the end part (221, 222; 724, 725) of the tubular body into a circular shape after the tubular body shaping step; and a diameter reduction shaping step of reducing a diameter of the end part (221, 222; 724, 725) of the tubular body after the preliminary shaping step, characterized in that, in the preliminary shaping step, a spinning machining is performed in which the rotating roller is moved along from a trapezoidal trajectory to a circular trajectory while gradually changing the trajectory. a tubular body shaping step of bending a plate material and thereby forming a tubular body having a trapezoidal shape in cross section; a preliminary shaping step of preliminarily forming an end part (221, 222; 724, 725) of the tubular body and thereby shaping a cross-sectional shape of the end part (221, 222; 724, 725) of the tubular body into a circular shape after the tubular body shaping step; and a diameter reduction shaping step of reducing a diameter of the end part (221, 222; 724, 725) of the tubular body after the preliminary shaping step, characterized in that, in the preliminary shaping step, a spinning machining is performed in which the rotating roller is moved along from a trapezoidal trajectory to a circular trajectory while gradually changing the trajectory.
A power supply arrangement for a bicycle electronic gear changing system, comprising: a front derailleur including a base member mounted to the bicycle; a first power supply removably mounted on the base member of the front derailleur; a rear derailleur including a base member of the rear derailleur mounted to the bicycle; and characterized by further comprising a second power supply removably mounted on the base member of the rear derailleur. a front derailleur including a base member mounted to the bicycle; a first power supply removably mounted on the base member of the front derailleur; a rear derailleur including a base member of the rear derailleur mounted to the bicycle; and characterized by further comprising a second power supply removably mounted on the base member of the rear derailleur.
A method for tuning a transistor package comprising a semiconductor transistor and an input matching network comprising first and second capacitive shunt elements connected to at least one gate pad of the semiconductor transistor, or for designing said transistor package using numerical simulation, the method comprising: altering a value of a first capacitor in the first capacitive shunt element, without the second capacitive shunt element present in the transistor package, until an S 11 scattering-parameter curve at the first capacitive shunt when looking toward the semiconductor transistor has a resonance peak at a frequency that is within ± 20% of twice a target operating frequency for the semiconductor transistor; adding the second capacitive shunt element to the transistor package; and altering a value of a second capacitor in the second capacitive shunt until an input impedance at an input of the second capacitive shunt element, when looking toward the semiconductor transistor, is within ± 20% of a target impedance value. altering a value of a first capacitor in the first capacitive shunt element, without the second capacitive shunt element present in the transistor package, until an S 11 scattering-parameter curve at the first capacitive shunt when looking toward the semiconductor transistor has a resonance peak at a frequency that is within ± 20% of twice a target operating frequency for the semiconductor transistor; adding the second capacitive shunt element to the transistor package; and altering a value of a second capacitor in the second capacitive shunt until an input impedance at an input of the second capacitive shunt element, when looking toward the semiconductor transistor, is within ± 20% of a target impedance value.
A method of forming a heterogeneous protective layer on a surface of a component of a reactor with the heterogeneous protective layer comprising silicon, said method comprising the steps of: providing a polymeric composition for forming the heterogeneous protective layer; providing the component with the surface of the component comprising carbon; applying the polymeric composition on the surface of the component to form a pre-cured coating layer; and heating the pre-cured coating layer to form the heterogeneous protective layer; wherein the surface of the component is present within the reactor during heating of the pre-cured coating layer. providing a polymeric composition for forming the heterogeneous protective layer; providing the component with the surface of the component comprising carbon; applying the polymeric composition on the surface of the component to form a pre-cured coating layer; and heating the pre-cured coating layer to form the heterogeneous protective layer; wherein the surface of the component is present within the reactor during heating of the pre-cured coating layer.
