mhurhangee/ep-ind-claims huggingface dataset:
A mixing device for the mixing of mixing material, having a container for accommodating the mixing material, with an opening and a mixer lid, which can be positioned over the opening, a guide being provided for positioning the mixer lid over the opening, and the mixer lid having centring means in order to centre the mixer lid on the container, characterized in that the mixer lid is mounted on the guide in a floating manner, so that the mixer lid can move within a predetermined movement range transversely to the guide, and in that the centring means comprise at least three centring units, which are distributed around a vertical axis of the container and in each case have an engagement section, which is constructed to rest on the container outer wall, wherein the centring unit can be moved relatively to the mixer lid in the vertical direction. a guide being provided for positioning the mixer lid over the opening, and the mixer lid having centring means in order to centre the mixer lid on the container, characterized in that the mixer lid is mounted on the guide in a floating manner, so that the mixer lid can move within a predetermined movement range transversely to the guide, and in that the centring means comprise at least three centring units, which are distributed around a vertical axis of the container and in each case have an engagement section, which is constructed to rest on the container outer wall, wherein the centring unit can be moved relatively to the mixer lid in the vertical direction.
LED semiconductor body comprising a number of at least two radiation-generating active layers (2, 3) each having a forward voltage (U LED), wherein - the LED semiconductor body has a first and a second outer contact (12, 9) for an electrical connection, - a first operating voltage (U B) is applicable to the LED semiconductor body by means of the first and second outer contacts (12, 9), - the LED semiconductor body has an inner contact which is arranged between two active layers (2, 3), and - a second operating voltage (U B) is applicable to the LED semiconductor body by means of the first or second outer contact (12, 9) and the inner contact, characterized in that the active layers (2, 3) generate radiation of the same wavelength. - the LED semiconductor body has a first and a second outer contact (12, 9) for an electrical connection, - a first operating voltage (U B) is applicable to the LED semiconductor body by means of the first and second outer contacts (12, 9), - the LED semiconductor body has an inner contact which is arranged between two active layers (2, 3), and - a second operating voltage (U B) is applicable to the LED semiconductor body by means of the first or second outer contact (12, 9) and the inner contact,
A method of executing water jet peening comprising: filling water in an upper cover of a reactor pressure vessel provided with a plurality of tubular members arranged in a rectangular grid-like pattern and restrained horizontal movement by a rectangular lattice-like tube support member; moving a jet nozzle in the axial direction of the tubular member toward an inner surface of the upper cover from the tube support member through a first opening formed by the tube support member; and then, executing water jet peening sequentially to four tubular members facing the first opening and held by the tube support member, by turning the jet nozzle ejecting a water jet. filling water in an upper cover of a reactor pressure vessel provided with a plurality of tubular members arranged in a rectangular grid-like pattern and restrained horizontal movement by a rectangular lattice-like tube support member; moving a jet nozzle in the axial direction of the tubular member toward an inner surface of the upper cover from the tube support member through a first opening formed by the tube support member; and then, executing water jet peening sequentially to four tubular members facing the first opening and held by the tube support member, by turning the jet nozzle ejecting a water jet.
A plant for casting and/or bending a metal strip, particularly a curved casting plant, comprising a carrier frame and a subassembly, which in turn comprises the following: at least two supporting segment carriers which form a part of the carrier frame of the plant; and supporting segments which are connectible with the supporting segment carriers and which each comprise a roller arrangement for guidance of the metal strip, wherein the supporting segment carriers are so constructed that they each carry exactly one of the supporting segments, characterised in that the subassembly comprises at least two supporting segment carriers, which are mutually adjoining in casting direction and which are pivotably interconnected, and a foundation, wherein the supporting segment carriers are respectively fixedly mounted, preferably rotatably, at the foundation. at least two supporting segment carriers which form a part of the carrier frame of the plant; and supporting segments which are connectible with the supporting segment carriers and which each comprise a roller arrangement for guidance of the metal strip, wherein the supporting segment carriers are so constructed that they each carry exactly one of the supporting segments, characterised in that the subassembly comprises at least two supporting segment carriers, which are mutually adjoining in casting direction and which are pivotably interconnected, and a foundation, wherein the supporting segment carriers are respectively fixedly mounted, preferably rotatably, at the foundation.
