mhurhangee/ep-ind-claims huggingface dataset:
Cleaning nozzle for a cleaning apparatus, wherein the cleaning nozzle comprises - a wipe element, which is designed to wipe over a surface to be cleaned; - a liquid tank, which is designed to receive a cleaning liquid in an interior space of the liquid tank; wherein the liquid tank has a liquid valve on at least one tank wall, which is designed to be in a closed state or in an open state as a function of an internal pressure in the interior space of the liquid tank; wherein the cleaning nozzle is designed such that, in the open state of the liquid valve, cleaning liquid flows out of the liquid tank through the liquid valve onto the surface to be cleaned; characterised in that the cleaning nozzle comprises in addition: - an air pump, which is designed to pump air into the interior space of the liquid tank, in order to increase the interior pressure in the interior space of the liquid tank. - a wipe element, which is designed to wipe over a surface to be cleaned; - a liquid tank, which is designed to receive a cleaning liquid in an interior space of the liquid tank; wherein the liquid tank has a liquid valve on at least one tank wall, which is designed to be in a closed state or in an open state as a function of an internal pressure in the interior space of the liquid tank; wherein the cleaning nozzle is designed such that, in the open state of the liquid valve, cleaning liquid flows out of the liquid tank through the liquid valve onto the surface to be cleaned; characterised in that the cleaning nozzle comprises in addition: - an air pump, which is designed to pump air into the interior space of the liquid tank, in order to increase the interior pressure in the interior space of the liquid tank.
A system (210; 310; 420) for visualizing a tissue treatment, comprising: a tissue treatment instrument (212; 430) having a first electromagnetic energy sensor; an ultrasound imaging instrument (228, 230; 434, 436) configured to generate an ultrasound imaging plane, wherein the ultrasound imaging instrument (228, 230; 434, 436) has a second electromagnetic energy sensor; an electromagnetic field generator (440, 442) configured for placement in proximity to a patient body and configured to generate an electromagnetic field that interacts with the first and second electromagnetic energy sensors; and a console in communication with the first and second electromagnetic energy sensors and with the electromagnetic field generator (440, 442), wherein the console is configured to generate a representative image of the tissue treatment instrument (212; 430) oriented relative to the ultrasound imaging plane based upon calculating a position and orientation of the first and second electromagnetic energy sensors relative to one another within the electromagnetic field; characterized in that the tissue treatment instrument (212; 430) has one or more deployable stylets, and the console is also configured to generate an image of an expected ablation border or expected treatment zone having a size that is based upon a deployment length of the one or more stylets. a tissue treatment instrument (212; 430) having a first electromagnetic energy sensor; an ultrasound imaging instrument (228, 230; 434, 436) configured to generate an ultrasound imaging plane, wherein the ultrasound imaging instrument (228, 230; 434, 436) has a second electromagnetic energy sensor; an electromagnetic field generator (440, 442) configured for placement in proximity to a patient body and configured to generate an electromagnetic field that interacts with the first and second electromagnetic energy sensors; and a console in communication with the first and second electromagnetic energy sensors and with the electromagnetic field generator (440, 442), wherein the console is configured to generate a representative image of the tissue treatment instrument (212; 430) oriented relative to the ultrasound imaging plane based upon calculating a position and orientation of the first and second electromagnetic energy sensors relative to one another within the electromagnetic field; characterized in that the tissue treatment instrument (212; 430) has one or more deployable stylets, and the console is also configured to generate an image of an expected ablation border or expected treatment zone having a size that is based upon a deployment length of the one or more stylets.
