mhurhangee/ep-ind-claims huggingface dataset:
An interdental cleaning device (100, 300, 400) comprising: a housing (110, 310, 410) forming an internal reservoir (130, 330, 430) containing an oral care fluid (131, 331, 431); and an applicator (120, 320, 420) extending from the housing (110, 310, 410), the applicator (120, 320, 420) comprising a stem (121, 321, 421) and a plurality of cleaning elements (122, 322, 422) extending from the stem (121, 321, 421); wherein the stem (121, 321, 421) comprises a capillary material that extends into the reservoir (130, 330, 430) to be in fluid communication with the oral care fluid (131, 331, 431) so that the capillary material of the stem (121, 321, 421) delivers the oral care fluid (131, 331, 431) from the reservoir (130, 330, 430) to the plurality of cleaning elements (122, 322, 422) via capillary action; characterized in that the stem (121, 321, 421) of the applicator (120, 320, 420) extends along a longitudinal axis, and the plurality of cleaning elements (122, 322, 422) extend transversely from the stem (121, 321, 421). a housing (110, 310, 410) forming an internal reservoir (130, 330, 430) containing an oral care fluid (131, 331, 431); and an applicator (120, 320, 420) extending from the housing (110, 310, 410), the applicator (120, 320, 420) comprising a stem (121, 321, 421) and a plurality of cleaning elements (122, 322, 422) extending from the stem (121, 321, 421); wherein the stem (121, 321, 421) comprises a capillary material that extends into the reservoir (130, 330, 430) to be in fluid communication with the oral care fluid (131, 331, 431) so that the capillary material of the stem (121, 321, 421) delivers the oral care fluid (131, 331, 431) from the reservoir (130, 330, 430) to the plurality of cleaning elements (122, 322, 422) via capillary action; characterized in that the stem (121, 321, 421) of the applicator (120, 320, 420) extends along a longitudinal axis, and the plurality of cleaning elements (122, 322, 422) extend transversely from the stem (121, 321, 421).
Composition for the oxidation dyeing of keratin fibres, comprising A) at least 25% by weight of the total weight of the composition of one or more fats, at least one of the fats being selected from the fatty amides and the esters of fatty acid which are solid at a temperature of 25°C and at atmospheric pressure (760 mmHg) and at least one of the fats being selected from the fats which are liquid at a temperature of 25°C and at atmospheric pressure (760mmHg), B) one or more dye precursors, C) one or more oxidizing agents and optionally D) one or more alkaline agents.
A transmission mechanism comprising: a first gear coaxially fixed to a rotational shaft having a hollow shape, a second gear and a third gear, the second gear and the third gear being rotatably and coaxially disposed on an outer periphery of the rotational shaft such that the second gear and the third gear are opposed to each other; a gear select clutch disposed between the second gear and the third gear, and configured to select one of a state in which the second gear and the first gear are coupled and the third gear and the first gear are decoupled, and a state in which the third gear and the first gear are coupled and the second gear and the first gear are decoupled; and a clutch operation unit configured to couple an operation shaft disposed in a hollow part of the rotational shaft to the gear select clutch to operate the gear select clutch by advancing and retreating the operation shaft in an axial direction, wherein recess portions (35, 37) are provided in mutually opposed surfaces of the second gear and the third gear, respectively, characterized in that a depth in the axial direction of the recess portion of the third gear being larger than a depth in the axial direction of the recess portion of the second gear, wherein the gear select clutch is disposed in a manner to enter an inside of each of the recess portions of the second gear and the third gear such that a center in the axial direction of the gear select clutch is positioned in the inside of the recess portion of the third gear when the first gear is decoupled from the second gear and the third gear. a first gear coaxially fixed to a rotational shaft having a hollow shape, a second gear and a third gear, the second gear and the third gear being rotatably and coaxially disposed on an outer periphery of the rotational shaft such that the second gear and the third gear are opposed to each other; a gear select clutch disposed between the second gear and the third gear, and configured to select one of a state in which the second gear and the first gear are coupled and the third gear and the first gear are decoupled, and a state in which the third gear and the first gear are coupled and the second gear and the first gear are decoupled; and a clutch operation unit configured to couple an operation shaft disposed in a hollow part of the rotational shaft to the gear select clutch to operate the gear select clutch by advancing and retreating the operation shaft in an axial direction, wherein recess portions (35, 37) are provided in mutually opposed surfaces of the second gear and the third gear, respectively, characterized in that a depth in the axial direction of the recess portion of the third gear being larger than a depth in the axial direction of the recess portion of the second gear, wherein the gear select clutch is disposed in a manner to enter an inside of each of the recess portions of the second gear and the third gear such that a center in the axial direction of the gear select clutch is positioned in the inside of the recess portion of the third gear when the first gear is decoupled from the second gear and the third gear.
