mhurhangee/patent-ind-claim-en huggingface dataset:
A method of assembling a non-pneumatic tire (100; 510; 610) and hub (200; 520; 620), the method comprising: providing a tire (100; 510; 610) including: an upper ring , a tread (120; 570) disposed above the upper ring , and a plurality of spokes (130; 560; 630) extending radially downward from the upper ring , each spoke (130; 560; 630) being configured to carry a load while in tension and while in compression, wherein each spoke (130; 560; 630) terminates at a lower end having a spoke mount (140; 430; 530; 640) with a slot oriented in a radial direction; providing a hub (200; 520; 620) having a plurality of hub mounts (210; 540; 670), each hub mount (210; 540; 670) corresponding to a spoke mount (140; 430; 530; 640), wherein each spoke (130; 560; 630) has a first length when the tread (120; 570) is not in contact with a ground surface and when each spoke mount (140; 430; 530; 640) is disengaged from its corresponding hub mount (210; 540; 670); and mounting the spoke mounts (140; 430; 530; 640) to the hub mounts (210; 540; 670) in series by inserting each hub mount (210; 540; 670) into a spoke mount slot oriented in a radial direction, such that the length of each spoke (130; 560; 630) is extended to a second length greater than the first length when the tread (120; 570) is not in contact with the ground surface. an upper ring , a tread (120; 570) disposed above the upper ring , and a plurality of spokes (130; 560; 630) extending radially downward from the upper ring , each spoke (130; 560; 630) being configured to carry a load while in tension and while in compression, wherein each spoke (130; 560; 630) terminates at a lower end having a spoke mount (140; 430; 530; 640) with a slot oriented in a radial direction; providing a hub (200; 520; 620) having a plurality of hub mounts (210; 540; 670), each hub mount (210; 540; 670) corresponding to a spoke mount (140; 430; 530; 640), wherein each spoke (130; 560; 630) has a first length when the tread (120; 570) is not in contact with a ground surface and when each spoke mount (140; 430; 530; 640) is disengaged from its corresponding hub mount (210; 540; 670); and mounting the spoke mounts (140; 430; 530; 640) to the hub mounts (210; 540; 670) in series by inserting each hub mount (210; 540; 670) into a spoke mount slot oriented in a radial direction, such that the length of each spoke (130; 560; 630) is extended to a second length greater than the first length when the tread (120; 570) is not in contact with the ground surface.
Vehicle component, in particular an armrest, which has a structural part and a trim element which surrounds the structural part at least partially, the structural part being covered at least partially by a protective apparatus , the protective apparatus is designed in such a way that it ensures that an edge contour between two adjacent side faces is flattened and thus reduces the risk of injury which stems from the otherwise sharp edge.
Clofoctol for use for the treatment of human neuroglioma.
A modified GIcNAc-1-phosphotransferase (GIcNAc-1-PT) α/β subunit comprising the full-length human GIcNAc-1-PT α/β subunit with two internal deletions from amino acid 86 to 322 and from amino acid 438 to 928 of the full-length human GIcNAc-1-PT α/β subunit which has the sequence of SEQ ID NO: 1, wherein the full-length human GIcNAc-1-PT α/β subunit has the sequence of SEQ ID NO: 1 or a sequence having at least 80% identity to SEQ ID NO: 1.
