mhurhangee/ep-ind-claims huggingface dataset:
An extruder system for producing a cereal flake without the use of a flaking mill, the extruder system comprising: A food material a cooking extruder configured to extrude the food material; a die connected to the cooking extruder comprised of one or more orifices; each orifice comprising: an inlet including a first flow channel configured to accept the food material; a breaker screen connected to the inlet and comprised of one or more holes; an expansion chamber connected to the breaker screen, wherein the expansion chamber has an expansion chamber cross-sectional area; an exit orifice connected to the expansion chamber and configured to output the food material, wherein the exit orifice has an exit orifice cross-sectional area; a cutting knife assembly connected to the exit orifice configured to cut the food material at a rate to create a slice thickness less than a diameter of vapor bubbles within the food material; and a sliced food material in the form of a cereal flake that is extruded and cut from the cooking extruder wherein the sliced food material has a thickness smaller than a diameter of vapor bubbles within the food material. A food material a cooking extruder configured to extrude the food material; a die connected to the cooking extruder comprised of one or more orifices; each orifice comprising: an inlet including a first flow channel configured to accept the food material; a breaker screen connected to the inlet and comprised of one or more holes; an expansion chamber connected to the breaker screen, wherein the expansion chamber has an expansion chamber cross-sectional area; an exit orifice connected to the expansion chamber and configured to output the food material, wherein the exit orifice has an exit orifice cross-sectional area; a breaker screen connected to the inlet and comprised of one or more holes; an expansion chamber connected to the breaker screen, wherein the expansion chamber has an expansion chamber cross-sectional area; an exit orifice connected to the expansion chamber and configured to output the food material, wherein the exit orifice has an exit orifice cross-sectional area; a cutting knife assembly connected to the exit orifice configured to cut the food material at a rate to create a slice thickness less than a diameter of vapor bubbles within the food material; and a sliced food material in the form of a cereal flake that is extruded and cut from the cooking extruder wherein the sliced food material has a thickness smaller than a diameter of vapor bubbles within the food material.
A turbine engine with at least one propeller and a control device for switching the turbine engine into reverse mode, said propeller moving between a feathered position and a zero-pitch position, said control device comprising: - a control spindle intended to act on the calibration of the propeller, - at least one bob weight mounted in a cantilever position over said control spindle and operated in such a way as to drive the propeller towards its feathered position under action of the centrifugal force generated by rotation of the turbine engine, - an actuator capable of turning said control spindle to switch the pitch of the propeller from a traction mode to a reverse mode, passing via the zero-pitch position, characterised in that the bob weight is in an unstable position in relation to the centrifugal force when said control spindle leads the pitch of the propeller through the zero-pitch position, and the control device comprises an actuating means applying a torque to the control spindle when said spindle leads the pitch of the propeller through the zero-pitch position, in such a way as to prevent the bob weight from resting in said unstable position. - a control spindle intended to act on the calibration of the propeller, - at least one bob weight mounted in a cantilever position over said control spindle and operated in such a way as to drive the propeller towards its feathered position under action of the centrifugal force generated by rotation of the turbine engine, - an actuator capable of turning said control spindle to switch the pitch of the propeller from a traction mode to a reverse mode, passing via the zero-pitch position,
Method for providing an ECGI identifier for a relay node serving at least one cell in a communications network comprising the steps of: - checking by an access node data fields comprised in a message received from the relay node requesting an establishment of an interface connection over a communication link; - generating by the access node the ECGI identifier, and - upon generating the ECGI identifier, the access node transmitting the ECGI identifier to the relay node over the interface connection of communication link. - checking by an access node data fields comprised in a message received from the relay node requesting an establishment of an interface connection over a communication link; - generating by the access node the ECGI identifier, and - upon generating the ECGI identifier, the access node transmitting the ECGI identifier to the relay node over the interface connection of communication link.