A method comprising: automatically registering, by a virtualized network device of a plurality of virtualized network devices of a Wide Area Network, WAN, with a cloud-based WAN assurance system using a registration code received by the virtualized network device from a conductor that created the virtualized network device, wherein the conductor is external to the cloud-based WAN assurance system; and sending, by the virtualized network device and subsequent to the registering, telemetry data to the cloud-based WAN assurance system. automatically registering, by a virtualized network device of a plurality of virtualized network devices of a Wide Area Network, WAN, with a cloud-based WAN assurance system using a registration code received by the virtualized network device from a conductor that created the virtualized network device, wherein the conductor is external to the cloud-based WAN assurance system; and sending, by the virtualized network device and subsequent to the registering, telemetry data to the cloud-based WAN assurance system.
A method of forming a battery electrode, comprising; forming a number of polymer coated sulfur particles; converting the polymer coating to a silicon dioxide coating using a silicon reactant to form a number of silicon dioxide coated sulfur particles; mixing the silicon dioxide coated sulfur particles with conductor material to form a silicon dioxide coated particle-conductor composite; and shaping an amount of the silicon dioxide coated sulfur particle-conductor composite into an electrode.
An integrated switch, characterized in comprising: a housing; a first circuit board, arranged in the housing; a movable stand, movably connected in the housing; a contact component, arranged in the housing and electrically connected with the first circuit board, comprising a static contact and a moving contact connected with the movable stand, wherein, the moving contact has a power-off state when separated from the static contact and a power-on state when in contact with the static contact driven by the movable stand; a second circuit board, arranged in the housing and connected with an inner wall thereof, and electrically connected with the first circuit board; and an electric brush, arranged between the movable stand and the second circuit board, having one end connected with the movable stand and the other end slidably connected with the second circuit board, wherein, the electric brush has a connection state when connected with the first circuit board after sliding to a first position of the second circuit board, and a disconnection state when cut off from the first circuit board after sliding to a second position of the second circuit board, and the movable stand is configured to drive the moving contact to shift from a power-on state to a power-off state after driving the electric brush to slide to the disconnection state. a housing; a first circuit board, arranged in the housing; a movable stand, movably connected in the housing; a contact component, arranged in the housing and electrically connected with the first circuit board, comprising a static contact and a moving contact connected with the movable stand, wherein, the moving contact has a power-off state when separated from the static contact and a power-on state when in contact with the static contact driven by the movable stand; a second circuit board, arranged in the housing and connected with an inner wall thereof, and electrically connected with the first circuit board; and an electric brush, arranged between the movable stand and the second circuit board, having one end connected with the movable stand and the other end slidably connected with the second circuit board, wherein, the electric brush has a connection state when connected with the first circuit board after sliding to a first position of the second circuit board, and a disconnection state when cut off from the first circuit board after sliding to a second position of the second circuit board, and the movable stand is configured to drive the moving contact to shift from a power-on state to a power-off state after driving the electric brush to slide to the disconnection state.
A method of sealing a device which is subject to degradation caused by permeation of environmental gases or liquids comprising: providing a first substrate and a second substrate thereon; placing the device between the first and second substrates (210, 215); sealing the first and second substrates (210, 215) together with an adhesive, the adhesive having an exposed portion; wherein an edge of the second substrate has an angle of less than 90°, and covering the exposed portion of the adhesive and the edge part of the second substrate, for better coverage of the adhesive during deposition, with a barrier stack comprising more than one decoupling layer and more than one barrier layer, wherein the barrier layer is made of an inorganic material based on a metal, and wherein the decoupling layer is made of at least one decoupling material selected from the group consisting of organic polymers, inorganic polymers, organometallic polymers, hybrid organic/inorganic polymer systems, and combinations thereof. providing a first substrate and a second substrate thereon; placing the device between the first and second substrates (210, 215); sealing the first and second substrates (210, 215) together with an adhesive, the adhesive having an exposed portion; wherein an edge of the second substrate has an angle of less than 90°, and covering the exposed portion of the adhesive and the edge part of the second substrate, for better coverage of the adhesive during deposition, with a barrier stack comprising more than one decoupling layer and more than one barrier layer,
A method of manufacturing an automatic dishwashing detergent product, said product being provided as a discrete dosage unit and comprising a continuous, non-aqueous gel phase, comprising manufacturing said gel phase by a method comprising free radical polymerisation of monomer(s) in a non-aqueous reaction mixture to form a polymeric builder without an intermediate step of drying the reaction mixture to form a solid comprising the polymeric builder; wherein the polymeric builder is in a dissolved state in the non-aqueous gel phase, wherein said reaction mixture comprises: - 10 wt.% to 50 wt.% of at least one non-ionic surfactant, - 10 wt.% to 60 wt.% of at least one non-water solvent; and - one or more monomers comprising acrylic acid wherein no more than 0.1 wt. % of the total amount of the monomer(s) are crosslinking monomer(s). wherein the polymeric builder is in a dissolved state in the non-aqueous gel phase, wherein said reaction mixture comprises: - 10 wt.% to 50 wt.% of at least one non-ionic surfactant, - 10 wt.% to 60 wt.% of at least one non-water solvent; and - one or more monomers comprising acrylic acid - 10 wt.% to 50 wt.% of at least one non-ionic surfactant, - 10 wt.% to 60 wt.% of at least one non-water solvent; and - one or more monomers comprising acrylic acid wherein no more than 0.1 wt. % of the total amount of the monomer(s) are crosslinking monomer(s).
