mhurhangee/ep-ind-claims huggingface dataset:
Device for detecting the discard state of a high-tensile fiber rope upon use on hoists, in particular on a crane, with a detecting device to detect at least one rope parameter as well as an evaluation unit for evaluating the rope parameter as well as providing a discard signal depending on the evaluation of the rope parameter, characterized in that the detecting device comprises torsional stiffness determination means for determining the torsional stiffness of the rope and in that the evaluation unit provides the discard signal depending on the determined torsional stiffness of the rope.
Closable device comprising a first element and a second element, wherein the first element can be connected to the second element, - wherein the first element has a base and a bolt arranged on the base, the bolt having a shank and a head and the head of the bolt having a greater width than the shank of the bolt, - wherein the second element has a base plate and a body adjacent to the base plate, - wherein a through opening is formed in the base plate, the through opening having an insertion region and a securing region offset relative to the insertion region, the insertion region having a greater width than the head of the bolt so that the head of the bolt can pass through the insertion region and the securing region having a smaller width than the head of the bolt so that the head of the bolt can be held positively on the securing region by the base plate, characterised in that, in the body, the insertion region of the through opening is followed by an insertion channel and the securing region of the through opening is followed by a securing channel, wherein the insertion channel and the securing channel merge together and wherein a width reduction is formed at the transition between the insertion channel and the securing channel and comes to an end at a distance from the base plate so as to prevent the head of the bolt from passing between the securing channel and the insertion channel close to the base plate, while allowing the head of the bolt to pass between the insertion channel and the securing channel further away from the base plate. - wherein the first element has a base and a bolt arranged on the base, the bolt having a shank and a head and the head of the bolt having a greater width than the shank of the bolt, - wherein the second element has a base plate and a body adjacent to the base plate, - wherein a through opening is formed in the base plate, the through opening having an insertion region and a securing region offset relative to the insertion region, the insertion region having a greater width than the head of the bolt so that the head of the bolt can pass through the insertion region and the securing region having a smaller width than the head of the bolt so that the head of the bolt can be held positively on the securing region by the base plate,
A device for disinfecting, sterilizing and/or maintaining medical, in particular dental, instruments, having • a rinsing chamber, • a cover for closing the rinsing chamber, and • a sealing mechanism for providing a seal between the cover and the rinsing chamber during operation, wherein the sealing mechanism has two clamps, which are mounted in a pivotable fashion about an axis aligned perpendicularly with respect to the plane of the cover in order to provide a seal between the cover and the container, characterized in that the clamps have clamping projections or claws which, for the purpose of sealing the cover, grip through recesses situated in an end region of the container. • a rinsing chamber, • a cover for closing the rinsing chamber, and • a sealing mechanism for providing a seal between the cover and the rinsing chamber during operation,
A sheet stacker comprising: a sheet stacking member having an upstream portion in a sheet conveyance direction, the upstream portion being movable in a vertical direction; a biasing force applier configured to bias the sheet stacking member upward; an angle changer configured to change an angle of a sheet stacking face of the sheet stacking member, relative to a surface of a sheet conveyed through a sheet conveying portion between a first angle (α) and a second angle (β); and characterised in that a biasing force change reducer (46, 47) configured to reduce the difference between a biasing force acting on the sheet stacking member when at the first angle (α) and a biasing force acting on the sheet stacking member when at the second angle (β). a sheet stacking member having an upstream portion in a sheet conveyance direction, the upstream portion being movable in a vertical direction; a biasing force applier configured to bias the sheet stacking member upward; an angle changer configured to change an angle of a sheet stacking face of the sheet stacking member, relative to a surface of a sheet conveyed through a sheet conveying portion between a first angle (α) and a second angle (β); and characterised in that a biasing force change reducer (46, 47) configured to reduce the difference between a biasing force acting on the sheet stacking member when at the first angle (α) and a biasing force acting on the sheet stacking member when at the second angle (β).