A chlorine generator apparatus comprising: a housing adapted to be mounted in and through an opening in an exterior, user-accessible surface of a spa and a user replaceable electrode cartridge configured to be installable by a user into said housing and to thereafter be pulled out of the housing by the user and replaced; wherein the electrode cartridge comprises a handle grippable by the user to pull the electrode cartridge out of the housing and first and second electrodes (53, 55) positioned to extend into said housing; and wherein the housing comprises: a wall fitting adapted to be installed into the opening in said user-accessible surface; and a cap removably attachable to the wall fitting by a user to provide user access to the installed electrode cartridge. a housing adapted to be mounted in and through an opening in an exterior, user-accessible surface of a spa and a user replaceable electrode cartridge configured to be installable by a user into said housing and to thereafter be pulled out of the housing by the user and replaced; wherein the electrode cartridge comprises a handle grippable by the user to pull the electrode cartridge out of the housing and first and second electrodes (53, 55) positioned to extend into said housing; and wherein the housing comprises: a wall fitting adapted to be installed into the opening in said user-accessible surface; and a cap removably attachable to the wall fitting by a user to provide user access to the installed electrode cartridge. a wall fitting adapted to be installed into the opening in said user-accessible surface; and a cap removably attachable to the wall fitting by a user to provide user access to the installed electrode cartridge.
A method for improving the mobility of heavy crude oil in a porous subterranean reservoir, the method comprising: introducing a fluid formulation into the reservoir, the fluid formulation comprising water, a surfactant and a co-solvent; and producing at least one of an emulsion and a dispersion in the reservoir, the emulsion or the dispersion having a water external phase and a crude oil internal phase; wherein the surfactant is a nonionic surfactant having a hydrophile/lipophile balance of greater than 10; and wherein the co-solvent comprises butoxyethanol. introducing a fluid formulation into the reservoir, the fluid formulation comprising water, a surfactant and a co-solvent; and producing at least one of an emulsion and a dispersion in the reservoir, the emulsion or the dispersion having a water external phase and a crude oil internal phase; wherein the surfactant is a nonionic surfactant having a hydrophile/lipophile balance of greater than 10; and wherein the co-solvent comprises butoxyethanol.
Hydraulic system for actuating a positively locking shifting element of a transmission device having two piston spaces (3, 4) and at least one double-acting piston element which delimits the piston spaces (3, 4) and can be loaded in the region of one of the piston spaces with an actuating pressure (p_off) which acts in the opening direction of the shifting element and in the region of the further piston space with an actuating pressure (p_on) which acts in the closing direction of the shifting element, it being possible for the actuating pressure (p_on or p_off) to be fed via a valve device to the one or the other piston space (3 or 4), and it being possible for the valve device to be actuated via an electrohydraulic actuator with a pilot control pressure (p_V), characterized in that the valve device and the electrohydraulic actuator are configured and operatively connected to one another in such a way that, in the case of a pressure drop, a hydraulic overall force component which acts in the closing direction of the shifting element bears against the piston element, whereas, in the case of an absence of the energization of the actuator, a hydraulic overall force component which acts in the opening direction of the shifting element acts on the piston element.
An electrical machine having a plurality of electrical phases and comprising a radially inner structure, an outer structure and a radial air gap arranged between the inner and the outer structure; wherein the inner structure is one of the rotor and of the stator and the outer structure is the other of the rotor and of the stator; the rotor is configured to rotate around a rotational axis extending from a first side to a second side, and the stator comprises a plurality of electrical windings; the outer structure comprises on the first side at least one maintenance aperture extending along a portion of the outer structure for accessing a portion of the inner structure from the first side; characterized in that the stator further comprises an electrical conductor ring extending along the stator circumference for connecting the electrical windings to an electrical converter the electrical conductor ring comprises at least two segments with at least one of said segments being a releasable segment releasably connected to the other segment or segments of the electrical conductor ring, wherein the releasable segment is configured to be accessible via the at least one maintenance aperture and is configured to be removed during maintenance operations, and wherein the releasable segment is configured to connect to a selection of the electrical windings, the selection having the same number of windings for each of the plurality of electrical phases. the inner structure is one of the rotor and of the stator and the outer structure is the other of the rotor and of the stator; the rotor is configured to rotate around a rotational axis extending from a first side to a second side, and the stator comprises a plurality of electrical windings; the outer structure comprises on the first side at least one maintenance aperture extending along a portion of the outer structure for accessing a portion of the inner structure from the first side; characterized in that the stator further comprises an electrical conductor ring extending along the stator circumference for connecting the electrical windings to an electrical converter the electrical conductor ring comprises at least two segments with at least one of said segments being a releasable segment releasably connected to the other segment or segments of the electrical conductor ring, wherein the releasable segment is configured to be accessible via the at least one maintenance aperture and is configured to be removed during maintenance operations, and wherein the releasable segment is configured to connect to a selection of the electrical windings, the selection having the same number of windings for each of the plurality of electrical phases.
