mhurhangee/patent-ind-claim-en huggingface dataset:
Heating/bending/forming and heating/toasting device of barrels, casks, vats and the like comprising: - heating/toasting means suitable to generate heat to produce the heating and/or toasting of an inner side wall of a wooden container for ageing food substances, such as a barrel, cask, vat or the like , said container comprising a plurality of staves arranged side by side along the perimeter with each other to form a polyline closed at a first longitudinal end thereof , bending/forming means of said staves suitable to grasp free ends of said staves opposite said first longitudinal ends , said bending/forming means pulling the staves towards a central axis of symmetry (S-S) of the barrel, cask, vat or the like . characterised in that - the device comprises centering means operatively connected to the heating/toasting means and suitable to be operatively connected to the staves of the barrel, cask, vat or the like , on the side of the free ends of the staves opposite, along a longitudinal extension axis, the first longitudinal ends , - wherein said centering means move the heating /toasting means to said central axis of symmetry (S-S) of the barrel, cask, vat or the like , wherein the device comprises at least one temperature sensor , integral with the heating/toasting means , said temperature sensor being directed towards a side wall of the associated staves in order to measure the surface temperature of the inner side wall of the staves at a distance. - heating/toasting means suitable to generate heat to produce the heating and/or toasting of an inner side wall of a wooden container for ageing food substances, such as a barrel, cask, vat or the like , said container comprising a plurality of staves arranged side by side along the perimeter with each other to form a polyline closed at a first longitudinal end thereof , bending/forming means of said staves suitable to grasp free ends of said staves opposite said first longitudinal ends , said bending/forming means pulling the staves towards a central axis of symmetry (S-S) of the barrel, cask, vat or the like . characterised in that - the device comprises centering means operatively connected to the heating/toasting means and suitable to be operatively connected to the staves of the barrel, cask, vat or the like , on the side of the free ends of the staves opposite, along a longitudinal extension axis, the first longitudinal ends , - wherein said centering means move the heating /toasting means to said central axis of symmetry (S-S) of the barrel, cask, vat or the like ,
Assembly for an electrochemical device, comprising at least one gas diffusion layer and at least one sealing element produced on the gas diffusion layer , wherein the sealing element comprises an inner sealing region fixed to the gas diffusion layer and an outer sealing region connected to the gas diffusion layer by way of the inner sealing region , wherein the inner sealing region has a flow field sealing line , which extends around the gas diffusion layer , and wherein the outer sealing region has at least one medium channel sealing line , which extends around a medium through-opening of the sealing element , characterized in that the sealing element comprises at least one relief region , which is arranged between the inner sealing region and the outer sealing region , wherein the at least one relief region is arranged between the flow field sealing line and a medium channel sealing line of the sealing element , and a) comprises a relief opening extending through the sealing element and/or b) has a smallest height (h e ), which is smaller than one fourth of the greatest height (H I ) of the inner sealing region and is smaller than one fourth of the greatest height (H A ) of the outer sealing region . wherein the sealing element comprises an inner sealing region fixed to the gas diffusion layer and an outer sealing region connected to the gas diffusion layer by way of the inner sealing region , wherein the inner sealing region has a flow field sealing line , which extends around the gas diffusion layer , and wherein the outer sealing region has at least one medium channel sealing line , which extends around a medium through-opening of the sealing element , characterized in that the sealing element comprises at least one relief region , which is arranged between the inner sealing region and the outer sealing region , wherein the at least one relief region is arranged between the flow field sealing line and a medium channel sealing line of the sealing element , and a) comprises a relief opening extending through the sealing element and/or b) has a smallest height (h e ), which is smaller than one fourth of the greatest height (H I ) of the inner sealing region and is smaller than one fourth of the greatest height (H A ) of the outer sealing region . a) comprises a relief opening extending through the sealing element and/or b) has a smallest height (h e ), which is smaller than one fourth of the greatest height (H I ) of the inner sealing region and is smaller than one fourth of the greatest height (H A ) of the outer sealing region .
