mhurhangee/ep-ind-claims huggingface dataset:
Electric motor drive having a commutator motor whose motor shaft is rotatably mounted on axially opposite sides (BS, AS) in respective radial shaft bearings (9, 10) which are covered by means of a bearing shield (7, 8), wherein a damping system for noise damping is arranged on the bearing side, which faces away from the bearing shield (7, 8), of at least one of the shaft bearings, and wherein the damping system has a sealing ring disc and a spring element and also a sliding ring disc which faces the shaft bearing, characterized - in that the spring element is an integral constituent part of the sliding ring disc, wherein spring arms which extend in a circular arc shape along the disc circumference of the sliding ring disc are provided which project out of the disc surface in the axial direction, - in that the sliding disc with integrally formed spring element consists of metal, in particular of steel, and - in that the sealing ring disc and the sliding ring disc are latched with one another, wherein, in the assembled mounting state of the damping system, the spring arms bear against the sealing disc, wherein a circular-ring-like damping element which is integrally formed on or inserted into the sealing ring disc coaxially surrounds the spring arms. - in that the spring element is an integral constituent part of the sliding ring disc, wherein spring arms which extend in a circular arc shape along the disc circumference of the sliding ring disc are provided which project out of the disc surface in the axial direction, - in that the sliding disc with integrally formed spring element consists of metal, in particular of steel, and - in that the sealing ring disc and the sliding ring disc are latched with one another, wherein, in the assembled mounting state of the damping system, the spring arms bear against the sealing disc, wherein a circular-ring-like damping element which is integrally formed on or inserted into the sealing ring disc coaxially surrounds the spring arms.
A paper machine doctor assembly comprising • a doctor blade, • a blade holder holding the doctor blade, and • a support member mountable on the paper machine frame, and • a separate pivot mount between the blade holder and the support member with a tubular member, characterized in that the tubular member comprises • a slot dimensioned such that one end of the support member becomes seated in the slot, • an inner cross-section with a shape compatible with the shape of the end of the support member to secure the mating of the end of the support member with the inner cross section of the tubular member, and • an outer surface adapted to fit into a cavity formed into the blade holder wherein the tubular member is configured such that it can be dismantled by pulling it out from the support member separately. • a doctor blade, • a blade holder holding the doctor blade, and • a support member mountable on the paper machine frame, and • a separate pivot mount between the blade holder and the support member with a tubular member, • a slot dimensioned such that one end of the support member becomes seated in the slot, • an inner cross-section with a shape compatible with the shape of the end of the support member to secure the mating of the end of the support member with the inner cross section of the tubular member, and • an outer surface adapted to fit into a cavity formed into the blade holder wherein the tubular member is configured such that it can be dismantled by pulling it out from the support member separately.
A power cable lead sheath inspection assembly, comprising a power cable having a lead sheath and an ultrasonic testing apparatus for inspection of power cable lead sheath, comprising - an ultrasonic probe for emitting ultrasound waves towards the power cable lead sheath and recording ultrasound waves reflected from the power cable lead sheath, - a probe guiding device configured to move the ultrasonic probe along an inspection path, - a processing device connected to the ultrasonic probe for receiving signals from the ultrasonic probe and processing the signals, characterized in that the processing device provides an image representing the lead sheath along the inspection path, and in that the power cable lead sheath inspection assembly further comprises: - an ultrasonic control unit connected to the ultrasonic probe for controlling the ultrasound waves emitted from the ultrasonic probe, where the ultrasonic control unit is in communication with the probe guiding device for coordination of the movement of the ultrasonic probe and the emittance of ultrasound waves. - an ultrasonic probe for emitting ultrasound waves towards the power cable lead sheath and recording ultrasound waves reflected from the power cable lead sheath, - a probe guiding device configured to move the ultrasonic probe along an inspection path, - a processing device connected to the ultrasonic probe for receiving signals from the ultrasonic probe and processing the signals, characterized in that the processing device provides an image representing the lead sheath along the inspection path, and in that the power cable lead sheath inspection assembly further comprises: - an ultrasonic control unit connected to the ultrasonic probe for controlling the ultrasound waves emitted from the ultrasonic probe, where the ultrasonic control unit is in communication with the probe guiding device for coordination of the movement of the ultrasonic probe and the emittance of ultrasound waves. - an ultrasonic control unit connected to the ultrasonic probe for controlling the ultrasound waves emitted from the ultrasonic probe, where the ultrasonic control unit is in communication with the probe guiding device for coordination of the movement of the ultrasonic probe and the emittance of ultrasound waves.