A method of establishing an offshore foundation structure, on the seabed in particular an offshore foundation structure for a wind turbine installation, in which at least one pile is driven into the seabed in order to establish an anchor for the foundation structure, wherein - the foundation structure comprises at least one tubular hollow foundation member with a longitudinal axis and an open longitudinal end which is placed on the seabed such that the open longitudinal end shows towards the seabed, - the pile is located in the tubular hollow foundation member when it is placed on the seabed, - the pile is driven out of the tubular hollow foundation member along the longitudinal axis and rammed into the seabed to establish the anchor for the foundation structure after placing the hollow foundation member on the seabed. - the pile is driven out of the tubular hollow foundation member and rammed into the seabed by means of a drive means or hammer means which is located inside the tubular hollow foundation member, characterised in that the pile is driven out of the tubular hollow foundation member and rammed into the seabed by means of the drive means or hammer means which is at least partly integrated into the pile. - the foundation structure comprises at least one tubular hollow foundation member with a longitudinal axis and an open longitudinal end which is placed on the seabed such that the open longitudinal end shows towards the seabed, - the pile is located in the tubular hollow foundation member when it is placed on the seabed, - the pile is driven out of the tubular hollow foundation member along the longitudinal axis and rammed into the seabed to establish the anchor for the foundation structure after placing the hollow foundation member on the seabed. - the pile is driven out of the tubular hollow foundation member and rammed into the seabed by means of a drive means or hammer means which is located inside the tubular hollow foundation member,
Support base to temporally clamp an iron in a vertical position on it, comprising: - a resting seating able to receive a resting base of said iron, said resting base being located in the rear part of said iron and having at least two anchoring seatings; - a stabilizer device provided with a clamping/unclamping mechanism which can be driven by a user by means of a selector element and configured to position at least two clamping members between at least an inactive position and a clamping position, in which each of said clamping members cooperates through mechanical interference with a respective anchoring seating, characterized in that said clamping/unclamping mechanism comprises a conditioning element engaging with said clamping members and connected to said selector element by means of a lever member configured to rotate around an its own fulcrum, in relation to the action of said selector element, wherein said lever member is configured, during use, to move said conditioning element in a linear direction, in order to position and keep said clamping members in said clamping position or in said inactive position, wherein the conditioning element is provided with a toothed portion suitable to engage a corresponding toothed portion of said clamping members in order to move them between their clamping position or inactive position, and in that said selector element has a first part accessible to a user and a second part, associated with said first part, not accessible to the user, wherein said second part is rotationally associated to said lever member. - a resting seating able to receive a resting base of said iron, said resting base being located in the rear part of said iron and having at least two anchoring seatings; - a stabilizer device provided with a clamping/unclamping mechanism which can be driven by a user by means of a selector element and configured to position at least two clamping members between at least an inactive position and a clamping position, in which each of said clamping members cooperates through mechanical interference with a respective anchoring seating, characterized in that said clamping/unclamping mechanism comprises a conditioning element engaging with said clamping members and connected to said selector element by means of a lever member configured to rotate around an its own fulcrum, in relation to the action of said selector element, wherein said lever member is configured, during use, to move said conditioning element in a linear direction, in order to position and keep said clamping members in said clamping position or in said inactive position, wherein the conditioning element is provided with a toothed portion suitable to engage a corresponding toothed portion of said clamping members in order to move them between their clamping position or inactive position, and in that said selector element has a first part accessible to a user and a second part, associated with said first part, not accessible to the user, wherein said second part is rotationally associated to said lever member.
A speed reducer for an industrial robot, comprising: an outer tube having a plurality of internal teeth surrounding an axis of rotation; a carrier rotatably provided inside the outer tube, the carrier being fixedly attached to an output shaft; an input shaft provided on a driving source; a plurality of crankshafts rotatably supported by the carrier and connected to the input shaft, the crankshafts each having an eccentric portion eccentric to an axis of rotation of the output shaft; an oscillating gear (14, 16) configured to oscillatorily rotate together with the eccentric portions of the crankshafts; a plurality of transmission gears (20, 20A, 20B, 20C) configured to rotate when acted upon by the oscillatory rotation of the oscillating gear (14, 16), the transmission gears (20, 20A, 20B, 20C) being respectively coaxial with the crankshafts; and an input gear provided on the input shaft, the input gear engaging with the transmission gears (20, 20A, 20B, 20C) to synchronously rotate the transmission gears (20, 20A, 20B, 20C), characterized in that the input gear and the transmission gears (20, 20A, 20B, 20C) are configured such that a coefficient of length of addendum is no less than 1.2 and no more than 1.3, and a coefficient of length of dedendum is greater than 1.25 and no more than 1.55. an outer tube having a plurality of internal teeth surrounding an axis of rotation; a carrier rotatably provided inside the outer tube, the carrier being fixedly attached to an output shaft; an input shaft provided on a driving source; a plurality of crankshafts rotatably supported by the carrier and connected to the input shaft, the crankshafts each having an eccentric portion eccentric to an axis of rotation of the output shaft; an oscillating gear (14, 16) configured to oscillatorily rotate together with the eccentric portions of the crankshafts; a plurality of transmission gears (20, 20A, 20B, 20C) configured to rotate when acted upon by the oscillatory rotation of the oscillating gear (14, 16), the transmission gears (20, 20A, 20B, 20C) being respectively coaxial with the crankshafts; and an input gear provided on the input shaft, the input gear engaging with the transmission gears (20, 20A, 20B, 20C) to synchronously rotate the transmission gears (20, 20A, 20B, 20C), characterized in that the input gear and the transmission gears (20, 20A, 20B, 20C) are configured such that a coefficient of length of addendum is no less than 1.2 and no more than 1.3, and a coefficient of length of dedendum is greater than 1.25 and no more than 1.55.