An ultrasonic probe (100; 300) comprising: a probe housing having a proximal end, a distal end and a longitudinal axis; an ultrasonic transducer array disposed within the distal end of the housing, the ultrasonic transducer array being configured to produce a plurality of ultrasonic waves that form an ultrasonic imaging plane, having a frequency distribution centered at about 20 MHz; a needle guide; a protective sheath; and a needle guide alignment feature being a positive and/or negative feature disposed on a surface of the probe housing, wherein the needle guide alignment feature is configured to secure the needle guide to the probe housing with the protective sheath therebetween by mating with an approximately matching negative and/or positive feature on the needle guide, wherein the needle guide is arranged to guide a needle within the ultrasonic imaging plane when the needle guide is attached to the probe housing and wherein the needle guide alignment feature is configured to maintain alignment of the needle with the ultrasonic imaging plane. a probe housing having a proximal end, a distal end and a longitudinal axis; an ultrasonic transducer array disposed within the distal end of the housing, the ultrasonic transducer array being configured to produce a plurality of ultrasonic waves that form an ultrasonic imaging plane, having a frequency distribution centered at about 20 MHz; a needle guide; a protective sheath; and a needle guide alignment feature being a positive and/or negative feature disposed on a surface of the probe housing, wherein the needle guide alignment feature is configured to secure the needle guide to the probe housing with the protective sheath therebetween by mating with an approximately matching negative and/or positive feature on the needle guide, wherein the needle guide is arranged to guide a needle within the ultrasonic imaging plane when the needle guide is attached to the probe housing and wherein the needle guide alignment feature is configured to maintain alignment of the needle with the ultrasonic imaging plane.
Gauge body for a container for pressurized gas, comprising: - a mounting surface (4 3) for mounting the body to the container; - an inner side (4 1) in contact with the pressurized gas when mounted on the container; - an outer side (4 2) opposite to the inner side (4 1) with regard to the mounting surface (4 3), said outer side (4 2) being outside of the container when the body is mounted on said container; - an electrical lead extending in a gas tight manner through the body from the inner side (4 1) to the outer side (4 2); wherein the electrical lead comprises a metallic rod (12 1), a bushing (12 3) around said rod (12 1), said bushing being mounted in a gas tight manner on the body, and a glass annulus (12 2) between the metallic rod (12 1) and the bushing (12 3), said annulus forming a gas tight barrier between the rod and the bushing; wherein the bushing (12 3) is housed in a bore of the body, said bore forming a passageway between the inner side (4 1) and the outer side (4 2); characterized in that the bushing (12 3) comprises a collar that rests on a shoulder portion of the bore. - a mounting surface (4 3) for mounting the body to the container; - an inner side (4 1) in contact with the pressurized gas when mounted on the container; - an outer side (4 2) opposite to the inner side (4 1) with regard to the mounting surface (4 3), said outer side (4 2) being outside of the container when the body is mounted on said container; - an electrical lead extending in a gas tight manner through the body from the inner side (4 1) to the outer side (4 2); wherein the electrical lead comprises a metallic rod (12 1), a bushing (12 3) around said rod (12 1), said bushing being mounted in a gas tight manner on the body, and a glass annulus (12 2) between the metallic rod (12 1) and the bushing (12 3), said annulus forming a gas tight barrier between the rod and the bushing; wherein the bushing (12 3) is housed in a bore of the body, said bore forming a passageway between the inner side (4 1) and the outer side (4 2); characterized in that the bushing (12 3) comprises a collar that rests on a shoulder portion of the bore.
A balloon catheter, comprising: a) an elongated catheter shaft having a branched distal section with a first and a second branch (617,621) configured for releasably coupling together to form a coupled configuration, an inflation lumen (615,618,622,624), and a joining wire lumen extending at least within the first branch of the branched distal section; b) a first balloon on the first branch with an inflatable interior in fluid communication with the inflation lumen (615,618,622,624), and a second balloon on the second branch with an inflatable interior in fluid communication with the inflation lumen (615,618,622,624); and characterised in c) a polymeric radiopaque distal tip marker surrounding a distal end of the joining wire lumen, located distal to the inflatable interior of the first balloon, and formed of a blend of a polymeric material and radiopaque material. a) an elongated catheter shaft having a branched distal section with a first and a second branch (617,621) configured for releasably coupling together to form a coupled configuration, an inflation lumen (615,618,622,624), and a joining wire lumen extending at least within the first branch of the branched distal section; b) a first balloon on the first branch with an inflatable interior in fluid communication with the inflation lumen (615,618,622,624), and a second balloon on the second branch with an inflatable interior in fluid communication with the inflation lumen (615,618,622,624); and characterised in c) a polymeric radiopaque distal tip marker surrounding a distal end of the joining wire lumen, located distal to the inflatable interior of the first balloon, and formed of a blend of a polymeric material and radiopaque material.
