mhurhangee/patent-ind-claim-en huggingface dataset:
A method for restarting a network service comprising: (a) listening , by an original process of the network service, on a first port; (b) in response to a request to restart the network service, configuring and initiating a transition process , wherein the configuring includes causing the transition process to listen on a second port different from the first port of the original process; (c) running a connection tracking module and, meanwhile adding an iptables rule to redirect a connection directed to the first port to the second port, wherein subsequent connections that would otherwise be connected to the first port are redirected to the second port of the transition process; (d) waiting until existing connections on the original process are processed completely, then exiting the original process; (e) initiating a new process on the first port according to a new configuring file; (f) reconfiguring the iptables rule to cancel port redirection, wherein subsequent new connections that would otherwise be connected to the first port are no longer redirected but are still connected to the new process listening on the first port; and (g) waiting until existing connections on the transition process are processed completely, and exiting the transition process. (a) listening , by an original process of the network service, on a first port; (b) in response to a request to restart the network service, configuring and initiating a transition process , wherein the configuring includes causing the transition process to listen on a second port different from the first port of the original process; (c) running a connection tracking module and, meanwhile adding an iptables rule to redirect a connection directed to the first port to the second port, wherein subsequent connections that would otherwise be connected to the first port are redirected to the second port of the transition process; (d) waiting until existing connections on the original process are processed completely, then exiting the original process; (e) initiating a new process on the first port according to a new configuring file; (f) reconfiguring the iptables rule to cancel port redirection, wherein subsequent new connections that would otherwise be connected to the first port are no longer redirected but are still connected to the new process listening on the first port; and (g) waiting until existing connections on the transition process are processed completely, and exiting the transition process.
A method for distributing a service configuration file, which is applicable to a first server, the method comprising: receiving , by the first server, a DHCP request message from a logical device, the logical device being created on a physical device; determining , by the first server, address information corresponding to a service configuration file for the logical device; and sending , by the first server, a DHCP response message carrying the address information to the logical device, wherein the address information in the DHCP response message is configured for causing the logical device to obtain the service configuration file, wherein the DHCP request message carries a device identifier of the logical device, and determining address information corresponding to a service configuration file for the logical device comprises: parsing, by the first server, the DHCP request message to obtain the device identifier of the logical device, searching, by the first server, an association table to obtain a URL of the service configuration file corresponding to the device identifier, and determining, by the first server, the URL as the address information corresponding to the service configuration file for the logical device, wherein the association table is to record correspondence between a device identifier of a logical device and a URL of a service configuration file , and is maintained by the first server. receiving , by the first server, a DHCP request message from a logical device, the logical device being created on a physical device; determining , by the first server, address information corresponding to a service configuration file for the logical device; and sending , by the first server, a DHCP response message carrying the address information to the logical device, wherein the address information in the DHCP response message is configured for causing the logical device to obtain the service configuration file, wherein the DHCP request message carries a device identifier of the logical device, and determining address information corresponding to a service configuration file for the logical device comprises: parsing, by the first server, the DHCP request message to obtain the device identifier of the logical device, searching, by the first server, an association table to obtain a URL of the service configuration file corresponding to the device identifier, and determining, by the first server, the URL as the address information corresponding to the service configuration file for the logical device, wherein the association table is to record correspondence between a device identifier of a logical device and a URL of a service configuration file , and is maintained by the first server.
Injector for injecting fuel, comprising: an injector outer housing for accommodating at least one injector component, wherein the injector outer housing comprises a first injector housing portion and a second injector housing portion , an electromagnet for controlling a valve for opening and closing the injector , and an armature element for selectively closing a valve opening , wherein the armature element is movable by the electromagnet , wherein the electromagnet comprises a coil winding and a magnetic body which has an inner magnetic pole provided inside the coil winding , and an outer magnetic pole provided outside the coil winding , wherein the first injector housing portion is formed integrally with the inner magnetic pole and comprises a line channel for supplying fuel, wherein the armature element is moved, in a powered state of the electromagnet , to a position in which the armature element forms a magnetic circuit together with an inner magnetic pole and an outer magnetic pole of the magnetic body , and the inner magnetic pole is separated from the outer magnetic pole by a coil winding, characterised in that the armature element contacts both the inner magnetic pole and the outer magnetic pole in the powered state of the electromagnet . an injector outer housing for accommodating at least one injector component, wherein the injector outer housing comprises a first injector housing portion and a second injector housing portion , an electromagnet for controlling a valve for opening and closing the injector , and an armature element for selectively closing a valve opening , wherein the armature element is movable by the electromagnet , wherein the electromagnet comprises a coil winding and a magnetic body which has an inner magnetic pole provided inside the coil winding , and an outer magnetic pole provided outside the coil winding , wherein the first injector housing portion is formed integrally with the inner magnetic pole and comprises a line channel for supplying fuel, wherein the armature element is moved, in a powered state of the electromagnet , to a position in which the armature element forms a magnetic circuit together with an inner magnetic pole and an outer magnetic pole of the magnetic body , and the inner magnetic pole is separated from the outer magnetic pole by a coil winding, characterised in that the armature element contacts both the inner magnetic pole and the outer magnetic pole in the powered state of the electromagnet .