A method to preserve chip kill functionality comprising: transferring data stored in volatile memory to non-volatile memory (102, 302), wherein the volatile memory comprises multiple volatile memory devices arranged in multiple data lanes, the respective data lanes comprising a respective data path and respective associated volatile memory circuits; wherein each data lane extends across multiple volatile memory devices; and wherein the multiple data lanes comprise multiple data lanes in which data is written in the memory circuits, and a ECC data lane in which ECC information is written in the memory circuits; writing selected lower data bits from a first data lane associated with a first volatile memory device to a first page of the non-volatile memory (102, 302); writing selected upper data bits from a second data lane associated with a second volatile memory device to a second page of the non-volatile memory (102, 302); and writing ECC information from the ECC data lane to a third page of the non-volatile memory (102, 302); and wherein the data of a failed volatile memory device in an individual data lane, as stored in a respective page of the non-volatile memory (102, 302) can be reconstructed through use of the ECC information stored in the third page of the non-volatile memory (102, 302). transferring data stored in volatile memory to non-volatile memory (102, 302), wherein the volatile memory comprises multiple volatile memory devices arranged in multiple data lanes, the respective data lanes comprising a respective data path and respective associated volatile memory circuits; wherein each data lane extends across multiple volatile memory devices; and wherein the multiple data lanes comprise multiple data lanes in which data is written in the memory circuits, and a ECC data lane in which ECC information is written in the memory circuits; writing selected lower data bits from a first data lane associated with a first volatile memory device to a first page of the non-volatile memory (102, 302); writing selected upper data bits from a second data lane associated with a second volatile memory device to a second page of the non-volatile memory (102, 302); and writing ECC information from the ECC data lane to a third page of the non-volatile memory (102, 302); and wherein the data of a failed volatile memory device in an individual data lane, as stored in a respective page of the non-volatile memory (102, 302) can be reconstructed through use of the ECC information stored in the third page of the non-volatile memory (102, 302).
A display device comprising: a substrate including a display area having a plurality of subpixels and a bezel area around the display area; a plurality of insulating layers (116, GI, ILD1, ILD2) sequentially disposed on the display area and the bezel area of the substrate, wherein the plurality of insulating layers (116, GI, ILD1, ILD2) includes a second buffer layer, a gate insulating layer, a first interlayer dielectric layer, and a second interlayer dielectric layer; at least one via hole (VIA1, VIA2) passing through the plurality of insulating layers in the bezel area, wherein the via hole (VIA1, VIA2) passes through the second buffer layer, the gate insulating layer, the first interlayer dielectric layer, and the second interlayer dielectric layer; a passivation layer positioned on the second interlayer dielectric layer, wherein the passivation layer contacts a first buffer layer formed under the plurality of insulating layers through the via hole (VIA1, VIA2); and at least one opening (PAH1, PAH2) passing through the passivation layer on the plurality of insulating layers (116, GI, ILD1, ILD2) in the bezel area, wherein the via hole (VIA1, VIA2) and the at least one opening (PAH1, PAH2) each surround the display area to form a respective closed loop, wherein the at least one via hole (VIA1, VIA2) and the at least one opening (PAH1, PAH2) are configured to suppress propagation of cracks in the bezel area, and wherein the via hole (VIA1, VIA2) is further configured to block moisture penetration through the cracks. a substrate including a display area having a plurality of subpixels and a bezel area around the display area; a plurality of insulating layers (116, GI, ILD1, ILD2) sequentially disposed on the display area and the bezel area of the substrate, wherein the plurality of insulating layers (116, GI, ILD1, ILD2) includes a second buffer layer, a gate insulating layer, a first interlayer dielectric layer, and a second interlayer dielectric layer; at least one via hole (VIA1, VIA2) passing through the plurality of insulating layers in the bezel area, wherein the via hole (VIA1, VIA2) passes through the second buffer layer, the gate insulating layer, the first interlayer dielectric layer, and the second interlayer dielectric layer; a passivation layer positioned on the second interlayer dielectric layer, wherein the passivation layer contacts a first buffer layer formed under the plurality of insulating layers through the via hole (VIA1, VIA2); and at least one opening (PAH1, PAH2) passing through the passivation layer on the plurality of insulating layers (116, GI, ILD1, ILD2) in the bezel area, wherein the via hole (VIA1, VIA2) and the at least one opening (PAH1, PAH2) each surround the display area to form a respective closed loop, wherein the at least one via hole (VIA1, VIA2) and the at least one opening (PAH1, PAH2) are configured to suppress propagation of cracks in the bezel area, and wherein the via hole (VIA1, VIA2) is further configured to block moisture penetration through the cracks.