Displacement arrangement for displacing a sash/leaf of a window or a door transversely to the main plane of a fixed frame of the window or door , the displacement arrangement comprising the following: a) an actuating mechanism which can be arranged on the sash/leaf and can be moved in the fold circumferential direction at least in portions; b) a first control projection ; c) a control part ; d) a first control slot , the first control projection being received in the first control slot in portions and the first control slot being inclined with respect to the main plane of the sash/leaf at least in portions, so that a displacement of the first control projection by the actuating mechanism causes a displacement of the first control part ; e) a guide part which can be mounted immovably on the sash/leaf and has a first guide slot in which the first control projection is received in portions; the control part being movable relative to the guide part in order to cause the displacement of the sash/leaf relative to the fixed frame ; the first control projection being arranged or formed on the actuating mechanism and the first control slot being arranged or formed on the first control part ; characterized in that the first control projection has a first roller bearing for low-friction guidance of the first control projection in the first guide slot . a) an actuating mechanism which can be arranged on the sash/leaf and can be moved in the fold circumferential direction at least in portions; b) a first control projection ; c) a control part ; d) a first control slot , the first control projection being received in the first control slot in portions and the first control slot being inclined with respect to the main plane of the sash/leaf at least in portions, so that a displacement of the first control projection by the actuating mechanism causes a displacement of the first control part ; e) a guide part which can be mounted immovably on the sash/leaf and has a first guide slot in which the first control projection is received in portions;
A method for controlling a multirotor wind turbine , the multirotor wind turbine comprising two or more energy generating units , each energy generating unit comprising a rotor comprising one or more wind turbine blades , and at least one load carrying structure , the load carrying structure being connected to a foundation or to a tower via a yaw arrangement , and the load carrying structure carrying the at least two energy generating units , the method comprising the steps of: - detecting a requirement to a change in operation of at least a first of the energy generating units , - generating control commands for the first energy generating unit and for at least a second energy generating unit , the first energy generating unit and the second energy generating unit being mounted to the same load carrying structure , the control commands causing the required change in operation, and - controlling the energy generating units in accordance with the generated control commands, wherein the control commands are generated under the constraint that a yaw moment of the yaw arrangement is maintained below a predefined threshold level, characterized in that the control commands causing time coordinated operation of at least the first energy generating unit and the second energy generating unit , - wherein the step of generating control commands comprises generating identical control commands for the first energy generating unit and for the second energy generating unit or - the step of generating control commands comprises generating a first control command for the first energy generating unit and a second control command for the second energy generating unit , the second control command differing from the first control command. - detecting a requirement to a change in operation of at least a first of the energy generating units , - generating control commands for the first energy generating unit and for at least a second energy generating unit , the first energy generating unit and the second energy generating unit being mounted to the same load carrying structure , the control commands causing the required change in operation, and - controlling the energy generating units in accordance with the generated control commands, - wherein the step of generating control commands comprises generating identical control commands for the first energy generating unit and for the second energy generating unit or - the step of generating control commands comprises generating a first control command for the first energy generating unit and a second control command for the second energy generating unit , the second control command differing from the first control command.
An applicator for applying a cosmetic composition to the eyelashes or eyebrows, comprising: - a twisted core , - at least one element attached to the core, each element comprising a central part fitted onto the core and at least one application member carried by the central part, this application member having a proximal half attached to the central part and a distal half extending outward from the proximal half, characterised in that a composition collection surface is formed by a relief on the distal half that defines a concavity (305; 89; 109; 408) that is open radially toward the outside, wherein the application member has two diverging arms that define said concavity (305; 408) between one another, the element comprising a plurality of application members that each have an X-shaped head that is attached to the central part by a leg , or wherein the element comprises: o at least one toothed application member, the teeth being formed by a succession of pointed arches that are concave toward the outside, said concavity being formed by one of the arches, or o at least one application member having two lateral arms joined together at their end by an arch having a concave shape defining said concavity . - a twisted core , - at least one element attached to the core, each element comprising a central part fitted onto the core and at least one application member carried by the central part, this application member having a proximal half attached to the central part and a distal half extending outward from the proximal half, characterised in that a composition collection surface is formed by a relief on the distal half that defines a concavity (305; 89; 109; 408) that is open radially toward the outside, o at least one toothed application member, the teeth being formed by a succession of pointed arches that are concave toward the outside, said concavity being formed by one of the arches, or o at least one application member having two lateral arms joined together at their end by an arch having a concave shape defining said concavity .
