mhurhangee/ep-ind-claims huggingface dataset:
Trailer coupling having a ball support, a coupling ball which is arranged at a free end of the ball support, a coupling ball receptacle which is placed onto the coupling ball and is mounted rotatably on the coupling ball, a closure piece which is provided on the coupling ball receptacle and by means of which the coupling ball receptacle is secured against lifting up from the coupling ball, and an angle detection apparatus which comprises sensors which are provided on the coupling ball, by means of which angle detection apparatus a rotation of the coupling ball receptacle relative to the coupling ball about a rotational axis can be detected, characterized in that the closure piece is delimited by way of side edges (16, 17) in a circumferential direction in relation to the rotational axis, in each case one clearance (18, 19) being provided in the region of the side edges (16, 17), the position of which clearance (18, 19) can be detected by means of the sensors, and it therefore being possible for the position of the closure piece relative to the coupling ball to be detected.
Method for controlling a compressed-air braking device of a rail vehicle, said compressed-air braking device having a regulated electro-pneumatic braking device with brake pressure regulation and an unregulated brake pressure control device for generating an unregulated brake pressure as well as at least one pneumatic brake actuator, in the case of automatic, rapid or emergency braking in response to a signal to trigger automatic, rapid or emergency braking, a) the regulated electro-pneumatic braking device and the unregulated brake pressure control device are activated simultaneously, characterised in that b) a first value for the brake pressure generated by the regulated, electro-pneumatic braking device or a first value for a pilot-controlled pressure representing this brake pressure and a second value for the brake pressure generated by the unregulated brake pressure control device or a second value for a pilot-controlled pressure representing this brake pressure are compared with one another, wherein this comparison is carried out by applying the first value and the second value to mechanical components of an exclusively pneumatic-mechanical comparison device, and c) in dependence upon this comparison a brake pressure is applied on the basis of exclusively the first value or exclusively on the basis of the second value or on the basis of the first value and the second value to the at least one pneumatic brake actuator. a) the regulated electro-pneumatic braking device and the unregulated brake pressure control device are activated simultaneously, characterised in that b) a first value for the brake pressure generated by the regulated, electro-pneumatic braking device or a first value for a pilot-controlled pressure representing this brake pressure and a second value for the brake pressure generated by the unregulated brake pressure control device or a second value for a pilot-controlled pressure representing this brake pressure are compared with one another, wherein this comparison is carried out by applying the first value and the second value to mechanical components of an exclusively pneumatic-mechanical comparison device, and c) in dependence upon this comparison a brake pressure is applied on the basis of exclusively the first value or exclusively on the basis of the second value or on the basis of the first value and the second value to the at least one pneumatic brake actuator.
A method of generating a media file, the method comprising: generating a time-track map comprising a plurality of map nodes that are distinguished according to track and unit time; and generating media objects corresponding to each of the map nodes, generating the media file comprising the time-track map and the media objects, wherein each of the map nodes includes position information within the media file of the corresponding media objects, and wherein a plurality of map nodes of the time-track map are distinguished according to a horizontal direction and a vertical direction of the time-track map in a two-dimensional structure. generating a time-track map comprising a plurality of map nodes that are distinguished according to track and unit time; and generating media objects corresponding to each of the map nodes, generating the media file comprising the time-track map and the media objects, wherein each of the map nodes includes position information within the media file of the corresponding media objects, and wherein a plurality of map nodes of the time-track map are distinguished according to a horizontal direction and a vertical direction of the time-track map in a two-dimensional structure.
Adjusting device for a motor vehicle component, in particular a vehicle seat, wherein the adjusting device has a brake housing and an actuating rotational axis, wherein the brake housing is formed by a housing element extending essentially plate-shaped in a radial direction from the actuating rotational axis, wherein rolling elements are installed in the interior of the plate-shaped housing element, characterised in that the brake housing is formed in at least one axial direction of the actuating rotational axis by means of a flange, wherein the flange and the housing element are connected together to form the brake housing by means of screwing, riveting or snap-fitting, wherein the housing element has at least one functional surface inclined by an inclination angle relative to the side surfaces, wherein the at least one functional surface has a precision-stamped functional surface.