A circuit interrupter device with line power and neutral return power current paths, and an apertured current transformer configured to detect ground fault current anomalies, comprising: a substantially rigid conductor surrounding and holding a flexible conductor , the substantially rigid conductor and the flexible conductor passing through the aperture of the current transformer inside of the circuit interrupter device, characterized by the substantially rigid conductor being formed from a flat plate having first and second terminal strips and a wider central portion which has been rolled into a substantially tubular form thereby creating a substantially tubular portion for fitting through the current transformer.
Component for producing a ceiling , the component comprising a plurality of beam-shaped wooden elements which are arranged parallel to one another and, viewed transversely to a longitudinal direction of the wooden elements , are arranged directly one behind the other and connected to one another and form a first layer , wherein an upper side of the first layer is formed by upper sides of the wooden elements , wherein further a second layer of concrete is arranged on the upper side of the first layer , wherein on the upper sides of the wooden elements recesses are provided which are filled by the concrete of the second layer , wherein the recesses each have a bottom which is spaced at a depth from the upper side of the respective wooden element , wherein the recesses , viewed in the longitudinal direction , are each delimited by a first boundary surface and a second boundary surface arranged behind it, characterized in that the recesses comprise recesses of a first type, wherein in the recesses of the first type, the first boundary surface and/or the second boundary surface in each case encloses an angle with the longitudinal direction which is greater than 90°, preferably in the range from 95° to 120°, particularly preferably in the range from 95° to 105°, in that furthermore the recesses comprise recesses of a second type, wherein, in the case of the recesses of the second type, in each case the first boundary surface and/or the second boundary surface encloses an angle with the longitudinal direction which is less than 90°, preferably in the range from 60° to 85°, particularly preferably in the range of 70° to 80°, in that furthermore the wooden elements comprise wooden elements of a first type, wherein the wooden elements of the first type have both recesses of the first type as well as recesses of the second type, in that furthermore the wooden elements comprise wooden elements of a second type, wherein the wooden elements of the second type exclusively comprise recesses of the first type, and in that , viewed transversely to the longitudinal direction , at least one wooden element of the second type is followed by at least one wooden element of the first type and vice versa.
Heating system for a hinging-machine for fixing a metallic hinge part of a hinge for eyeglasses to a portion of a frame front for eyeglasses frames made of a thermoplastic material, comprising a heating vice , equipped with two metallic jaws capable of selectively approach one another said two jaws in such a way as to grab therebetween a hinge part for eyeglasses, a first electronic board electrically connected to said jaws to supply them with a desired first, direct, supply electric current, and electronic control means , operationally connected to said first electronic board to control it, characterised by the fact that the two metallic jaws have an electrical resistivity comprised between 10 and 40 MΩ, that the first electronic board is electrically connected to said jaws to measure a first electric voltage between two first measuring points of said first electronic board to which said jaws are electrically connected; and that the electronic control means are configured to receive from said first electronic board a signal related to said first electric voltage measured between said two first measuring points , and to cause said first electronic board to supply said jaws with a first, direct, modified electric current, calculated by said electronic control means as a function of said signal related to said first measured electrical voltage.
Method for controlling a wind turbine, the wind turbine comprises a rotor connected to a generator, and a rotational speed controller configured to control a speed of the rotor in response to a generator speed reference, and a power controller to control an electric power production, the method comprises the step of: - receiving a boost command to request a power boost event, so to increase the electrical power production, - imposing a dead band with a dead zone value limit to the rotational speed controller, - wherein the dead band imposes a zero signal to be sent to the rotational speed controller, when a speed error is within the dead zone value limit and - wherein the dead band imposes an error signal to be sent to the rotational speed controller, when a speed error is greater than the dead zone value limit, the error signal being a function of the speed error and the dead zone value limit. - receiving a boost command to request a power boost event, so to increase the electrical power production, - imposing a dead band with a dead zone value limit to the rotational speed controller, - wherein the dead band imposes a zero signal to be sent to the rotational speed controller, when a speed error is within the dead zone value limit and - wherein the dead band imposes an error signal to be sent to the rotational speed controller, when a speed error is greater than the dead zone value limit, the error signal being a function of the speed error and the dead zone value limit.