Method for manufacturing a layer bonding from which an engine component (FC, N, VK1, VK2) can be at least partially manufactured, wherein the layer bonding (2, 2a, 2b) has a multi-layer structure and at least one layer with an intumescent poriferous material as well as at least one further layer (20, 20a, 20b, 23), wherein for manufacturing the layer bonding (2, 2a, 2b) - at least one material layer from intumescent poriferous material and at least one material layer (20', 20a', 20b', 23') for the at least one further layer (20, 20a, 20b, 23) are stacked on top of each other in a tool, and - at least the intumescent poriferous material is impregnated by means of curing resin after the material layers (20', 20a', 20b', 23', 21') have been stacked, characterized in that - a pressure is applied to the material layers stacked on top of each other (20', 20a', 20b', 23', 21') prior to the impregnation so as to compress at least the material layer of the intumescent poriferous material, and - the material layer of intumescent poriferous material is held in its compressed shape and sealed against the entry of any liquid in the layer bonding (2, 2a, 2b) by means of the curing resin. - at least one material layer from intumescent poriferous material and at least one material layer (20', 20a', 20b', 23') for the at least one further layer (20, 20a, 20b, 23) are stacked on top of each other in a tool, and - at least the intumescent poriferous material is impregnated by means of curing resin after the material layers (20', 20a', 20b', 23', 21') have been stacked, - a pressure is applied to the material layers stacked on top of each other (20', 20a', 20b', 23', 21') prior to the impregnation so as to compress at least the material layer of the intumescent poriferous material, and - the material layer of intumescent poriferous material is held in its compressed shape and sealed against the entry of any liquid in the layer bonding (2, 2a, 2b) by means of the curing resin.
A method for preparing a solid electrolytic capacitor comprising: providing an anode; forming a dielectric on said anode; forming a cathode on said dielectric wherein said cathode comprises interlayers (201 - 204), at least one interlayer comprises a monomer, oligomer or polymer with multifunctional or multiple reactive groups, and an adjacent interlayer comprises a molecule with crosslinkable functionality; and wherein said monomer, oligomer or polymer with multifunctional or multiple reactive groups on one interlayer reacts with said crosslinkable functionality in said adjacent interlayer, wherein said reactive groups are selected from the group consisting of hydroxyl, amine, epoxy, anhydride, isocyanate, imide, amide, carboxyl, carboxylic anhydride, silane, urethane, oxazoline, (meth)acrylates, vinyl, maleates, maleimides, itaconates, allyl alcohol esters, dicyclo-pentadiene-based unsaturations, unsaturated C12-C22 fatty esters or amides, quaternary ammonium salts and hydroxyl functional silicone. providing an anode; forming a dielectric on said anode; forming a cathode on said dielectric wherein said cathode comprises interlayers (201 - 204), at least one interlayer comprises a monomer, oligomer or polymer with multifunctional or multiple reactive groups, and an adjacent interlayer comprises a molecule with crosslinkable functionality; and wherein said monomer, oligomer or polymer with multifunctional or multiple reactive groups on one interlayer reacts with said crosslinkable functionality in said adjacent interlayer, wherein said reactive groups are selected from the group consisting of hydroxyl, amine, epoxy, anhydride, isocyanate, imide, amide, carboxyl, carboxylic anhydride, silane, urethane, oxazoline, (meth)acrylates, vinyl, maleates, maleimides, itaconates, allyl alcohol esters, dicyclo-pentadiene-based unsaturations, unsaturated C12-C22 fatty esters or amides, quaternary ammonium salts and hydroxyl functional silicone.
A method for locating a deflector in a wellbore, comprising: providing a deflector assembly which comprises an orienting member and a plurality of spring-loaded latch dogs; moving the deflector assembly downhole within a tubular structure to a specific one of a plurality of wellbore junctions, each of which has a different latch opening, and where the latch dogs match the latch opening of the specific wellbore junction; and latching the latch dogs in the latch opening of the specific wellbore junction; wherein the deflector assembly comprises a deflector tube with the plurality of spring-loaded latch dogs circumferentially disposed on the deflector tube in a rotationally asymmetrical pattern; each wellbore junction has a plurality of latch openings in an alignment sleeve of the tubular structure, and the pattern of the latch dogs matches a corresponding asymmetrical pattern of the latch openings at the specific wellbore junction; and the method comprises orienting the deflector tube and the plurality of spring-loaded latch dogs with the plurality of latch openings at the specific junction by moving the orienting member along a profile of the tubular structure; latching the plurality of latch dogs in the plurality of latch openings at the specific junction, and applying a pull force to the deflector assembly to determine whether the plurality of spring-loaded latch dogs has properly latched in the plurality of latch openings at the specific wellbore junction. providing a deflector assembly which comprises an orienting member and a plurality of spring-loaded latch dogs; moving the deflector assembly downhole within a tubular structure to a specific one of a plurality of wellbore junctions, each of which has a different latch opening, and where the latch dogs match the latch opening of the specific wellbore junction; and latching the latch dogs in the latch opening of the specific wellbore junction; wherein the deflector assembly comprises a deflector tube with the plurality of spring-loaded latch dogs circumferentially disposed on the deflector tube in a rotationally asymmetrical pattern; each wellbore junction has a plurality of latch openings in an alignment sleeve of the tubular structure, and the pattern of the latch dogs matches a corresponding asymmetrical pattern of the latch openings at the specific wellbore junction; and the method comprises orienting the deflector tube and the plurality of spring-loaded latch dogs with the plurality of latch openings at the specific junction by moving the orienting member along a profile of the tubular structure; latching the plurality of latch dogs in the plurality of latch openings at the specific junction, and applying a pull force to the deflector assembly to determine whether the plurality of spring-loaded latch dogs has properly latched in the plurality of latch openings at the specific wellbore junction.