A wave guide assembly for a control and diagnostic system for a machine, the wave guide assembly comprising: a housing defining an exterior surface and an internal cavity extending between distal ends; a wave guide defined within the internal cavity; characterized in that the wave guide assembly comprising: at least one open conduit (92A, 92B) defined within the internal cavity providing a space for routing conductors through the housing; and a fluid passage (90A, 90B) defined within the internal cavity separate from the wave guide. a housing defining an exterior surface and an internal cavity extending between distal ends; a wave guide defined within the internal cavity; characterized in that the wave guide assembly comprising: at least one open conduit (92A, 92B) defined within the internal cavity providing a space for routing conductors through the housing; and a fluid passage (90A, 90B) defined within the internal cavity separate from the wave guide. at least one open conduit (92A, 92B) defined within the internal cavity providing a space for routing conductors through the housing; and a fluid passage (90A, 90B) defined within the internal cavity separate from the wave guide.
An optical illumination device comprising: a laser light source; a plurality of microlens arrays (2, 3) through which light emitted from the laser light source passes; a moving mechanism that moves the plurality of microlens arrays (2, 3) without changing an optical length from the laser light source; and a Fourier lens through which light passing through the plurality of microlens arrays (2, 3) passes, wherein the plurality of microlens arrays (2, 3) and the Fourier lens constitute a Koehler illumination system, the plurality of microlens arrays (2, 3) is configured to rotate around an axis (C1, C2) which is perpendicular to the microlens array (2, 3), the moving mechanism causes the plurality of microlens arrays (2, 3) to rotate around the axis (C1, C2), and a plurality of lenses (7, 17) constituting each of the plurality of microlens arrays (2, 3) are arranged in a spiral shape. a laser light source; a plurality of microlens arrays (2, 3) through which light emitted from the laser light source passes; a moving mechanism that moves the plurality of microlens arrays (2, 3) without changing an optical length from the laser light source; and a Fourier lens through which light passing through the plurality of microlens arrays (2, 3) passes, wherein the plurality of microlens arrays (2, 3) and the Fourier lens constitute a Koehler illumination system, the plurality of microlens arrays (2, 3) is configured to rotate around an axis (C1, C2) which is perpendicular to the microlens array (2, 3), the moving mechanism causes the plurality of microlens arrays (2, 3) to rotate around the axis (C1, C2), and a plurality of lenses (7, 17) constituting each of the plurality of microlens arrays (2, 3) are arranged in a spiral shape.
An elevator system comprising: an elevator car; a motor; a traction sheave operably connected to the motor to drive rotation of the traction sheave; a belt operably connected to the elevator car, the belt in frictional contact with the traction sheave such that rotation of the traction sheave urges movement of the elevator car, characterised in that it comprises a resurfacer for the belt, the resurfacer comprising: a resurfacing roller having a selected surface roughness; a heater element to heat the belt to a selected temperature; and a biasing element to urge the resurfacing roller into contact with the belt, the resurfacing roller applying a selected pressure to the belt, wherein applying the resurfacing roller to the heated belt at the selected pressure modifies a surface finish of an outer surface of the belt. an elevator car; a motor; a traction sheave operably connected to the motor to drive rotation of the traction sheave; a belt operably connected to the elevator car, the belt in frictional contact with the traction sheave such that rotation of the traction sheave urges movement of the elevator car, characterised in that it comprises a resurfacer for the belt, the resurfacer comprising: a resurfacing roller having a selected surface roughness; a heater element to heat the belt to a selected temperature; and a biasing element to urge the resurfacing roller into contact with the belt, the resurfacing roller applying a selected pressure to the belt, wherein applying the resurfacing roller to the heated belt at the selected pressure modifies a surface finish of an outer surface of the belt. a resurfacing roller having a selected surface roughness; a heater element to heat the belt to a selected temperature; and a biasing element to urge the resurfacing roller into contact with the belt, the resurfacing roller applying a selected pressure to the belt, wherein applying the resurfacing roller to the heated belt at the selected pressure modifies a surface finish of an outer surface of the belt.