Heating device for the conversion of a material, comprising: - a lower mold body, or matrix, made of an electrically conductive material and comprising a molding zone of magnetic material intended to be in contact with the material to be processed; - an upper body devoid of molding zone, made of an electrically conductive non-magnetic material of low electrical resistivity; - inductor means for generating a magnetic field enveloping the matrix and the upper body; - deformable means of pressure (42, 46) placed between the matrix and the upper body able to exert a uniform pressure on the material to be transformed, to press it against the molding zone - characterized in that it comprises spacers electrically insulating and transparent to the magnetic field, placed between the matrix and the upper body so as to provide an air gap between the faces of said matrix and said upper body, said air gap being maintained during heating and processing of the material to be transformed, the magnetic field flowing in the air gap induces currents on the surface of the molding zone of the matrix, thereby allowing localization of the inductors' action at the interface between the molding zone and the material to process. - a lower mold body, or matrix, made of an electrically conductive material and comprising a molding zone of magnetic material intended to be in contact with the material to be processed; - an upper body devoid of molding zone, made of an electrically conductive non-magnetic material of low electrical resistivity; - inductor means for generating a magnetic field enveloping the matrix and the upper body; - deformable means of pressure (42, 46) placed between the matrix and the upper body able to exert a uniform pressure on the material to be transformed, to press it against the molding zone - characterized in that it comprises spacers electrically insulating and transparent to the magnetic field, placed between the matrix and the upper body so as to provide an air gap between the faces of said matrix and said upper body, said air gap being maintained during heating and processing of the material to be transformed, the magnetic field flowing in the air gap induces currents on the surface of the molding zone of the matrix, thereby allowing localization of the inductors' action at the interface between the molding zone and the material to process.
A woven textile comprising: a warp strand extending in a first direction and including a first yarn and a second yarn twisted with the first yarn, the first yarn comprising a plurality of substantially aligned filaments, at least ninety-five percent of a material of the filaments being a thermoplastic polymer material; and a weft strand extending in a second direction that is substantially perpendicular to the first direction, wherein the warp strand and the weft strand are thermal bonded to each other. a warp strand extending in a first direction and including a first yarn and a second yarn twisted with the first yarn, the first yarn comprising a plurality of substantially aligned filaments, at least ninety-five percent of a material of the filaments being a thermoplastic polymer material; and a weft strand extending in a second direction that is substantially perpendicular to the first direction, wherein the warp strand and the weft strand are thermal bonded to each other.
A method for fastening a plurality of workpieces (12, 14) by means of a hollow riveting element with an open setting end and a closed closing end, having the following steps: a) passing the riveting element through openings in the workpieces (12, 14) which are flush with one another, b) selecting a high pressure in order to obtain a desired clamping length of the riveting element, c) introducing a fluid, especially air, at the high pressure from the setting end of the riveting element into a cavity of the riveting element, d) plastically deforming and setting the riveting element by the fluid at the closed closing end of the riveting element, characterised by e) renewed introduction of a fluid at a higher pressure than in method step c) into the cavity of the riveting element, in order to tighten the connection of the workpieces (12, 14). a) passing the riveting element through openings in the workpieces (12, 14) which are flush with one another, b) selecting a high pressure in order to obtain a desired clamping length of the riveting element, c) introducing a fluid, especially air, at the high pressure from the setting end of the riveting element into a cavity of the riveting element, d) plastically deforming and setting the riveting element by the fluid at the closed closing end of the riveting element, characterised by e) renewed introduction of a fluid at a higher pressure than in method step c) into the cavity of the riveting element, in order to tighten the connection of the workpieces (12, 14).
An antimicrobial cleansing composition comprising from: (i) 0.1 to 30% by weight of a synthetic anionic surfactant; (ii) 0.1 to 3.0% by weight of zinc pyrithione; and (iii) 0.01 to 2.0% by weight of thymol, wherein said composition is an anti-dandruff hair care composition; wherein the composition comprises less than 20 weight % salt of fatty acid. (i) 0.1 to 30% by weight of a synthetic anionic surfactant; (ii) 0.1 to 3.0% by weight of zinc pyrithione; and (iii) 0.01 to 2.0% by weight of thymol, wherein said composition is an anti-dandruff hair care composition; wherein the composition comprises less than 20 weight % salt of fatty acid.