A method for forming a stacked switches system, comprising: providing multiple stack member devices; dividing the multiple stack member devices into more than two stack groups (210, 220, 230), wherein the number of the stack groups (210, 220, 230) is less than a number of the stack member devices; connecting the stack member devices of a same stack group (210, 220, 230) via a first stack link, whereby each stack member of a stack group is connected to each stack member of the same stack group, the first stack link connecting stack members in a ring or in a chain; connecting each stack member device with each stack member device in an adjacent stack group (210, 220, 230) via a second stack link; and binding multiple second stack links connected with a respective stack member device in an adjacent stack group (210, 220, 230), so as to form an aggregated stack link group. providing multiple stack member devices; dividing the multiple stack member devices into more than two stack groups (210, 220, 230), wherein the number of the stack groups (210, 220, 230) is less than a number of the stack member devices; connecting the stack member devices of a same stack group (210, 220, 230) via a first stack link, whereby each stack member of a stack group is connected to each stack member of the same stack group, the first stack link connecting stack members in a ring or in a chain; connecting each stack member device with each stack member device in an adjacent stack group (210, 220, 230) via a second stack link; and binding multiple second stack links connected with a respective stack member device in an adjacent stack group (210, 220, 230), so as to form an aggregated stack link group.
A receiver for demodulating an analogue frequency modulated multiplex signal comprising a stereo sum signal; a stereo difference signal; and a pilot signal, said receiver comprising: a pilot signal analyzer configured to generate a pilot signal quality indicator based on a quality of the pilot signal; a further signal analyzer configured to generate a further signal quality indicator; an indicator combiner configured to generate a combined quality indicator based on the pilot signal quality indicator and the further signal quality indicator; and a signal processing unit configured to output a demodulated signal based on the combined quality indicator. a pilot signal analyzer configured to generate a pilot signal quality indicator based on a quality of the pilot signal; a further signal analyzer configured to generate a further signal quality indicator; an indicator combiner configured to generate a combined quality indicator based on the pilot signal quality indicator and the further signal quality indicator; and a signal processing unit configured to output a demodulated signal based on the combined quality indicator.
A lighting system comprising: light sources configured to provide light and grouped into different groups arranged to provide light effects for different areas in a space; and a controller configured to: assign one or more of the light sources or groups of light sources to be focus light sources in a focus group based on a user selection, and assign the remaining light sources to be surrounding light sources in a surrounding group, wherein the focus light sources are for providing main light for an activity in the space and the surrounding light sources are for providing background light; wherein the focus light sources have individual focus intensity levels related to each other according to a first relationship, and the surrounding light sources have individual surrounding intensity levels related to each other according to a second relationship; and change a light output ratio of the focus group to the surrounding group without changing the first relationship and the second relationship. light sources configured to provide light and grouped into different groups arranged to provide light effects for different areas in a space; and a controller configured to: assign one or more of the light sources or groups of light sources to be focus light sources in a focus group based on a user selection, and assign the remaining light sources to be surrounding light sources in a surrounding group, wherein the focus light sources are for providing main light for an activity in the space and the surrounding light sources are for providing background light; wherein the focus light sources have individual focus intensity levels related to each other according to a first relationship, and the surrounding light sources have individual surrounding intensity levels related to each other according to a second relationship; and change a light output ratio of the focus group to the surrounding group without changing the first relationship and the second relationship. assign one or more of the light sources or groups of light sources to be focus light sources in a focus group based on a user selection, and assign the remaining light sources to be surrounding light sources in a surrounding group, wherein the focus light sources are for providing main light for an activity in the space and the surrounding light sources are for providing background light; wherein the focus light sources have individual focus intensity levels related to each other according to a first relationship, and the surrounding light sources have individual surrounding intensity levels related to each other according to a second relationship; and change a light output ratio of the focus group to the surrounding group without changing the first relationship and the second relationship.