A plant cultivation lamp, comprising: a light irradiation unit that includes one or more red light emitting elements that emit red light and one or more blue light emitting elements that emit blue light; and a control unit that controls the light irradiation unit to independently turn on and off the red light emitting elements and the blue light emitting elements so as to alternately perform red light irradiation for between 3 hours and 48 hours and blue light irradiation for between 3 hours and 48 hours in a continuous manner. a light irradiation unit that includes one or more red light emitting elements that emit red light and one or more blue light emitting elements that emit blue light; and a control unit that controls the light irradiation unit to independently turn on and off the red light emitting elements and the blue light emitting elements so as to alternately perform red light irradiation for between 3 hours and 48 hours and blue light irradiation for between 3 hours and 48 hours in a continuous manner.
A method for fabricating a sensor, comprising: - forming a linker layer including linkers over a substrate, or forming dielectric material particle supporters over a substrate and bonding linkers to the dielectric material particle supporters; - bonding metal ions to the linkers; - forming metallic nanoparticles by growing the metal ions bonded to the linkers; and - bonding receptors to a surface of the metallic nanoparticles, wherein the metal ions are grown by application of energy, an organic surfactant being supplied before or during the application of the energy, wherein the energy is for example at least one selected from a group comprising heat energy, chemical energy, light energy, vibration energy, ion beam energy, electron beam energy, and radiation energy. - forming a linker layer including linkers over a substrate, or forming dielectric material particle supporters over a substrate and bonding linkers to the dielectric material particle supporters; - bonding metal ions to the linkers; - forming metallic nanoparticles by growing the metal ions bonded to the linkers; and - bonding receptors to a surface of the metallic nanoparticles,
A sealing collar adapted for being mounted around a window frame mounted in an inclined roof of a building, said sealing collar comprising an inner portion and an outer skirt portion, said inner portion having top, bottom and side members (17, 18), where said inner portion has an inner edge and an outer edge opposite the inner edge, where said inner edge defines an opening when the sealing collar is in the mounted condition, where said inner portion is adapted for surrounding a window frame by the inner edge, where the top, bottom and side members of the inner portion are made from a substantially dimensionally stable material, where shape and size of the opening substantially matches the shape and size of the window frame, when the sealing collar is in the mounted condition, where the outer skirt portion is mounted at the outer edge of the inner portion, and where the sealing collar further comprises a stabilizing portion with outer dimensions substantially matching the shape and size of the opening, where the stabilizing portion is arranged at the inner edge of the inner portion, where the stabilizing portion is attached to the inner edge of the inner portion at a plurality of points, such that the inner portion and the stabilizing portion are made as a single entity, where a part of the material is perforated to form a roof cutting indication and the unperforated material forms the plurality of points, whereby the inner portion is urged to maintain its desired dimensions in the mounted condition, characterized in that said outer skirt portion is configured for being provided in a rolled up delivery condition in which it is maintained by fastening means. said inner portion having top, bottom and side members (17, 18), where said inner portion has an inner edge and an outer edge opposite the inner edge, where said inner edge defines an opening when the sealing collar is in the mounted condition, where said inner portion is adapted for surrounding a window frame by the inner edge, where the top, bottom and side members of the inner portion are made from a substantially dimensionally stable material, where shape and size of the opening substantially matches the shape and size of the window frame, when the sealing collar is in the mounted condition, where the outer skirt portion is mounted at the outer edge of the inner portion, and where the sealing collar further comprises a stabilizing portion with outer dimensions substantially matching the shape and size of the opening, where the stabilizing portion is arranged at the inner edge of the inner portion, where the stabilizing portion is attached to the inner edge of the inner portion at a plurality of points, such that the inner portion and the stabilizing portion are made as a single entity, where a part of the material is perforated to form a roof cutting indication and the unperforated material forms the plurality of points, whereby the inner portion is urged to maintain its desired dimensions in the mounted condition, characterized in that said outer skirt portion is configured for being provided in a rolled up delivery condition in which it is maintained by fastening means.
