mhurhangee/patent-ind-claim-en huggingface dataset:
Control ring arrangement for use in an apparatus for filling containers with liquid filling contents, with a rotor which is drivable circumferentially about a vertical machine axis (MA), with a plurality of filling elements arranged in a distributed manner along the circumference of the rotor for filling the containers with the liquid contents, and with a stationary control ring arrangement which concentrically encloses the vertical machine axis (MA) and the rotor , wherein the control ring arrangement comprises a plurality of columnar supporting and carrying units (5.1-5.6) arranged in a distributed manner about the rotor circumference of the apparatus for filling containers with a liquid filling product, and a circumferential open control ring borne by the said units, with two free control ring ends (6.1, 6.2) which are opposite each other, characterised in that the control ring is configured to guide a liquid medium.
A cooling liquid composition for a liquid cooling system for cooling a heat generating element arranged on a printed circuit board (PCB), wherein the cooling liquid composition comprises: an aqueous solution comprising a copolymer having a copolymer concentration in a range of 0.05% to 20% by mass, wherein the copolymer comprises 2-Propenoic acid, 2-methyl-, polymer with ethenylbenzene.
Liquid delivery device comprising: i. a channel suitable to contain the liquid to be delivered, said channel having a inner section lower than 9 mm 2 and a inner volume V channel lower than 5.10 -5 m 3 , preferably lower than 10 -5 m 3 , said channel having an inlet , an outlet and a valve ; ii. a gas mass flowmeter connected to the inlet of said channel ; and iii. a pressure control unit configured: • to control pressure inside said channel by flowing gas through said gas mass flowmeter ; • to determine continuously volume of liquid delivered by estimating the volume of liquid delivered to be equal to the volume of gas flowing through the gas mass flowmeter , wherein the volume of gas flowing through the gas mass flowmeter is calculated from a measured mass flow of gas flowing through the gas mass flowmeter by using an equation of state of gas; and • to deliver liquid with a closed-loop control according to a predetermined flowrate delivery profile over time. i. a channel suitable to contain the liquid to be delivered, said channel having a inner section lower than 9 mm 2 and a inner volume V channel lower than 5.10 -5 m 3 , preferably lower than 10 -5 m 3 , said channel having an inlet , an outlet and a valve ; ii. a gas mass flowmeter connected to the inlet of said channel ; and iii. a pressure control unit configured: • to control pressure inside said channel by flowing gas through said gas mass flowmeter ; • to determine continuously volume of liquid delivered by estimating the volume of liquid delivered to be equal to the volume of gas flowing through the gas mass flowmeter , wherein the volume of gas flowing through the gas mass flowmeter is calculated from a measured mass flow of gas flowing through the gas mass flowmeter by using an equation of state of gas; and • to deliver liquid with a closed-loop control according to a predetermined flowrate delivery profile over time. • to control pressure inside said channel by flowing gas through said gas mass flowmeter ; • to determine continuously volume of liquid delivered by estimating the volume of liquid delivered to be equal to the volume of gas flowing through the gas mass flowmeter , wherein the volume of gas flowing through the gas mass flowmeter is calculated from a measured mass flow of gas flowing through the gas mass flowmeter by using an equation of state of gas; and • to deliver liquid with a closed-loop control according to a predetermined flowrate delivery profile over time.
An internal combustion engine body comprising: a cylinder block including a first water jacket and a second water jacket that are provided around a plurality of cylinders ; and a cylinder head including an in-head water jacket , wherein the in-head water jacket includes an intake-side flow passage that communicates with the first water jacket and the second water jacket and that is provided around an intake port , at least part of the first water jacket is provided on intake sides of the plurality of the cylinders , at least part of the second water jacket is provided on exhaust sides of the plurality of the cylinders , the first water jacket has an inflow port into which coolant flows from an outside of the internal combustion engine body , the cylinder block and the cylinder head are provided such that a flow rate of the coolant that directly flows into the intake-side flow passage after flowing into the first water jacket is higher than a flow rate of the coolant directly flows into any region other than the intake-side flow passage after flowing into the first water jacket , and each of the intake sides is a side where the intake port is provided with respect to a plane containing axes of the plurality of the cylinders in a direction perpendicular to the plane, and each of the exhaust sides is a side where an exhaust port is provided with respect to the plane, characterised in that the first water jacket and the second water jacket are provided in such a manner as not to directly communicate with each other. a cylinder block including a first water jacket and a second water jacket that are provided around a plurality of cylinders ; and a cylinder head including an in-head water jacket , wherein the in-head water jacket includes an intake-side flow passage that communicates with the first water jacket and the second water jacket and that is provided around an intake port , at least part of the first water jacket is provided on intake sides of the plurality of the cylinders , at least part of the second water jacket is provided on exhaust sides of the plurality of the cylinders , the first water jacket has an inflow port into which coolant flows from an outside of the internal combustion engine body , the cylinder block and the cylinder head are provided such that a flow rate of the coolant that directly flows into the intake-side flow passage after flowing into the first water jacket is higher than a flow rate of the coolant directly flows into any region other than the intake-side flow passage after flowing into the first water jacket , and each of the intake sides is a side where the intake port is provided with respect to a plane containing axes of the plurality of the cylinders in a direction perpendicular to the plane, and each of the exhaust sides is a side where an exhaust port is provided with respect to the plane, characterised in that the first water jacket and the second water jacket are provided in such a manner as not to directly communicate with each other.