A system for printing a 3D part on a platform comprising: a first robot for holding and moving said platform ; and at least one second robot having attached thereto a 3D printing head positioned and movable by said at least one second robot to print said 3D part on said platform when said first robot moves said platform relative to said 3D printing head , and a computing device connected to said first robot and said at least one second robot for controlling moving of said first robot and said at least one second robot printing of said 3D part on said platform , said computing device being configured to: - plan movement of said platform by said first robot and of said 3D printing head by at least one second robot ; characterised to - select said platform and how said robot will hold said platform ; - cause said first robot to pick up said platform when said 3D part is to be printed. a first robot for holding and moving said platform ; and at least one second robot having attached thereto a 3D printing head positioned and movable by said at least one second robot to print said 3D part on said platform when said first robot moves said platform relative to said 3D printing head , and a computing device connected to said first robot and said at least one second robot for controlling moving of said first robot and said at least one second robot printing of said 3D part on said platform , said computing device being configured to: - plan movement of said platform by said first robot and of said 3D printing head by at least one second robot ; characterised to - select said platform and how said robot will hold said platform ; - cause said first robot to pick up said platform when said 3D part is to be printed. - plan movement of said platform by said first robot and of said 3D printing head by at least one second robot ; characterised to - select said platform and how said robot will hold said platform ; - cause said first robot to pick up said platform when said 3D part is to be printed.
A sensor patch for attachment to a base plate for an ostomy appliance, the sensor patch having a distal side and an adhesive proximal side, the distal side being adapted for attachment to an adhesive surface of the base plate, wherein the adhesive surface of the base plate is adapted for attachment of the base plate to the skin surface of a user, the sensor patch comprises a first edge portion and a second edge portion , the second edge portion being positioned opposite the first edge portion , characterized in that the sensor patch comprises a first release liner covering the distal side of the sensor patch and a second release liner covering the proximal adhesive side of the sensor patch, wherein the first release liner extends over and around the first edge portion to cover a part of the proximal side of the sensor patch defining an overlapping section , where the first release liner partially overlaps the second release liner .
A microemulsion concentrate composition comprising (i) an aqueous carrier phase comprising at least one water-soluble pesticide in solution in the carrier phase, (ii) a surfactant phase comprising (a) a surfactant component comprising at least one surfactant and (b) at least one water-insoluble agrochemical, and (iii) a water-immiscible organic solvent, wherein at least 50% by weight of the water-insoluble agrochemical is present as a solute in the surfactant component, the water-soluble pesticide concentration is at least 400 grams active equivalent per liter of the concentrate composition, the weight ratio of the water-immiscible organic solvent to the water-insoluble agrochemical on an active equivalent basis is less than 3:1, the water-soluble pesticide comprises glyphosate, dicamba, 2,4-D, MCPA, quizalofop, glufosinate, diclofop, or a combination thereof; and the water-insoluble agrochemical comprises azoxystrobin, beflubutamide, benalaxyl, benalaxyl-M, bromuconazole, clodinafop-propargyl, coumaphos, dinitriamine, dodemorph acetate, fentrazamide, flamprop-M-isopropyl, flamprop-M-methyl, flurochloridone, flutolanil, indanofan, ipconazole, kresoxim-methyl, metconazole, picoxystrobin, pyraclostrobin, tebuconazole, thenylchlor, or thiazopyr; and the at least one surfactant comprises an amphiphilic surfactant.