A cut-and-clinch apparatus that is configured to cut and bend protruding parts of two lead wires (La, Lb) of a lead component to be respectively inserted through two of a plurality of through-holes (170a, 170b) formed in a circuit board, the cut-and-clinch apparatus comprising: a pair of movable elements (80a, 80b) that are configured to be used in a case where the respective protruding parts of the two lead wires (La, Lb) are cut and bent and that are configured to be made to approach each other and separate from each other; and a movable element position control section that is configured to control the positions of the pair of movable elements (80a, 80b), on the basis of image data obtained by imaging the pair of movable elements (80a, 80b), wherein the pair of movable elements (80a, 80b) are configured to be made to approach each other and separate from each other by one driving source. a pair of movable elements (80a, 80b) that are configured to be used in a case where the respective protruding parts of the two lead wires (La, Lb) are cut and bent and that are configured to be made to approach each other and separate from each other; and a movable element position control section that is configured to control the positions of the pair of movable elements (80a, 80b), on the basis of image data obtained by imaging the pair of movable elements (80a, 80b), wherein the pair of movable elements (80a, 80b) are configured to be made to approach each other and separate from each other by one driving source.
Utility knife, particularly a box cutter, with a housing displaying an outlet opening and a slide, guided in the housing in sliding fashion in and opposite to a working direction (r), where the slide displays a receptacle with a shallow receiving space for a replaceable, flat blade with a cutting edge, the narrow side of the receiving space displays an opening for at least partial exposure of the cutting edge of the blade, and the slide can, by means of manual introduction of a sliding force through an introduction opening in the housing, be slid back and forth over a working path (a) between a storage position, in which the receiving space is located in the housing, and a working position, in which the opening of the slide at least just projects from the housing through the outlet opening, where the slide can, in order to be fitted with the blade, be slid over a removal path (e) in the working direction (r), beyond the working position and into a removal position, in which the receiving space projects completely from the housing, and the slide is secured to prevent it from being completely slid out of the housing, characterised in that the slide displays a front slide part, seen in the working direction (r), with the receptacle, and a rear slide part, seen in the working direction (r), where the slide parts (10, 11) are arranged in a manner permitting sliding relative to each other over the working path (a), and the rear slide part is fixed in place on the housing in a locking position by means of a lock provided for this purpose, and released from the same in an unlocking position for sliding of the slide into the removal position.
A protective clothing or protective lining against the effect of impacts, blows, gunshots or the like, comprising an inner side facing the person wearing it and an outer side facing away from the object, wherein the outer side comprises at least one layer of a tear-resistant material characterized in that the inner side comprises an elastic, self-supporting, repetitive geometrical structure containing a thermoplastic elastomer or a plastics mixture containing an elastomer, which structure is formed from walls which close off cavities and thereby form air chambers, the structure is covered at the top by the layer of tear-resistant material and forms small air chambers which are aligned with one another and are open on one side, the structure is open at the bottom and exhibits a smooth, tear-resistant plastics film which is only adhered to the structure at a few points and forms a continuous system of air chambers closed off from one another by walls.
A heated silicon deposition reactor system, comprising: a plurality of seed particles; a vessel having an outer wall; an insulation layer facing an inner surface of the outer wall; at least one heater positioned inwardly of the insulation layer; a removable concentric liner positioned inwardly of the at least one heater, the liner having an inner surface which defines a chamber that contains the seed particles; a removable concentric sleeve positioned adjacent to the inner surface of the removable concentric liner; a central inlet nozzle having an upper opening positioned to inject a primary gas comprising a silicon-bearing gas upwardly into the chamber, wherein the central inlet nozzle comprises an inner wall and an outer wall positioned concentrically around the inner wall to channel a flow of the primary gas through a center passageway defined by the inner wall and a flow of a secondary gas through an annular passageway between the inner wall and the outer wall; a plurality of fluidization nozzles, wherein each fluidization nozzle has an outlet opening into the chamber; at least one cooling gas nozzle opening into the chamber below the plurality of fluidization nozzles; and at least one outlet for removing silicon-coated product particles from the vessel. a plurality of seed particles; a vessel having an outer wall; an insulation layer facing an inner surface of the outer wall; at least one heater positioned inwardly of the insulation layer; a removable concentric liner positioned inwardly of the at least one heater, the liner having an inner surface which defines a chamber that contains the seed particles; a removable concentric sleeve positioned adjacent to the inner surface of the removable concentric liner; a central inlet nozzle having an upper opening positioned to inject a primary gas comprising a silicon-bearing gas upwardly into the chamber, wherein the central inlet nozzle comprises an inner wall and an outer wall positioned concentrically around the inner wall to channel a flow of the primary gas through a center passageway defined by the inner wall and a flow of a secondary gas through an annular passageway between the inner wall and the outer wall; a plurality of fluidization nozzles, wherein each fluidization nozzle has an outlet opening into the chamber; at least one cooling gas nozzle opening into the chamber below the plurality of fluidization nozzles; and at least one outlet for removing silicon-coated product particles from the vessel.