An electrochemical manufacturing apparatus, comprising: an electrode holder or shaft; a workpiece (50, 52) having an axis; and at least one electrode (20, 58) configured to move relative to the workpiece (50, 52), wherein said electrode (20, 58) has multiple lobes formed by the electrode (20, 58) having an undulating closed shaped cross section in a plane perpendicular to the axis, wherein lines connecting the radius maxima substantially along the individual lobe are skewed or parallel with respect to the axis; the electrochemical manufacturing apparatus being characterized by the at least one electrode (20, 58) being hollow; hollow supports (18, 56) supporting said electrode (20, 58), said supports (18, 58) being fixed to said holder or shaft; a power system for said electrode (20, 58); and an electrolyte delivery system delivering electrolyte adjacent to said electrode (20, 58), wherein an electrolyte path is provided from the electrode holder or shaft through the at least one hollow support (18, 56) into the electrode (20, 58). an electrode holder or shaft; a workpiece (50, 52) having an axis; and at least one electrode (20, 58) configured to move relative to the workpiece (50, 52), wherein said electrode (20, 58) has multiple lobes formed by the electrode (20, 58) having an undulating closed shaped cross section in a plane perpendicular to the axis, wherein lines connecting the radius maxima substantially along the individual lobe are skewed or parallel with respect to the axis; the electrochemical manufacturing apparatus being characterized by the at least one electrode (20, 58) being hollow; hollow supports (18, 56) supporting said electrode (20, 58), said supports (18, 58) being fixed to said holder or shaft; a power system for said electrode (20, 58); and an electrolyte delivery system delivering electrolyte adjacent to said electrode (20, 58), wherein an electrolyte path is provided from the electrode holder or shaft through the at least one hollow support (18, 56) into the electrode (20, 58).
A method for selectively manufacturing a radioisotope, the method comprising: selecting the radioisotope; identifying a target material from which the selected radioisotope can be created as a fission product; determining a recoil distance of the selected radioisotope in the target material; creating a plurality of grains of target material having a grain size based on the recoil distance of the selected radioisotope; exposing the grains of target material to neutrons, thereby causing at least some atoms of the target material to undergo nuclear fission to create atoms of the selected radioisotope and also causing at least some of the newly created atoms of the selected radioisotope to move the recoil distance relative to the target material; and extracting atoms of the selected radioisotope from the target material. selecting the radioisotope; identifying a target material from which the selected radioisotope can be created as a fission product; determining a recoil distance of the selected radioisotope in the target material; creating a plurality of grains of target material having a grain size based on the recoil distance of the selected radioisotope; exposing the grains of target material to neutrons, thereby causing at least some atoms of the target material to undergo nuclear fission to create atoms of the selected radioisotope and also causing at least some of the newly created atoms of the selected radioisotope to move the recoil distance relative to the target material; and extracting atoms of the selected radioisotope from the target material.
An unbonded flexible pipe having a length along a longitudinal axis, a first pipe end, a second pipe end, and comprising a plurality of whole length layers (1, 2, 3, 4, 5, 6, 12, 14, 15, 16) extending from the first pipe end to the second pipe end, the plurality of whole length layers comprising at least a tubular inner sealing sheath (2, 12), at least one armour layer (3,4, 5), and an outer protective layer (6, 16), the unbonded flexible pipe further comprising at least one thermally insulating layer arranged between the internal sealing sheath (2, 12) and the outer protective layer (6, 16) in an insulated length section, the flexible pipe comprising an inner part comprising at least the internal sealing sheath (2, 12) and any other whole length layers being internal to the thermally insulating layer, the flexible pipe further comprising an outer part comprising at least the outer protective layer (6, 16) and any other whole length layers being external to the thermally insulating layer, wherein the at least one thermally insulating layer is terminated at a distal termination point, the distal termination point being in a distance from at least one of the first and the second pipe end (41a, 41b) of the unbonded flexible pipe, wherein the unbonded flexible pipe comprises a first end fitting at its first pipe end and a second end fitting at its second pipe end, the plurality of whole length layers (1, 2, 3, 4, 5, 6, 12, 14, 15, 16) are fixed to the first and the second end fitting, characterized in that the at least one thermally insulating layer is not directly fixed to the first and/or the second end fitting.