A device for synchronizing tasks executed in parallel on a platform comprising multiple computation units, the tasks being apt to be preempted by the operating system of the platform, the device comprising at least one register and a recording module which are installed in the form of circuits on said platform, said recording module being suitable for storing a relationship between a condition to be satisfied on the value recorded by one of said registers and one or more computation tasks, the device being characterized in that it comprises a dynamic allocation module installed in the form of circuits on the platform and configured to choose a computation unit from among the computation units of the platform when said condition is fulfilled, and for launching the execution on the chosen computation unit of a software function for searching for the tasks on standby awaiting the fulfillment of the condition and for notifying said tasks, and in that the dynamic allocation module is configured to activate, when a task is preempted, a preemption indicator for the one or more conditions , the fulfillment of which is expected from said task, and when a task resumes its execution on a computation unit, to deactivate the preemption indicator if there no longer exists any preempted task associated with the condition .
A method for crowd-sourcing of location information by a fleet of vehicles , collectively generating and updating maps representing the location, comprising the following steps: obtaining , from passages of at least two respective road vehicles at the location, vehicle registered data on the surrounding environment from environment sensors and positioning data from consumer-grade satellite positioning arrangements and from at least one of an inertial measurement unit and a wheel speed sensor; smoothing the positioning data to establish continuous trajectories for the respective vehicles ; creating individual surrounding environment maps using the data on the surrounding environment and, as ground truth, the smoothed positioning data from each respective vehicle passage at the location; identifying , from the individual surrounding environment maps, submaps sharing area segments; cross-correlating pairs of submaps sharing area segments; using the information from the pairwise cross-correlation of submaps for optimizing each submaps offset relative a full map of the surrounding environment; merging the submaps into the full map of the surrounding environment. obtaining , from passages of at least two respective road vehicles at the location, vehicle registered data on the surrounding environment from environment sensors and positioning data from consumer-grade satellite positioning arrangements and from at least one of an inertial measurement unit and a wheel speed sensor; smoothing the positioning data to establish continuous trajectories for the respective vehicles ; creating individual surrounding environment maps using the data on the surrounding environment and, as ground truth, the smoothed positioning data from each respective vehicle passage at the location; identifying , from the individual surrounding environment maps, submaps sharing area segments; cross-correlating pairs of submaps sharing area segments; using the information from the pairwise cross-correlation of submaps for optimizing each submaps offset relative a full map of the surrounding environment; merging the submaps into the full map of the surrounding environment.
A method for connecting to external devices by using a near-field communication module in an electronic device , the method comprising: obtaining external device information for connecting to the external devices using a type of near-field communication, wherein the near-field communication type comprises at least one of Bluetooth, Wi-Fi, and Near-Field Communication, NFC, classifying the external devices into a plurality of groups (A, B, C) according to a predetermined criterion, generating threads for connecting to the external devices included in a group of the predetermined groups (A, B, C) by using the obtained external device information, wherein generating the threads comprises: individually generating control nodes respectively in charge of the groups (A, B, C), wherein the control nodes respectively control the connection and communication with the groups (A, B,C), finding external devices included in a group (A, B, C) in charge by performing a scanning operation by the control nodes , and generating threads for the external devices found by the control nodes ; connecting to the external devices using a type of near-field communication by simultaneously performing the threads, and controlling the connected external devices . obtaining external device information for connecting to the external devices using a type of near-field communication, wherein the near-field communication type comprises at least one of Bluetooth, Wi-Fi, and Near-Field Communication, NFC, classifying the external devices into a plurality of groups (A, B, C) according to a predetermined criterion, generating threads for connecting to the external devices included in a group of the predetermined groups (A, B, C) by using the obtained external device information, wherein generating the threads comprises: individually generating control nodes respectively in charge of the groups (A, B, C), wherein the control nodes respectively control the connection and communication with the groups (A, B,C), finding external devices included in a group (A, B, C) in charge by performing a scanning operation by the control nodes , and generating threads for the external devices found by the control nodes ; individually generating control nodes respectively in charge of the groups (A, B, C), wherein the control nodes respectively control the connection and communication with the groups (A, B,C), finding external devices included in a group (A, B, C) in charge by performing a scanning operation by the control nodes , and generating threads for the external devices found by the control nodes ; connecting to the external devices using a type of near-field communication by simultaneously performing the threads, and controlling the connected external devices .