A telescopic compression device for flat bed die-cutting, stripping and part separating machines comprising a socket, at least one guide element (14, 15) which is slidably guided in the socket and an elastic bias means which biases the at least one guide element (14, 15) towards a furthest extended position characterized in that an elastic security element which has an inherent stiffness secures the at least one guide element (14, 15) to the socket.
A drawer having a sidewall, a decorative element arranged at least partially above the sidewall, a first holding device for fixing the decorative element on a first front-sided end of the drawer, a second holding device for fixing the decorative element on a second front-sided end of the drawer, the first holding device including a spring element, wherein by applying a force against the spring element, the decorative element can be brought and pivoted into the plane of the sidewall, and wherein by the second holding device, the decorative element can be arrested in a force-locking and/or in a form-locking manner, and with a railing strut, the second holding device including a holding portion between the sidewall and the decorative element and a separate holding portion between the decorative element and the railing strut, wherein the first holding device is configured as a chamber in which the spring element is arranged, characterized in that the chamber and the spring element have an integral one-piece configuration.
An operation device comprising: a supporting member; a movably operated member supported by the supporting member in such a manner as to be movable in both an X direction and a Y direction that are orthogonal to each other; and detecting members (18x, 18y) that detect the movement of the movably operated member in the X direction and in the Y direction, respectively, characterized in that the movably operated member has a projection, wherein one of the projection and the supporting member has a guide recess extending in the X direction and in the Y direction while another of the projection and the supporting member has a pin that moves in the guide recess, wherein the projection has a pair of sides each extending obliquely with respect to the X direction and to the Y direction, and wherein the pin is provided between the pair of sides. a supporting member; a movably operated member supported by the supporting member in such a manner as to be movable in both an X direction and a Y direction that are orthogonal to each other; and detecting members (18x, 18y) that detect the movement of the movably operated member in the X direction and in the Y direction, respectively, characterized in that the movably operated member has a projection, wherein one of the projection and the supporting member has a guide recess extending in the X direction and in the Y direction while another of the projection and the supporting member has a pin that moves in the guide recess, wherein the projection has a pair of sides each extending obliquely with respect to the X direction and to the Y direction, and wherein the pin is provided between the pair of sides.
A method for preparing a waterborne heat seal coating composition, comprising: melt blending an ethylene vinyl acetate copolymer, a tackifier, and a wax in a first mixing apparatus to form a melt blend; contacting the melt blend with an initial aqueous stream comprising a neutralizing agent, water, and a surfactant in an emulsification zone of the second mixing apparatus to form a dispersion; and diluting the dispersion with water in a dilution zone of the second mixing apparatus to form the waterborne heat seal coating composition. melt blending an ethylene vinyl acetate copolymer, a tackifier, and a wax in a first mixing apparatus to form a melt blend; contacting the melt blend with an initial aqueous stream comprising a neutralizing agent, water, and a surfactant in an emulsification zone of the second mixing apparatus to form a dispersion; and diluting the dispersion with water in a dilution zone of the second mixing apparatus to form the waterborne heat seal coating composition.
A multi-engine aircraft, comprising: first and second gas turbine engines (10', 10") for providing motive power to the aircraft, each of the first and second engines comprising an air system (27, 29); an air pressure line extending between and fluidly connecting the air systems (27, 29) of the first and second engines (10', 10"); and, characterised by a pressure wave damper communicating with the air pressure line extending between the first and second engines (10', 10"), and one or more pressure wave dampers communicating with one or more air pressure lines that are part of the air systems (27, 29) of the first and second engines (10', 10"), each of the one or more pressure wave dampers being disposed at a location corresponding to a pressure wave maximum of each air pressure line of the one or more air pressure lines corresponding to that pressure wave damper. first and second gas turbine engines (10', 10") for providing motive power to the aircraft, each of the first and second engines comprising an air system (27, 29); an air pressure line extending between and fluidly connecting the air systems (27, 29) of the first and second engines (10', 10"); and, characterised by a pressure wave damper communicating with the air pressure line extending between the first and second engines (10', 10"), and one or more pressure wave dampers communicating with one or more air pressure lines that are part of the air systems (27, 29) of the first and second engines (10', 10"), each of the one or more pressure wave dampers being disposed at a location corresponding to a pressure wave maximum of each air pressure line of the one or more air pressure lines corresponding to that pressure wave damper.