An eyeglass frame shape measurement apparatus for measuring a shape of an eyeglass frame, comprising: a light-projecting optical system configured to irradiate a groove of a rim of the eyeglass frame with a measurement light beam emitted from a light source; and a light-receiving optical system configured to receive a reflected light beam of the measurement light beam reflected on the groove of the rim of the eyeglass frame by a detector, wherein the light-projecting optical system and the light-receiving optical system are configured to be disposed inside the groove of the rim of the eyeglass frame in a radius vector direction, wherein a light-projecting and light-receiving plane formed by a light-projecting optical axis of the light-projecting optical system and a light-receiving optical axis of the light-receiving optical system are configured to be disposed so as to be tilted with respect to a cutting plane parallel or oblique to a depth direction of the groove where the groove of the rim is cut by the measurement light beam, wherein the light source is configured to irradiate the groove of the rim from an inside of the rim with the measurement light beam, and the detector is configured to detect the reflected light beam inside the rim to acquire a cross-sectional shape of the groove of the rim, characterised in that the light-projecting optical axis of the light-projecting optical system is configured to be disposed so as to be tilted with respect to a radius vector plane of the groove of the rim. a light-projecting optical system configured to irradiate a groove of a rim of the eyeglass frame with a measurement light beam emitted from a light source; and a light-receiving optical system configured to receive a reflected light beam of the measurement light beam reflected on the groove of the rim of the eyeglass frame by a detector, wherein the light-projecting optical system and the light-receiving optical system are configured to be disposed inside the groove of the rim of the eyeglass frame in a radius vector direction, wherein a light-projecting and light-receiving plane formed by a light-projecting optical axis of the light-projecting optical system and a light-receiving optical axis of the light-receiving optical system are configured to be disposed so as to be tilted with respect to a cutting plane parallel or oblique to a depth direction of the groove where the groove of the rim is cut by the measurement light beam, wherein the light source is configured to irradiate the groove of the rim from an inside of the rim with the measurement light beam, and the detector is configured to detect the reflected light beam inside the rim to acquire a cross-sectional shape of the groove of the rim, characterised in that the light-projecting optical axis of the light-projecting optical system is configured to be disposed so as to be tilted with respect to a radius vector plane of the groove of the rim.
Method for sucking off dusty suction material, preferably ash and slag, wherein the suction material is sucked by means of a suction flow into a suction pipe and then into a material collection container, wherein the suction material is wetted with water in a moistening section of the suction pipe by at least one spray jet (14.1, 14.2) or a spray mist which is produced by at least one spray nozzle (13.1, 13.2), characterised in that iron chloride or iron sulphate is added to the water as an additive.
Device for trimming products on three sides at the same time in several cutting stations (26, 27, 28) with a joint top knife bridge, which is operatable in a lifting movement, and in which at least knives for trimming the front edge as well as trimming the head and foot (30, 31) of the products are attachable to the top knife bridge, with a first drive driving the top knife bridge as well as with a transport device with pairs of transport belts on the head side (35, 36) and the foot side (37, 38) for transporting the products through the cutting stations (26, 27, 28) of the device, with a second drive (22, 23) driving the transport device, wherein the first and second (22, 23) drive are made as autonomous drives that are independent of each other, which are connected to each other through control units (47, 48, 49, 51), characterised in that the pairs of transport belts on the head side (35, 36) and the foot side (37, 38) of the transport device are driven by autonomous, position controlled drives (22, 23) that are independent of each other.
Panel, in particular a floor panel, ceiling panel or wall panel, having a laminated multi-layer structure which comprises: - a core layer, - a decorative layer above the core layer, - a transparent top layer above the decorative layer, and - an intermediate layer situated between the decorative layer and the top layer, which intermediate layer is transparent, and at least 75 wt.% of the intermediate layer is made from a protective material which comprises a polyurethane composition which is the reaction product of a polyester polyol, a polyether polyol and an isocyanate, and wherein the polyurethane composition is a thermoset polymer material. having a laminated multi-layer structure which comprises: - a core layer, - a decorative layer above the core layer, - a transparent top layer above the decorative layer, and - an intermediate layer situated between the decorative layer and the top layer, - a core layer, - a decorative layer above the core layer, - a transparent top layer above the decorative layer, and - an intermediate layer situated between the decorative layer and the top layer, which intermediate layer is transparent, and at least 75 wt.% of the intermediate layer is made from a protective material which comprises a polyurethane composition which is the reaction product of a polyester polyol, a polyether polyol and an isocyanate, and wherein the polyurethane composition is a thermoset polymer material.