A loudspeaker comprising an acoustic waveguide comprising one or more flexible parts , the acoustic waveguide being configured to change the shape of the flexible part in order to change the directivity of sound emitted by the loudspeaker, and an adjustment device being configured to change the shape of the flexible part , characterized in that the adjustment device is configured to change the shape of the flexible part by applying a magnetic field to the flexible parts. an acoustic waveguide comprising one or more flexible parts , the acoustic waveguide being configured to change the shape of the flexible part in order to change the directivity of sound emitted by the loudspeaker, and an adjustment device being configured to change the shape of the flexible part , characterized in that the adjustment device is configured to change the shape of the flexible part by applying a magnetic field to the flexible parts.
A tubing assembly for fluid delivery to a gas turbine bearing system , comprising: a fitting having an inner surface defining an inner flow path and having an outer surface defining a first mating surface ; and a first tube coupled to the fitting , the fitting disposed within a bearing housing of the bearing system , wherein the bearing housing includes a second mating surface , wherein the second mating surface includes a complementary shape or angle to the first mating surface of the fitting , characterised in that the second mating surface is in sealing contact with the first mating surface of the fitting , wherein the outer surface of the fitting further comprises a first threading configured to couple to a second threading of the bearing housing , wherein the first threading and the second threading urge the first mating surface of the fitting against the second mating surface of the bearing housing in response to rotation about a longitudinal axis (A-A') thereof. a fitting having an inner surface defining an inner flow path and having an outer surface defining a first mating surface ; and a first tube coupled to the fitting , the fitting disposed within a bearing housing of the bearing system , wherein the bearing housing includes a second mating surface , wherein the second mating surface includes a complementary shape or angle to the first mating surface of the fitting , characterised in that the second mating surface is in sealing contact with the first mating surface of the fitting , wherein the outer surface of the fitting further comprises a first threading configured to couple to a second threading of the bearing housing , wherein the first threading and the second threading urge the first mating surface of the fitting against the second mating surface of the bearing housing in response to rotation about a longitudinal axis (A-A') thereof.
A self-propelled vehicle supporting and operating a device, wherein the device is a baler, the vehicle having a longitudinal axis and comprising: a chassis ; a front wheel connected to the chassis; a rear wheel connected to the chassis; and a device mount for releasably attaching the device , the device mount comprising: a mounting arm having a first mounting surface for connecting to the device and a second mounting surface for supporting the device, the mounting arm being pivotally mounted to the chassis to move the device along the longitudinal axis between: a working position wherein the device is mounted to the mounting arm at the first and second mounting surfaces; an extended position wherein the device is coupled to the mounting arm at only the first mounting surface, the extended position being disposed behind the working position relative to the longitudinal axis (A); and an intermediate position between the working position and the extended position wherein the device is mounted to the mounting arm at the first and second mounting surfaces. a chassis ; a front wheel connected to the chassis; a rear wheel connected to the chassis; and a device mount for releasably attaching the device , the device mount comprising: a mounting arm having a first mounting surface for connecting to the device and a second mounting surface for supporting the device, the mounting arm being pivotally mounted to the chassis to move the device along the longitudinal axis between: a working position wherein the device is mounted to the mounting arm at the first and second mounting surfaces; an extended position wherein the device is coupled to the mounting arm at only the first mounting surface, the extended position being disposed behind the working position relative to the longitudinal axis (A); and an intermediate position between the working position and the extended position wherein the device is mounted to the mounting arm at the first and second mounting surfaces.