A method for treating positive electrode material of a battery, comprising: activation treating the positive electrode material, wherein at least part of a surface of the positive electrode material is coated with a carbon layer, and the activation treating is performed under cold plasma to carry out active particle doping on the carbon layer, wherein an active particle doped amount is not less than 50ppm; wherein a power for the activation treatment is 100 W~500 W; a voltage for the activation treatment is 50 V~150 V, and a current for the activation treatment is 0.4 A~2 A; the active particle doped is one or combination of oxygen doped and nitrogen doped; and the activation treating comprising inputting a precursor gas comprising one or a combination of oxygen and nitrogen into a cold plasma generator to generate active particles to be doped in the carbon layer, where a flow rate of precursor gas is 1 ml/s~15 ml/s.
A method of identifying problems in applications, comprising: monitoring at a kernel level system resource usage of one or more running applications over a plurality of consecutive discrete time periods without modifying run-time environments of the one or more running applications; determining, from the system resource usage, a memory usage pattern for at least one running application, the memory usage pattern indicating memory usage for the application during one period of monitoring and memory usage for the application during another period of monitoring,; determining that an abnormal memory usage pattern exists when a particular process's memory usage satisfies a predetermined criteria, wherein a process is an execution of the application, and wherein the predetermined criteria comprises: a predetermined number of increases in memory usage allowed during the plurality of periods; or the particular process's memory usage continually increasing without any decrease in size during a number of interval periods; and identifying (306,308) the application as having a problem when it is determined that an abnormal pattern exists. monitoring at a kernel level system resource usage of one or more running applications over a plurality of consecutive discrete time periods without modifying run-time environments of the one or more running applications; determining, from the system resource usage, a memory usage pattern for at least one running application, the memory usage pattern indicating memory usage for the application during one period of monitoring and memory usage for the application during another period of monitoring,; determining that an abnormal memory usage pattern exists when a particular process's memory usage satisfies a predetermined criteria, wherein a process is an execution of the application, and wherein the predetermined criteria comprises: a predetermined number of increases in memory usage allowed during the plurality of periods; or the particular process's memory usage continually increasing without any decrease in size during a number of interval periods; and identifying (306,308) the application as having a problem when it is determined that an abnormal pattern exists.
Portable implement, such as for example an expander, cutter or combination device with a cutting and expanding function, for portable use, having an electric motor, a battery accommodated on the implement, a mechanically or hydraulically driven displaceable piston rod for performing work, in particular expanding work and/or cutting work and/or lifting or compressing work, and an electronic control and regulation unit for controlling and/or regulating the electric motor, characterized in that provision is made for a brushless DC motor as electric motor, wherein the electronic control and regulation unit defines a first operating state in which the electric motor is operated at a first frequency F1, the electronic control and regulation unit defines a second operating state in which the electric motor is operated at a second frequency F2, wherein it is possible for the operator of the implement to switch the operating state between the first and second operating state by way of manually operable switching means, wherein the speed of the electric motor at the second frequency F2 is higher than at the first frequency F1, wherein the implement comprises a display apparatus that comprises a load display, in which the power of the implement is displayed on the basis of a current A drawn by the electric motor during operation. an electric motor, a battery accommodated on the implement, a mechanically or hydraulically driven displaceable piston rod for performing work, in particular expanding work and/or cutting work and/or lifting or compressing work, and an electronic control and regulation unit for controlling and/or regulating the electric motor, characterized in that provision is made for a brushless DC motor as electric motor, wherein the electronic control and regulation unit defines a first operating state in which the electric motor is operated at a first frequency F1, the electronic control and regulation unit defines a second operating state in which the electric motor is operated at a second frequency F2, wherein it is possible for the operator of the implement to switch the operating state between the first and second operating state by way of manually operable switching means, wherein the speed of the electric motor at the second frequency F2 is higher than at the first frequency F1, wherein the implement comprises a display apparatus that comprises a load display, in which the power of the implement is displayed on the basis of a current A drawn by the electric motor during operation.