Method for quality classification of animal skins, comprising the following method steps: - recording the surface area (A B) of the animal skin by means of a camera and analysing the faulty areas and good areas, - transferring the data to a data storage device, characterised in that - nesting, in the context of an arrangement, is carried out on as many geometries as possible on the good area of the animal skin, - wherein the nesting is carried out as standard nesting, with which each nested geometry is formed by a standard geometry having the same surface area and shape, wherein the standard geometry represents an abstract shape differing from the real geometry, - wherein the animal skin is classified into a quality level using the standard nesting result, and - real nesting takes place later, wherein the real geometry is geometry differing from the standard geometry, which is used in real nesting as part cutting required in production, and wherein, in the real nesting, one or more identical or different real geometries are arranged in the shape of a surface area on the fault-free good area of the animal skin, without overlapping. - recording the surface area (A B) of the animal skin by means of a camera and analysing the faulty areas and good areas, - transferring the data to a data storage device, characterised in that - nesting, in the context of an arrangement, is carried out on as many geometries as possible on the good area of the animal skin, - wherein the nesting is carried out as standard nesting, with which each nested geometry is formed by a standard geometry having the same surface area and shape, wherein the standard geometry represents an abstract shape differing from the real geometry, - wherein the animal skin is classified into a quality level using the standard nesting result, and - real nesting takes place later, wherein the real geometry is geometry differing from the standard geometry, which is used in real nesting as part cutting required in production, and wherein, in the real nesting, one or more identical or different real geometries are arranged in the shape of a surface area on the fault-free good area of the animal skin, without overlapping.
Façade panel arrangement comprising a first façade panel (2, 3) and a second façade panel (3, 2), which are arranged on top of each other, and a pinning system for pinning the façade panels (2, 3) to each other, wherein the pinning system comprises a pin and a guide (6, 6'), wherein the pin has a longitudinal central axis, wherein the pin is guided in the guide (6, 6') for displacement in the direction of its longitudinal central axis, wherein the guide (6, 6') is located at the second façade panel (3, 2), wherein the pin extends into the guide (6, 6'), wherein the pin and the guide (6, 6') are located completely outside the façade panels (2, 3) and the guide (6, 6') is fixed to the second façade panel (3, 2) by way of a second anchoring device (8, 7) characterised in that the pin is fixed to the first façade panel (2, 3) by way of a first anchoring device (7, 8), and in that - the guide (6, 6') is formed in a guide sleeve, the guide sleeve being adjustable relative to the second anchoring device (8, 7) at least during the assembly process, or - the pin is held at the first anchoring device (7, 8) by means of grouting compound, the pin being capable of positioning relative to the first anchoring device (7, 8) during the assembly process. - the guide (6, 6') is formed in a guide sleeve, the guide sleeve being adjustable relative to the second anchoring device (8, 7) at least during the assembly process, or - the pin is held at the first anchoring device (7, 8) by means of grouting compound, the pin being capable of positioning relative to the first anchoring device (7, 8) during the assembly process.
A method for non-periodic feedback in a carrier aggregation scenario, characterized by comprising: a base station sending a non-periodic trigger signaling to a piece of User Equipment, UE; the UE receiving the non-periodic trigger signaling, and determining a Downlink Component Carrier, DL CC, requiring feedback according to the non-periodic trigger signaling; and the UE triggering a non-periodic feedback of the determined DL CC; wherein the UE stores a correspondence between a DL CC and an Uplink Component Carrier, UL CC; the step of determining the DL CC requiring feedback according to the non-periodic trigger signaling comprises: the UE determining a first UL CC according to scheduling information bearing the non-periodic trigger signaling, searching for a DL CC to which the first UL CC corresponds according to the stored correspondence between the DL CC and the UL CC, and determining the found DL CC to be the DL CC requiring feedback. a base station sending a non-periodic trigger signaling to a piece of User Equipment, UE; the UE receiving the non-periodic trigger signaling, and determining a Downlink Component Carrier, DL CC, requiring feedback according to the non-periodic trigger signaling; and the UE triggering a non-periodic feedback of the determined DL CC; wherein the UE stores a correspondence between a DL CC and an Uplink Component Carrier, UL CC; the step of determining the DL CC requiring feedback according to the non-periodic trigger signaling comprises: the UE determining a first UL CC according to scheduling information bearing the non-periodic trigger signaling, searching for a DL CC to which the first UL CC corresponds according to the stored correspondence between the DL CC and the UL CC, and determining the found DL CC to be the DL CC requiring feedback.