A robotic catheter procedure system , comprising: a bedside system , the bedside system comprising: a percutaneous device; a drive mechanism configured to engage and to impart an axial force to the percutaneous device and to advance and retract the percutaneous device; and an actuator providing torque to the drive mechanism to impart the axial force to the percutaneous device, wherein the torque provided by the actuator is variable; and a remote workstation , the remote workstation comprising: a user interface configured to receive a first user input; and a control system operatively coupled to the user interface, the control system configured to communicate a control signal to the actuator, the control signal based upon the first user input and a second input, wherein the second input comprises information related to the direction of movement of the percutaneous device; wherein the actuator provides torque to the drive mechanism in response to the control signal, and characterized in that the maximum torque provided by the actuator in response to the control signal is greater when the percutaneous device is being retracted than when the percutaneous device is being advanced. a bedside system , the bedside system comprising: a percutaneous device; a drive mechanism configured to engage and to impart an axial force to the percutaneous device and to advance and retract the percutaneous device; and an actuator providing torque to the drive mechanism to impart the axial force to the percutaneous device, wherein the torque provided by the actuator is variable; and a percutaneous device; a drive mechanism configured to engage and to impart an axial force to the percutaneous device and to advance and retract the percutaneous device; and an actuator providing torque to the drive mechanism to impart the axial force to the percutaneous device, wherein the torque provided by the actuator is variable; and a remote workstation , the remote workstation comprising: a user interface configured to receive a first user input; and a control system operatively coupled to the user interface, the control system configured to communicate a control signal to the actuator, the control signal based upon the first user input and a second input, wherein the second input comprises information related to the direction of movement of the percutaneous device; a user interface configured to receive a first user input; and a control system operatively coupled to the user interface, the control system configured to communicate a control signal to the actuator, the control signal based upon the first user input and a second input, wherein the second input comprises information related to the direction of movement of the percutaneous device; wherein the actuator provides torque to the drive mechanism in response to the control signal, and characterized in that the maximum torque provided by the actuator in response to the control signal is greater when the percutaneous device is being retracted than when the percutaneous device is being advanced.
A method comprising: receiving a signal indicating a data block group size from a predefined set of data block group sizes for determining a number of data block groups of data, wherein the data block group size is a number of data blocks in each data block group of the data, and each data block is independently decodable; receiving the data; determining the data block group size and a number of data block groups of the received data; generating feedback information for each data block group of the received data for indicating a decoding status of the respective data block group, wherein the feedback information for the respective data block group comprises a single bit generated by performing a logic AND operation among decoding statuses corresponding to each data block of the respective data block group; and transmitting the feedback information for each data block group of the received data. receiving a signal indicating a data block group size from a predefined set of data block group sizes for determining a number of data block groups of data, wherein the data block group size is a number of data blocks in each data block group of the data, and each data block is independently decodable; receiving the data; determining the data block group size and a number of data block groups of the received data; generating feedback information for each data block group of the received data for indicating a decoding status of the respective data block group, wherein the feedback information for the respective data block group comprises a single bit generated by performing a logic AND operation among decoding statuses corresponding to each data block of the respective data block group; and transmitting the feedback information for each data block group of the received data.
A cartridge for an e-vaping device , the cartridge comprising: a structural element at least partially defining a reservoir , the reservoir configured to hold a pre-vapor formulation; a vapor generator configured to draw the pre-vapor formulation from the reservoir and to heat the drawn pre-vapor formulation to form a generated vapor; a housing extending along a longitudinal axis of the cartridge , the housing at least partially enclosing the reservoir and the vapor generator , the housing having a tip end and an outlet end , the housing configured to channel light from the tip end of the housing to the outlet end of the housing via internal reflection through an interior of the housing ; and an outlet-end insert coupled to the outlet end of the housing , the outlet-end insert including at least one outlet in flow communication with the vapor generator , the outlet-end insert configured to direct the generated vapor out of the cartridge through the at least one outlet, the outlet-end insert further configured to emit the channeled light. a structural element at least partially defining a reservoir , the reservoir configured to hold a pre-vapor formulation; a vapor generator configured to draw the pre-vapor formulation from the reservoir and to heat the drawn pre-vapor formulation to form a generated vapor; a housing extending along a longitudinal axis of the cartridge , the housing at least partially enclosing the reservoir and the vapor generator , the housing having a tip end and an outlet end , the housing configured to channel light from the tip end of the housing to the outlet end of the housing via internal reflection through an interior of the housing ; and an outlet-end insert coupled to the outlet end of the housing , the outlet-end insert including at least one outlet in flow communication with the vapor generator , the outlet-end insert configured to direct the generated vapor out of the cartridge through the at least one outlet, the outlet-end insert further configured to emit the channeled light.