An additive manufacturing system, comprising: a material conveyor configured to feed a material; an energy source configured to direct an energy beam toward the material to fuse at least a portion of the material to form a solidified part; a microforging device movable along with the material conveyor for forging the solidified part, wherein the microforging device comprises a first forging hammer configured to impact the solidified part to generate a first deformation and a second forging hammer configured to impact the solidified part to generate a second deformation greater than the first deformation, and wherein, in use, the microforging device is movable relative to the material conveyor between a hot forging position and a cold forging position farther away from the material conveyor than the hot forging position; and a control device operable to control the microforging device by operating the first forging hammer at a first frequency and operating the second forging hammer at a second frequency greater than the first frequency to generate the second deformation greater than the first deformation. a material conveyor configured to feed a material; an energy source configured to direct an energy beam toward the material to fuse at least a portion of the material to form a solidified part; a microforging device movable along with the material conveyor for forging the solidified part, wherein the microforging device comprises a first forging hammer configured to impact the solidified part to generate a first deformation and a second forging hammer configured to impact the solidified part to generate a second deformation greater than the first deformation, and wherein, in use, the microforging device is movable relative to the material conveyor between a hot forging position and a cold forging position farther away from the material conveyor than the hot forging position; and a control device operable to control the microforging device by operating the first forging hammer at a first frequency and operating the second forging hammer at a second frequency greater than the first frequency to generate the second deformation greater than the first deformation.
Metallurgical container, comprising - an outer wall, - at least one connection element for an electrode to be connected and/or a support element to be connected, and - at least one transponder, which is surrounded by a protective housing and can be read wirelessly, wherein the transponder is arranged at a distance from the outer wall on the container in an opening in the connection element accessible from outside. - an outer wall, - at least one connection element for an electrode to be connected and/or a support element to be connected, and - at least one transponder, which is surrounded by a protective housing and can be read wirelessly,
A dental system for the transillumination of teeth, having: a light source for producing examination radiation, irradiation means for directing the examination radiation onto a tooth to be examined, and also means for acquiring an optical image of the tooth illuminated by the examination radiation, wherein the irradiation means include light-guiding and/or light-deflecting elements, characterised in that at least the light-guiding and/or light-deflecting element facing the tooth to be examined is embedded in a transparent, flexible coupling body which is provided to rest against the tooth or the gingiva of the tooth, wherein the coupling body, in its region provided for light-coupling, has a surface which has the form of a sphere or a spherical segment or is configured so as to be convex or concave, wherein the coupling body is provided with an additional structure in its region provided for light-coupling, wherein light-emitting faces are constituted that can be deformed by the additional structure. a light source for producing examination radiation, irradiation means for directing the examination radiation onto a tooth to be examined, and also means for acquiring an optical image of the tooth illuminated by the examination radiation, wherein the irradiation means include light-guiding and/or light-deflecting elements, characterised in that at least the light-guiding and/or light-deflecting element facing the tooth to be examined is embedded in a transparent, flexible coupling body which is provided to rest against the tooth or the gingiva of the tooth, wherein the coupling body, in its region provided for light-coupling, has a surface which has the form of a sphere or a spherical segment or is configured so as to be convex or concave, wherein the coupling body is provided with an additional structure in its region provided for light-coupling, wherein light-emitting faces are constituted that can be deformed by the additional structure.
A passenger seat assembly comprising: (a) at least two spreaders, each spreader comprising an upper portion and a lower portion separated by a transitional region; (b) at least one seat back comprising a central panel and a pair of extensions coupled to a lower end of the central panel, wherein the pair of extensions are pivotally coupled the upper portions of the at least two spreaders so that the seat back is configured to pivot adjacent a lumber region of a passenger's back; (c) a base structure comprising a forward base frame tube and an aft base frame tube, wherein the forward base frame tube and the aft base frame tube are coupled to the lower portions of the at least two spreaders; and (d) at least two leg assemblies, each leg assembly comprising a forward leg portion coupled to the forward base frame tube and the aft base frame tube; characterised in that the forward base frame tube is located at a lower height than the aft base frame tube so that an upper end of the forward leg portion has a downward pitch in a forward direction between the aft base frame tube and the forward base frame tube. (a) at least two spreaders, each spreader comprising an upper portion and a lower portion separated by a transitional region; (b) at least one seat back comprising a central panel and a pair of extensions coupled to a lower end of the central panel, wherein the pair of extensions are pivotally coupled the upper portions of the at least two spreaders so that the seat back is configured to pivot adjacent a lumber region of a passenger's back; (c) a base structure comprising a forward base frame tube and an aft base frame tube, wherein the forward base frame tube and the aft base frame tube are coupled to the lower portions of the at least two spreaders; and (d) at least two leg assemblies, each leg assembly comprising a forward leg portion coupled to the forward base frame tube and the aft base frame tube; characterised in that the forward base frame tube is located at a lower height than the aft base frame tube so that an upper end of the forward leg portion has a downward pitch in a forward direction between the aft base frame tube and the forward base frame tube.