A socket system for electronic devices, said socket system comprising: a first socket mountable on a substrate, said first socket including a first opening therein to receive a first chip module; a second socket stackable on said first socket, said second socket comprising a second opening therein to receive a second chip module and a radio frequency shield; a first set of embedded contacts in said first socket to electrically connect said first chip module to said substrate; a second set of embedded contacts in said first socket to electrically connect said second socket to said substrate; a third set of embedded contacts in said second socket to electrically connect said second chip module to said substrate, characterized in that said radio frequency shield of said second socket extends across the second opening and forms a bottom surface of said second socket that encloses the first chip module within the first opening to isolate said second chip module from radio frequency emissions from said first chip module; and said first socket further includes a frame surrounding said first opening and a series of first projections that extend from said frame into said first opening for mating with complementary projections on said first chip module, wherein said first set of contacts are disposed on one or more side surfaces of said first series of projections to extend into said first opening a first socket mountable on a substrate, said first socket including a first opening therein to receive a first chip module; a second socket stackable on said first socket, said second socket comprising a second opening therein to receive a second chip module and a radio frequency shield; a first set of embedded contacts in said first socket to electrically connect said first chip module to said substrate; a second set of embedded contacts in said first socket to electrically connect said second socket to said substrate; a third set of embedded contacts in said second socket to electrically connect said second chip module to said substrate, characterized in that said radio frequency shield of said second socket extends across the second opening and forms a bottom surface of said second socket that encloses the first chip module within the first opening to isolate said second chip module from radio frequency emissions from said first chip module; and said first socket further includes a frame surrounding said first opening and a series of first projections that extend from said frame into said first opening for mating with complementary projections on said first chip module, wherein said first set of contacts are disposed on one or more side surfaces of said first series of projections to extend into said first opening
A hopper type bird feeder comprising: a base having first and second ends and first and second sides; first and second end walls (12, 14) located proximate said first and second ends of said base; first and second side walls (16, 18) set inwardly of said first and second sides of said base to thereby define a feed access area on said base between said first and second sides and said first and second end walls (12, 14), said first and second side walls (16, 18) having at least a portion thereof spaced upwardly from said base; a feed cavity defined by said base and said first and second end walls (12, 14) and said first and second side walls (16, 18); and a seed guard extending over said feed access area, said seed guard having at least a portion thereof spaced from said base, said seed guard having apertures formed therein characterised in that a structural bar extending between upper portions of said end walls (12, 14), said structural bar comprising at each end an end structure passing through generally elliptical shaped apertures provided in the central planar portion of said end walls (12, 14) and being rotatable mounted within said apertures in said end walls (12, 14) to move from an unlocked position to a locked position wherein said side walls (16, 18) are engageable in slots formed on the interior facing surface of the end walls (12, 14). a base having first and second ends and first and second sides; first and second end walls (12, 14) located proximate said first and second ends of said base; first and second side walls (16, 18) set inwardly of said first and second sides of said base to thereby define a feed access area on said base between said first and second sides and said first and second end walls (12, 14), said first and second side walls (16, 18) having at least a portion thereof spaced upwardly from said base; a feed cavity defined by said base and said first and second end walls (12, 14) and said first and second side walls (16, 18); and a seed guard extending over said feed access area, said seed guard having at least a portion thereof spaced from said base, said seed guard having apertures formed therein characterised in that a structural bar extending between upper portions of said end walls (12, 14), said structural bar comprising at each end an end structure passing through generally elliptical shaped apertures provided in the central planar portion of said end walls (12, 14) and being rotatable mounted within said apertures in said end walls (12, 14) to move from an unlocked position to a locked position wherein said side walls (16, 18) are engageable in slots formed on the interior facing surface of the end walls (12, 14).
A system for depositing material onto a workpiece, characterized in that said system comprises: a rod of metallic deposition material; means for exerting pressure at one end of said rod to move said metallic deposition material into a deposition zone; means for rotating said rod while said pressure is being exerted to generate frictional heat when said rod contacts a surface of said workpiece; and means for raising the temperature of said metallic deposition material. a rod of metallic deposition material; means for exerting pressure at one end of said rod to move said metallic deposition material into a deposition zone; means for rotating said rod while said pressure is being exerted to generate frictional heat when said rod contacts a surface of said workpiece; and means for raising the temperature of said metallic deposition material.