A method, comprising: causing a robotic manipulator having an end effector to pick up an object with the end effector; after causing the robotic manipulator to pick up the object with the end effector, receiving sensor data from a force-torque sensor mounted on the robotic manipulator; causing the robotic manipulator to pivot the object around an edge of the object in contact with an adjacent surface ; while causing the robotic manipulator to pivot the object, using the sensor data received from the force-torque sensor to cause the robotic manipulator to follow a first trajectory that maintains contact between the edge of the object and the adjacent surface; based on the first trajectory followed by the robotic manipulator while pivoting the object, determining at least one dimension of the object from the edge of the object; based on the determined at least one dimension, determining a second trajectory for moving the object to a destination; and causing the robotic manipulator to move the object through the second trajectory to the destination. causing a robotic manipulator having an end effector to pick up an object with the end effector; after causing the robotic manipulator to pick up the object with the end effector, receiving sensor data from a force-torque sensor mounted on the robotic manipulator; causing the robotic manipulator to pivot the object around an edge of the object in contact with an adjacent surface ; while causing the robotic manipulator to pivot the object, using the sensor data received from the force-torque sensor to cause the robotic manipulator to follow a first trajectory that maintains contact between the edge of the object and the adjacent surface; based on the first trajectory followed by the robotic manipulator while pivoting the object, determining at least one dimension of the object from the edge of the object; based on the determined at least one dimension, determining a second trajectory for moving the object to a destination; and causing the robotic manipulator to move the object through the second trajectory to the destination.
A weighing apparatus comprising: a plurality of weigh modules having each a conveyor belt (104; 108, 110, 112, 114) and a physical scale (128; 130, 132, 134, 136; A, B, C, D) associated with the respective conveyor belt (104; 108, 110, 112, 114) and a master processor electronically connected to each of said physical scales (128; 130, 132, 134, 136; A, B, C, D), said master processor being configured to form at least one logical scale (A-B, B-C, C-D, A-B-C, B-C-D, A-B-C-D) by combining two or more physical scales (128; 130, 132, 134, 136; A, B, C, D). characterized in that a plurality of slave processors (140; 144, 146, 148, 150) is electronically connected to said plurality of physical scales and said master processor , the master processor is configured to determine the net weight of a package to be weighed based on the weight results sent by the slave processors and the weighing apparatus is configured to repeat the weighing process by processing the package to another appropriate physical or logical scale large enough to accommodate the package. a plurality of weigh modules having each a conveyor belt (104; 108, 110, 112, 114) and a physical scale (128; 130, 132, 134, 136; A, B, C, D) associated with the respective conveyor belt (104; 108, 110, 112, 114) and a master processor electronically connected to each of said physical scales (128; 130, 132, 134, 136; A, B, C, D), said master processor being configured to form at least one logical scale (A-B, B-C, C-D, A-B-C, B-C-D, A-B-C-D) by combining two or more physical scales (128; 130, 132, 134, 136; A, B, C, D). characterized in that a plurality of slave processors (140; 144, 146, 148, 150) is electronically connected to said plurality of physical scales and said master processor , the master processor is configured to determine the net weight of a package to be weighed based on the weight results sent by the slave processors and the weighing apparatus is configured to repeat the weighing process by processing the package to another appropriate physical or logical scale large enough to accommodate the package.
Method for producing a synthesis gas containing carbon monoxide and hydrogen, natural gas being provided with a first carbon dioxide partial pressure (CO 2 pressure) and being processed, inter alia, by increasing the pressure (P) to form a natural gas feed for a thermochemical conversion (K) in which a raw synthesis gas is produced with a second CO 2 pressure which is above the first CO 2 pressure, from which raw synthesis gas at least carbon dioxide is subsequently separated in order to obtain the synthesis gas and carbon dioxide, of which at least some is recycled and used in the thermochemical conversion of the natural gas feed , characterized in that, in order to separate carbon dioxide, the raw synthesis gas is guided on the retentate side via a membrane (M) which is permeable to carbon dioxide and is rinsed on the permeate side by the natural gas provided.