A belt for measuring temperature of an object, the belt comprising: - at least one measurement sensor, - a strip having a circumference intended to surround the object, - a device for clamping the strip around the object, characterized in that the temperature sensor is mounted on an individual heat-insulating support, displaceable in a guiding direction toward the object between and relatively to at least two heat-insulating pads (31, 32) which are intended to abut against the object from a first high position, in which the sensor is at a non-zero distance from the object along the guiding direction when the belt is attached around the object, to a second low position, in which when the belt is attached around the object the sensor is applied against the object, the pads (31, 32) being attached to the strip. - at least one measurement sensor, - a strip having a circumference intended to surround the object, - a device for clamping the strip around the object,
Method for controlling an ion exchange membrane fuel cell stack, the stack being installed in a system additionally comprising a liquid cooling circuit and a pump for circulating the coolant liquid, the method comprising a phase of starting up the fuel cell stack, this start-up phase comprising the following steps: • the internal temperature of the fuel cell stack is determined while taking account of the heat capacity and the mass of the materials constituting the stack, and the thermal energy dissipated by the stack; • the temperature in the liquid cooling circuit is measured; • a start-up current is applied to the fuel cell stack and, in parallel; o when the internal temperature of the stack is above a first predetermined threshold, and the temperature of the cooling circuit is below a second predetermined threshold, the cooling pump is ordered to operate in pulsed mode; and o when the temperature in the cooling circuit rises above the second predetermined threshold, the cooling pump is ordered to operate in continuous mode. • the internal temperature of the fuel cell stack is determined while taking account of the heat capacity and the mass of the materials constituting the stack, and the thermal energy dissipated by the stack; • the temperature in the liquid cooling circuit is measured; • a start-up current is applied to the fuel cell stack and, in parallel; o when the internal temperature of the stack is above a first predetermined threshold, and the temperature of the cooling circuit is below a second predetermined threshold, the cooling pump is ordered to operate in pulsed mode; and o when the temperature in the cooling circuit rises above the second predetermined threshold, the cooling pump is ordered to operate in continuous mode. o when the internal temperature of the stack is above a first predetermined threshold, and the temperature of the cooling circuit is below a second predetermined threshold, the cooling pump is ordered to operate in pulsed mode; and o when the temperature in the cooling circuit rises above the second predetermined threshold, the cooling pump is ordered to operate in continuous mode.
A control system for a two-wheeled vehicle comprising: an inertial measurement unit, IMU; one or more control moment gyroscopes, CMGs; one or more CMG controllers to control the one or more CMGs; characterized by an accelerometer to measure a y-axis acceleration for the vehicle, the y-axis of the vehicle being perpendicular to a direction of travel of the vehicle and parallel to a ground surface; and a processing element to: calculate a roll angle for the vehicle based at least in part on the y-axis acceleration measured by the accelerometer, determine a force component based at least in part on the calculated roll angle, and generate a CMG command for a CMG gimbal rate based at least in part on the determined force component, and that the determined force component is a total force on a center of gravity of the vehicle multiplied tmes a sine of an angle between the direction of the force and the direction to a roll axis. an inertial measurement unit, IMU; one or more control moment gyroscopes, CMGs; one or more CMG controllers to control the one or more CMGs; characterized by an accelerometer to measure a y-axis acceleration for the vehicle, the y-axis of the vehicle being perpendicular to a direction of travel of the vehicle and parallel to a ground surface; and a processing element to: calculate a roll angle for the vehicle based at least in part on the y-axis acceleration measured by the accelerometer, determine a force component based at least in part on the calculated roll angle, and generate a CMG command for a CMG gimbal rate based at least in part on the determined force component, and that the determined force component is a total force on a center of gravity of the vehicle multiplied tmes a sine of an angle between the direction of the force and the direction to a roll axis. calculate a roll angle for the vehicle based at least in part on the y-axis acceleration measured by the accelerometer, determine a force component based at least in part on the calculated roll angle, and generate a CMG command for a CMG gimbal rate based at least in part on the determined force component, and that the determined force component is a total force on a center of gravity of the vehicle multiplied tmes a sine of an angle between the direction of the force and the direction to a roll axis.