A system for detecting an optimal timing for cleaning duty solar panels which include photovoltaic cells configured for generating electricity, the system comprising: a simulation sensor which includes photovoltaic cells identical to the photovoltaic cells of the duty solar panels, wherein the simulation sensor is configured to generate a simulation electrical signal which simulates electricity signal generated by the duty solar panels; a reference sensor which includes photovoltaic cells identical to the photovoltaic cells of the duty solar panels and same area as the simulation sensor, wherein the reference sensor is configured to generate a reference electrical signal which simulates electricity signal generated by the duty solar panels in a clean condition; and protection means configured to selectively expose the reference sensor for a specified period of time, wherein the system is configured to compare the simulation signal and the reference signal when the reference sensor is uncovered and provide an indication that the duty solar panels should be cleaned if a difference between the simulation signal and the reference signal exceeds a predefined level. a simulation sensor which includes photovoltaic cells identical to the photovoltaic cells of the duty solar panels, wherein the simulation sensor is configured to generate a simulation electrical signal which simulates electricity signal generated by the duty solar panels; a reference sensor which includes photovoltaic cells identical to the photovoltaic cells of the duty solar panels and same area as the simulation sensor, wherein the reference sensor is configured to generate a reference electrical signal which simulates electricity signal generated by the duty solar panels in a clean condition; and protection means configured to selectively expose the reference sensor for a specified period of time, wherein the system is configured to compare the simulation signal and the reference signal when the reference sensor is uncovered and provide an indication that the duty solar panels should be cleaned if a difference between the simulation signal and the reference signal exceeds a predefined level.
An optoelectronic component, comprising - an optical waveguide comprising at least one passive and at least one active section (111, 112), wherein - the active section has at least one layer (31, 32) formed from a two-dimensional material, wherein the layer (31, 32) composed of the two-dimensional material is arranged at least partly in a waveguide core of the active section or in a manner at least partly adjoining the waveguide core of the active section, characterized in that the difference in refractive index relative to the same wavelength between a core material forming the waveguide core of the active section and a cladding material forming a waveguide cladding of the active section is greater than the difference in refractive index between a core material forming a waveguide core of the passive section and a cladding material forming a waveguide cladding of the passive section. - an optical waveguide comprising at least one passive and at least one active section (111, 112), wherein - the active section has at least one layer (31, 32) formed from a two-dimensional material, wherein the layer (31, 32) composed of the two-dimensional material is arranged at least partly in a waveguide core of the active section or in a manner at least partly adjoining the waveguide core of the active section,
Device (100; 400; 600; 800) for covering a gap between a door leaf and a door frame, comprising a covering means and a stabilizing means (103; 401; 601; 801), wherein the covering means comprises a windable web material having a first end and a second end, wherein the first end is arranged opposite the second end, wherein the covering means is formed to be fixed with the first end to the door leaf and with the second end to the door frame so that the web material covers a gap between the door leaf and the door frame, wherein a longitudinal axis of the gap runs parallel to a longitudinal axis of the door leaf, wherein the stabilizing means (103; 401; 601; 801) is arranged on the covering means in a stabilizing region, wherein the stabilizing means (103; 401; 601; 801) increases a mechanical stability of the device (100; 400; 600; 800) in the stabilizing region, characterized in that the device is configured such that the mechanical stability with respect to an application of force on a first surface of the device (100; 400; 600; 800) is increased by a multiple more than the mechanical stability with respect to an application of force on a second surface of the device (100; 400; 600; 800), wherein the first surface is directed away from the door frame and the door leaf in the state of the covering means fixed to the door leaf and to the door frame, and wherein the second surface is directed towards the door frame and/or towards the door leaf in the state of the covering means fixed to the door leaf and to the door frame.
A wireless signal apparatus mounted in an elevator landing area of an elevator system and configured to broadcast a corresponding wireless signal to the surroundings, characterized in that the wireless signal apparatus is configured to adjust and configure an elevator calling distance according to a car traveling distance for a corresponding elevator car to travel to a landing where the wireless signal apparatus is located, and the elevator calling distance indicates a distance between a personal mobile terminal that can sense the wireless signal and the wireless signal apparatus when the personal mobile terminal automatically sends an elevator calling request command. characterized in that the wireless signal apparatus is configured to adjust and configure an elevator calling distance according to a car traveling distance for a corresponding elevator car to travel to a landing where the wireless signal apparatus is located, and the elevator calling distance indicates a distance between a personal mobile terminal that can sense the wireless signal and the wireless signal apparatus when the personal mobile terminal automatically sends an elevator calling request command.