A computer implemented method for determining authenticity of a document comprising the steps of: storing images of authentic documents in an image database as subsets of images defined based on the similarity of text content between the images; receiving, by an electronic device, an image of a document; assigning a label to the received image; obtaining a low dimensionality vector for each image in one of the subsets, wherein each image in the one subset is encoded into the respective low dimensionality vector using a trained machine learning model and is assigned the same label as the received image; encoding the received image into a low dimensionality vector; calculating a distance between the low dimensionality vector of the received image and the obtained low dimensionality vector of each image in the subset, each distance representing the similarity in appearance between the received image and the respective image in the subset, wherein the smaller the distance the greater the similarity between the images; comparing each of the calculated distances against a threshold distance; calculating a number of the calculated distances that are less than or equal to the threshold distance; in response to determining the calculated number is at least equal to a required number, determining the document in the received image is authentic; and in response to determining the calculated number is less than the required number, determining the received image requires manual review. storing images of authentic documents in an image database as subsets of images defined based on the similarity of text content between the images; receiving, by an electronic device, an image of a document; assigning a label to the received image; obtaining a low dimensionality vector for each image in one of the subsets, wherein each image in the one subset is encoded into the respective low dimensionality vector using a trained machine learning model and is assigned the same label as the received image; encoding the received image into a low dimensionality vector; calculating a distance between the low dimensionality vector of the received image and the obtained low dimensionality vector of each image in the subset, each distance representing the similarity in appearance between the received image and the respective image in the subset, wherein the smaller the distance the greater the similarity between the images; comparing each of the calculated distances against a threshold distance; calculating a number of the calculated distances that are less than or equal to the threshold distance; in response to determining the calculated number is at least equal to a required number, determining the document in the received image is authentic; and in response to determining the calculated number is less than the required number, determining the received image requires manual review.
An anti-cMet antibody drug conjugate ("ADC"), wherein the drug conjugate is monomethyl auristatin E ("MMAE"), and the ADC has the following structure: wherein Ab is an anti-cMet antibody comprising a VH chain comprising three CDRs, namely VH CDR #1 (SEQ ID NO:112), VH CDR #2 (SEQ ID NO:113) and VH CDR #3 (SEQ ID NO: 114); a VL chain comprising three CDRs, namely VL CDR #1 (SEQ ID NO: 115), VL CDR #2 (SEQ ID NO: 116) and VL CDR #3 (SEQ ID NO: 117); and wherein n has a value ranging from 2 to 4.
Motor housing having a lower housing section and an upper housing section of an electric motor comprising a stator , wherein at least one opening is arranged in the lower housing section and electronics 20 can be arranged in the housing, characterised in that the opening is a multifunctional opening which, in order to cool the electronics , comprises an air-guiding device by means of which an air flow can be guided towards the electronics, and it comprises a recess on the side facing the upper housing section in order to mechanically connect the stator to the lower housing section .
User equipment , the user equipment to: receive data representing identity information broadcast by a rendering apparatus over a passive non-contact short proximity data transport mechanism when the user equipment is proximate the rendering apparatus ; store the data representing identity information for the rendering apparatus in a memory ; push the gathered identity information to a workstation ; characterised by : the user equipment further to: receive data representing respective identity information for multiple other rendering apparatus from the rendering apparatus ; and store the data representing respective identity information for the multiple other rendering apparatus in the memory , wherein pushing the gathered identity information to the workstation enables the workstation to connect with the rendering apparatus or one of the multiple other rendering apparatus . receive data representing identity information broadcast by a rendering apparatus over a passive non-contact short proximity data transport mechanism when the user equipment is proximate the rendering apparatus ; store the data representing identity information for the rendering apparatus in a memory ; push the gathered identity information to a workstation ; characterised by : the user equipment further to: receive data representing respective identity information for multiple other rendering apparatus from the rendering apparatus ; and store the data representing respective identity information for the multiple other rendering apparatus in the memory , wherein pushing the gathered identity information to the workstation enables the workstation to connect with the rendering apparatus or one of the multiple other rendering apparatus . the user equipment further to: receive data representing respective identity information for multiple other rendering apparatus from the rendering apparatus ; and store the data representing respective identity information for the multiple other rendering apparatus in the memory , receive data representing respective identity information for multiple other rendering apparatus from the rendering apparatus ; and store the data representing respective identity information for the multiple other rendering apparatus in the memory , wherein pushing the gathered identity information to the workstation enables the workstation to connect with the rendering apparatus or one of the multiple other rendering apparatus .