A closure device, comprising a first closure part which includes a base body and at least one closure element rotatably arranged on the base body about an axis of rotation, wherein the at least one closure element includes a base body and at least one first locking portion (222, 22A, 222A, 223, 223A, 223B) arranged on the base body, and at least one second closure part, which includes a base element and at least one second locking portion (302, 303) arranged on the base element, wherein the first closure part and the least one second closure part can be placed against each other along a placement direction, wherein the first closure part and the at least one second closure part are placed against each other in a closed position such that the at least one first locking portion (222, 222A, 222B, 223, 223A, 223B) of the at least one closure element and the at least one second locking portion (302, 303) of the at least one second closure part are in engagement with each other, and wherein for releasing the first closure part and the at least one second closure part from each other, the at least one first locking portion (222, 222A, 222B, 223, 223A, 223B) of the at least one closure element and the at least one second locking portion (302, 303) of the at least one second closure part can be brought out of engagement with each other by rotating the at least one closure element relative to the base body of the first closure part, characterized by an actuating element adjustably arranged on the base body, which is operatively connected to the at least one closure element in such a way that by displacing the actuating element relative to the base body, the at least one closure element is rotatable relative to the base body. a first closure part which includes a base body and at least one closure element rotatably arranged on the base body about an axis of rotation, wherein the at least one closure element includes a base body and at least one first locking portion (222, 22A, 222A, 223, 223A, 223B) arranged on the base body, and at least one second closure part, which includes a base element and at least one second locking portion (302, 303) arranged on the base element, wherein the first closure part and the least one second closure part can be placed against each other along a placement direction, wherein the first closure part and the at least one second closure part are placed against each other in a closed position such that the at least one first locking portion (222, 222A, 222B, 223, 223A, 223B) of the at least one closure element and the at least one second locking portion (302, 303) of the at least one second closure part are in engagement with each other, and wherein for releasing the first closure part and the at least one second closure part from each other, the at least one first locking portion (222, 222A, 222B, 223, 223A, 223B) of the at least one closure element and the at least one second locking portion (302, 303) of the at least one second closure part can be brought out of engagement with each other by rotating the at least one closure element relative to the base body of the first closure part,
A tightening device that tightens a nut on a screw section of a bolt inserted into a fastening target object, the nut tightening the fastening target object along with a head section of the bolt with tensile force acting on a portion of the screw section that is a portion closer to a front end of the screw section than the nut in such a way that a magnitude of tightening force acting on the fastening target object is equal to a magnitude of the tensile force, the tightening device comprising: a drive socket that has a tubular shape and holds the nut at an opening in a lower end of the drive socket; a nut holder that has a bottomed tubular shape, is disposed inside the drive socket, and has a bottom section through which the bolt passes and which restricts movement of the nut held by the drive socket toward the front end of the screw section; a tension rod that is disposed inside the nut holder and has a lower end surface having a screw hole with which the portion of the screw section closer to the front end thereof than the nut engages; a sensor for detecting the tensile force; a first motor for rotating the tension rod around an axis thereof extending in an upward/downward direction; and a second motor for rotating the drive socket around the axis. a drive socket that has a tubular shape and holds the nut at an opening in a lower end of the drive socket; a nut holder that has a bottomed tubular shape, is disposed inside the drive socket, and has a bottom section through which the bolt passes and which restricts movement of the nut held by the drive socket toward the front end of the screw section; a tension rod that is disposed inside the nut holder and has a lower end surface having a screw hole with which the portion of the screw section closer to the front end thereof than the nut engages; a sensor for detecting the tensile force; a first motor for rotating the tension rod around an axis thereof extending in an upward/downward direction; and a second motor for rotating the drive socket around the axis.
Composite thermal insulation system, comprising at least one thermal insulation material layer, at least one base plaster layer applied to the thermal insulation material layer, at least one reinforcement layer embedded in or applied to the base plaster layer, and at least one finishing coating which completes the composite thermal insulation system to the outside, characterized in that the reinforcement layer has at least one protruding part and/or one engagement point for enabling the reinforcement layer, by means of a transmission of force to the protruding part and/or to the engagement point, to be detached, together with the plaster layers (3, 5) surrounding the reinforcement layer, from the thermal insulation material layer fastened to an underlying surface.