A relative position detection device comprising a permanent magnet part and a magnetic sensor that are arranged so as to be displaceable relative to each other, the magnetic sensor facing the permanent magnet part with a gap therebetween, being configured to detect a variation in a magnetic flux density of the permanent magnet part without contacting the permanent magnet part , and having an upper limit value and a lower limit value of a detectable magnetic flux density, the permanent magnet part having at least two magnetic pole parts , each of the two magnetic pole parts being magnetized in a facing direction in which the permanent magnet part and the magnetic sensor face each other such that each of the two magnetic pole parts has a N-pole and a S-pole juxtaposed in the facing direction, the permanent magnet part being configured such that the two magnetic pole parts are juxtaposed in a relative displacement direction in which the permanent magnet part and the magnetic sensor are displaced relative to each other and such that magnetic poles of the respective two magnetic pole parts facing the magnetic sensor have different polarities, the permanent magnet part having a middle portion including a boundary between the two magnetic pole parts and two non-middle portions adjacent to the respective sides of the middle portion in the relative displacement direction, the permanent magnet part being configured such that at least one of the non-middle portions faces the magnetic sensor when the permanent magnet part and the magnetic sensor are displaced relative to each other, the permanent magnet part being configured such that the middle portion and, of the two non-middle portions , the non-middle portion capable of facing the magnetic sensor satisfy a requirement concerning a cross-sectional area and a requirement concerning a distance to the magnetic sensor , and the permanent magnet part having an arc-like shape protruding toward the magnetic sensor , the permanent magnet part and the magnetic sensor having a radial gap therebetween, one of the permanent magnet part and the magnetic sensor being displaced relative to the other by a rotation about an axis line, characterized in that the requirement concerning the cross-sectional area being that a cross-sectional area of the middle portion on a plane perpendicular to the relative displacement direction is smaller than a cross-sectional area of the non-middle portion on a plane perpendicular to the relative displacement direction, and the requirement concerning the distance to the magnetic sensor being that a distance between the middle portion and the magnetic sensor at a time when the middle portion and the magnetic sensor are aligned in the facing direction is longer than a distance between the non-middle portion and the magnetic sensor at a time when the non-middle portion and the magnetic sensor are aligned in the facing direction.
A non-metal clip having opposed first and second arms extending in a longitudinal direction, movable with respect to each other at respective first end portions of the arms, having first and second openings in the first and second arms substantially aligned and defining an axial direction, and further comprising: first and second walls extending from the first arm away from the second arm to respective first and second upper portions and transversely to the longitudinal direction, defining a cage adapted to limit movement of a nut base in the longitudinal direction, wherein at least one of the first and second upper portions includes a third wall extending toward the other of the first and second upper portions, and wherein the third wall is spaced apart from the other upper portion a distance forming an opening sufficient to allow a nut having tabs to be inserted and removed through the opening, the first wall having two cavities into which a first pair of tabs may extend and float, the two cavities having upper and lower walls limiting the axial float of the tabs, the second wall having two cavities able to retain axially a second pair of tabs, the third wall defining upper surfaces for the cavities limiting the axial float of the tabs; and wherein the cavities in the first wall have a first height extending away from a base surface of the cage, wherein the cavities in the second wall have a second height extending away from the base surface of the cage, and wherein the first height is less than the second height. first and second walls extending from the first arm away from the second arm to respective first and second upper portions and transversely to the longitudinal direction, defining a cage adapted to limit movement of a nut base in the longitudinal direction, wherein at least one of the first and second upper portions includes a third wall extending toward the other of the first and second upper portions, and wherein the third wall is spaced apart from the other upper portion a distance forming an opening sufficient to allow a nut having tabs to be inserted and removed through the opening, the first wall having two cavities into which a first pair of tabs may extend and float, the two cavities having upper and lower walls limiting the axial float of the tabs, the second wall having two cavities able to retain axially a second pair of tabs, the third wall defining upper surfaces for the cavities limiting the axial float of the tabs; and