Method for manufacturing a film , notably monocrystalline, on a flexible sheet , wherein the method comprises the following steps: - providing a donor substrate , - forming an embrittlement zone in the donor substrate so as to delimit the film , - forming the flexible sheet on the surface of the film , - detaching the donor substrate along the embrittlement zone , so as to transfer said film onto the flexible sheet , characterized in that the flexible sheet is formed on the surface of the film by deposition. - providing a donor substrate , - forming an embrittlement zone in the donor substrate so as to delimit the film , - forming the flexible sheet on the surface of the film , - detaching the donor substrate along the embrittlement zone , so as to transfer said film onto the flexible sheet ,
A writing ink composition comprising: (a) at least one film-forming elastomeric polymer wherein the film-forming elastomeric polymer (a) is an homopolymer or copolymer of polyurethane, (b) at least one polyether-modified polysiloxane, (c) at least one dye, (d) at least one pigment, and (e) water wherein the total content of the at least one dye (c) ranges from 0.1 to 10 % by weight, relative to the total weight of the writing ink composition and the total amount of the pigment (d) ranges from 0.1 to 10% by weight, relative to the total weight of the writing ink composition. (a) at least one film-forming elastomeric polymer wherein the film-forming elastomeric polymer (a) is an homopolymer or copolymer of polyurethane, (b) at least one polyether-modified polysiloxane, (c) at least one dye, (d) at least one pigment, and (e) water
A radio communication system comprising: a master radio base station configured to perform radio communications with user device and control radio communications between the user device and a secondary radio base station ; and a network device configured to establish a PDU session that includes a first tunnel to the master radio base station and a second tunnel to the secondary radio base station , wherein the master radio base station includes a controller that receives a setup request of the PDU session and, based on the setup request, transmits a setup instruction to establish the PDU session using the first tunnel and the second tunnel, the network device includes a tunnel setup section that sets same identifiers to a first tunnel endpoint identifier on a network device side of the first tunnel and a second tunnel endpoint identifier on a network device side of the second tunnel based on the setup instruction. a master radio base station configured to perform radio communications with user device and control radio communications between the user device and a secondary radio base station ; and a network device configured to establish a PDU session that includes a first tunnel to the master radio base station and a second tunnel to the secondary radio base station , wherein the master radio base station includes a controller that receives a setup request of the PDU session and, based on the setup request, transmits a setup instruction to establish the PDU session using the first tunnel and the second tunnel, the network device includes a tunnel setup section that sets same identifiers to a first tunnel endpoint identifier on a network device side of the first tunnel and a second tunnel endpoint identifier on a network device side of the second tunnel based on the setup instruction.
A TK-deficient vaccinia virus comprising an inactivated N1L gene, wherein the N1L gene is inactivated by the insertion of a nucleic acid sequence encoding a heterologous polypeptide, and wherein the nucleic acid sequence comprises at least three vaccinia virus promoters, said vaccinia virus promoters are positioned in the same orientation which is opposite to that of the intact vaccinia virus ORF L024.
A self expanding flow diversion device with enhanced kink resistance and radial strength employed in an arterial lumen, the said device comprising; a set of cells, each bounded by four thicker wires and each of said cells consisting of finer wires (groups 103, 104, 105, 106, 107, 108, 115, 116) braided together, a tubular device formed by repeating these cells in the axial as well as circumferential directions; characterized in that , the thicker set of wires disposed within one cell, one portion of each thick wire being configured above and the other portion below the finer set of wires making X-shaped crossing of a pair of thick wires disposed fully on the inner side or the outer side of the fine braid when the next crossing of the thicker wire is on the opposite side of the fine braid forming a checker-board pattern, wherein, the said self expanding flow diversion device having the checker-board pattern enhances the kink resistance and radial strength of the braid with minimal loss in flexibility. a set of cells, each bounded by four thicker wires and each of said cells consisting of finer wires (groups 103, 104, 105, 106, 107, 108, 115, 116) braided together, a tubular device formed by repeating these cells in the axial as well as circumferential directions; characterized in that , the thicker set of wires disposed within one cell, one portion of each thick wire being configured above and the other portion below the finer set of wires making X-shaped crossing of a pair of thick wires disposed fully on the inner side or the outer side of the fine braid when the next crossing of the thicker wire is on the opposite side of the fine braid forming a checker-board pattern, wherein, the said self expanding flow diversion device having the checker-board pattern enhances the kink resistance and radial strength of the braid with minimal loss in flexibility.