A silencer device for a firearm, in particular for a rifle or another long or short firearm, comprising: a flap mechanism comprising at least one closing flap mounted transversely to the axis on the barrel of the firearm in order to temporarily seal the barrel after the passing of ammunition and to prevent the passage of the combustion gases and the sound wave towards the mouth of the barrel when a shot is fired, an actuation unit including a mobile portion arranged axially on the barrel of the firearm so as to move a control mechanism , the axially mobile portion having an inner bore suitable for allowing the passage of ammunition, the control mechanism including at least one amplitude lever arm pivotably mounted on a pivot attached to the barrel, each amplitude lever arm being coupled to a separate closing flap , the mobile actuation unit engaging with the control mechanism to allow a transverse movement of said at least one closing flap between an open position, in which the flap mechanism allows ammunition to pass towards the mouth of the barrel , and a closed position, which prevents the passage of the combustion gases and the sound wave after the passing of ammunition, and an exhaust unit (11, 21-27) including at least one exhaust pipe arranged on the barrel upstream from the closing flap mechanism in order to redirect the combustion gases and the sound wave and allow them to be discharged from the barrel. a flap mechanism comprising at least one closing flap mounted transversely to the axis on the barrel of the firearm in order to temporarily seal the barrel after the passing of ammunition and to prevent the passage of the combustion gases and the sound wave towards the mouth of the barrel when a shot is fired, an actuation unit including a mobile portion arranged axially on the barrel of the firearm so as to move a control mechanism , the axially mobile portion having an inner bore suitable for allowing the passage of ammunition, the control mechanism including at least one amplitude lever arm pivotably mounted on a pivot attached to the barrel, each amplitude lever arm being coupled to a separate closing flap , the mobile actuation unit engaging with the control mechanism to allow a transverse movement of said at least one closing flap between an open position, in which the flap mechanism allows ammunition to pass towards the mouth of the barrel , and a closed position, which prevents the passage of the combustion gases and the sound wave after the passing of ammunition, and an exhaust unit (11, 21-27) including at least one exhaust pipe arranged on the barrel upstream from the closing flap mechanism in order to redirect the combustion gases and the sound wave and allow them to be discharged from the barrel.
A lubricating system for adding a lubricating fluid to an articulating joint of a patient, the lubricating system comprising: a. an added lubricating fluid imitating the synovial fluid of a joint, b. a unit comprising: a retractable needle for delivering the lubricating fluid to the articulating j oint, and an operating system for operating said retractable needle , c. at least one of: - an injection port, adapted to receive lubricating fluid, and - a reservoir adapted to contain lubricating fluid, and d. a conduit in fluid connection with the unit and with at least one of the injection port and the reservoir, for supplying the unit with the lubricating fluid. a. an added lubricating fluid imitating the synovial fluid of a joint, b. a unit comprising: a retractable needle for delivering the lubricating fluid to the articulating j oint, and an operating system for operating said retractable needle , a retractable needle for delivering the lubricating fluid to the articulating j oint, and an operating system for operating said retractable needle , c. at least one of: - an injection port, adapted to receive lubricating fluid, and - a reservoir adapted to contain lubricating fluid, and - an injection port, adapted to receive lubricating fluid, and - a reservoir adapted to contain lubricating fluid, and d. a conduit in fluid connection with the unit and with at least one of the injection port and the reservoir, for supplying the unit with the lubricating fluid.
A method for producing a titanium product, comprising: obtaining TiO2-slag; alkaline roasting the TiO2-slag to remove impurities from the slag and produce intermediate products including alkaline leached TiO2-slag and at least one of water-washed derivatives of sodium titanate, metatitaniic acid, and pure titanium dioxide; reducing the intermediate products using a metallic reducing agent at a temperature and a pressure under a hydrogen atmosphere to produce a reaction product comprising a physical mixture of TiH 2 or Ti metal and various impurities, wherein the temperature is between 400 °C and 900 °C or between 700 °C and 1200 °C and the pressure is between 0.1 bar and 5 bar or between 5 bar and 100 bar; and deep-deoxidizing the reaction product to reduce residual oxygen in the reaction product and removing the metal impurities from the reaction product to form a purified titanium product. obtaining TiO2-slag; alkaline roasting the TiO2-slag to remove impurities from the slag and produce intermediate products including alkaline leached TiO2-slag and at least one of water-washed derivatives of sodium titanate, metatitaniic acid, and pure titanium dioxide; reducing the intermediate products using a metallic reducing agent at a temperature and a pressure under a hydrogen atmosphere to produce a reaction product comprising a physical mixture of TiH 2 or Ti metal and various impurities, wherein the temperature is between 400 °C and 900 °C or between 700 °C and 1200 °C and the pressure is between 0.1 bar and 5 bar or between 5 bar and 100 bar; and deep-deoxidizing the reaction product to reduce residual oxygen in the reaction product and removing the metal impurities from the reaction product to form a purified titanium product.