A trash can assembly comprising: a body component ; a lid mounted relative to the body component and configured to move between open and closed positions, the lid having lid driving mechanism components ; a power operated driving mechanism comprising a motor coupled with a shaft , the power operated driving mechanism being activated by a sensor ; characterized in that a trim member pivotally coupled with the body component and configured to move between a closed position and an open position, at least one of the power operated driving mechanism and the sensor being deactivated when the trim member is in the open position; and a clutch mechanism engageable with the lid driving mechanism components , the clutch mechanism configured to receive torque from the motor via the shaft and to transmit the torque to the lid driving mechanism components to move the lid between the open and closed positions; wherein the lid driving mechanism components and the clutch mechanism are configured to allow a user to manually move the lid between the open and closed positions substantially without applying torque to at least one of: the motor , the shaft , and the clutch mechanism ; wherein, when the trim member is in the closed position and an upper portion of a removable liner is positioned over an upper edge of the body component , the trim member is configured to engage the upper edge of the body component to pinch the upper portion of the removable liner between the trim member and the upper edge of the body component . a body component ; a lid mounted relative to the body component and configured to move between open and closed positions, the lid having lid driving mechanism components ; a power operated driving mechanism comprising a motor coupled with a shaft , the power operated driving mechanism being activated by a sensor ; characterized in that a trim member pivotally coupled with the body component and configured to move between a closed position and an open position, at least one of the power operated driving mechanism and the sensor being deactivated when the trim member is in the open position; and a clutch mechanism engageable with the lid driving mechanism components , the clutch mechanism configured to receive torque from the motor via the shaft and to transmit the torque to the lid driving mechanism components to move the lid between the open and closed positions; wherein the lid driving mechanism components and the clutch mechanism are configured to allow a user to manually move the lid between the open and closed positions substantially without applying torque to at least one of: the motor , the shaft , and the clutch mechanism ; wherein, when the trim member is in the closed position and an upper portion of a removable liner is positioned over an upper edge of the body component , the trim member is configured to engage the upper edge of the body component to pinch the upper portion of the removable liner between the trim member and the upper edge of the body component .
A method for producing an electrical energy storage module containing electrical energy storage elements , this module comprising: - a parallelepiped casing made of sheet metal, inside of which are housed said electrical energy storage elements , said casing comprising a bottom assembled to a hood with five faces, said electrical energy storage elements being held in place and immobilized in the casing by a first resin layer which extends from said bottom over only a portion of the height of said electrical energy storage elements , and by a second resin layer which extends from one of the faces of the hood over only a portion of the height of said electrical energy storage elements , - at least one electronic card disposed in a facade element , itself attached to one of the faces of said parallelepiped casing , characterized in that it comprises the steps of: - assembling the electrical energy storage element in pairs using connecting bars , - implementing the electrical cabling and installing the insulators so as to form an isolated power block , - placing said power block inside the casing , - assembling the bottom and the hood of said casing , - injecting resin through a first opening of the casing to form said first resin layer , - waiting for the polymerization of the resin, - turning the module over, - injecting resin through a second opening of the casing to form a second resin layer , - attaching the facade element containing the electronic card to the casing . - a parallelepiped casing made of sheet metal, inside of which are housed said electrical energy storage elements , said casing comprising a bottom assembled to a hood with five faces, said electrical energy storage elements being held in place and immobilized in the casing by a first resin layer which extends from said bottom over only a portion of the height of said electrical energy storage elements , and by a second resin layer which extends from one of the faces of the hood over only a portion of the height of said electrical energy storage elements , - at least one electronic card disposed in a facade element , itself attached to one of the faces of said parallelepiped casing , - assembling the electrical energy storage element in pairs using connecting bars , - implementing the electrical cabling and installing the insulators so as to form an isolated power block , - placing said power block inside the casing , - assembling the bottom and the hood of said casing , - injecting resin through a first opening of the casing to form said first resin layer , - waiting for the polymerization of the resin, - turning the module over, - injecting resin through a second opening of the casing to form a second resin layer , - attaching the facade element containing the electronic card to the casing .
A three-dimensional porous polyurethane scaffold for repairing central nerve injuries, wherein the scaffold comprises three-dimensional freeze-dried porous polyurethane, wherein the compression modulus of the three-dimensional porous polyurethane is 1.0MPa, wherein the pore diameter is 80μm, characterized in that the porosity of the three-dimensional porous polyurethane is 90%. wherein the scaffold comprises three-dimensional freeze-dried porous polyurethane, wherein the compression modulus of the three-dimensional porous polyurethane is 1.0MPa, wherein the pore diameter is 80μm, characterized in that the porosity of the three-dimensional porous polyurethane is 90%.