An image processing apparatus for improving a texture component of an input image comprising: a memory storing information on at least one random patch; and at least one processor configured to: obtain correlations between a pixel block included in an input image and each of a plurality of random patches obtained from the information on the at least one random patch, obtain weights respectively for the plurality of random patches on a basis of the obtained correlations and apply the weights respectively to the plurality of random patches, and obtain an output image by applying, to the pixel block, the plurality of random patches to which the weights are respectively applied. a memory storing information on at least one random patch; and at least one processor configured to: obtain correlations between a pixel block included in an input image and each of a plurality of random patches obtained from the information on the at least one random patch, obtain weights respectively for the plurality of random patches on a basis of the obtained correlations and apply the weights respectively to the plurality of random patches, and obtain an output image by applying, to the pixel block, the plurality of random patches to which the weights are respectively applied. obtain correlations between a pixel block included in an input image and each of a plurality of random patches obtained from the information on the at least one random patch, obtain weights respectively for the plurality of random patches on a basis of the obtained correlations and apply the weights respectively to the plurality of random patches, and obtain an output image by applying, to the pixel block, the plurality of random patches to which the weights are respectively applied.
An ozone generator apparatus comprising - an ozone generator unit (27, 45) comprising ∘ a high voltage electrode unit (16, 36); ∘ a first (23, 43) and second dielectric element (24, 44); ∘ a first (14, 34) and second earth electrode (15, 35); wherein said high voltage electrode unit is located between said first and said second dielectric element - wherein said generator unit is configured to be operated at an operational frequency range between 30 and 40 kHz; characterised in that the apparatus further comprises: - a low frequency, high voltage AC power supply, being a transformer assembly, configured to provide between 50 and 800 Watts at a frequency between 30 and 40 kHz to the ozone generator unit. - an ozone generator unit (27, 45) comprising ∘ a high voltage electrode unit (16, 36); ∘ a first (23, 43) and second dielectric element (24, 44); ∘ a first (14, 34) and second earth electrode (15, 35); ∘ a high voltage electrode unit (16, 36); ∘ a first (23, 43) and second dielectric element (24, 44); ∘ a first (14, 34) and second earth electrode (15, 35); wherein said high voltage electrode unit is located between said first and said second dielectric element - wherein said generator unit is configured to be operated at an operational frequency range between 30 and 40 kHz; - wherein said generator unit is configured to be operated at an operational frequency range between 30 and 40 kHz; characterised in that the apparatus further comprises: - a low frequency, high voltage AC power supply, being a transformer assembly, configured to provide between 50 and 800 Watts at a frequency between 30 and 40 kHz to the ozone generator unit. - a low frequency, high voltage AC power supply, being a transformer assembly, configured to provide between 50 and 800 Watts at a frequency between 30 and 40 kHz to the ozone generator unit.
Orthopaedic bone anchor and suspension device (10, 30) with a head (11, 31) which, on its upper face (12, 32), has an opening of a central bore for receiving an expansion device, and, a sleeve (16, 36) which is designed as an expansion dowel for anchoring the bone anchor and suspension device in a bone, the sleeve (16, 36) adjoining an underside (15, 35) of the head (11, 31), wherein the head (11, 31) has a collar (18, 38) which protrudes outwards past the sleeve (16, 36), the collar (18, 36) having, on its outer circumference, at least one concave recess (20, 40) extending from an upper face (12, 32) of the head (11, 31) to an underside (15, 35) of the head (11, 31) to allow passage of a graft, characterised in that the collar (18, 38) is further provided with at least one cylindrical hole (19, 39) for receiving a fastening suture. a head (11, 31) which, on its upper face (12, 32), has an opening of a central bore for receiving an expansion device, and, a sleeve (16, 36) which is designed as an expansion dowel for anchoring the bone anchor and suspension device in a bone, the sleeve (16, 36) adjoining an underside (15, 35) of the head (11, 31),
A non-therapeutic method for enhancing exercise performance using a panduratin derivative or a salt thereof as an active ingredient, wherein the panduratin derivative is selected from the group consisting of panduratin A represented by the following Formula 1, 4-hydroxypaduratin A represented by the following Formula 2, and isopanduratin A represented by the following Formula 3.
A method for robotic machining, comprising: determining a first designed machining path based on a modeled surface for a target surface to be machined; causing a robot to machine the target surface based on the first designed machining path in an adaptive manner to obtain an actual machining path, wherein where the modeled surface is different from the target surface, the robot is caused to follow the target surface; and determining a second designed machining path for the target surface based on the deviation between the actual machining path and the first designed machining path, so as to generate an optimized machining path, wherein the robot is run with controlled force, and causing the robot to machine comprises: causing the robot to apply a controlled force to the target surface via a machining tool; and causing the robot to move with a constant speed. determining a first designed machining path based on a modeled surface for a target surface to be machined; causing a robot to machine the target surface based on the first designed machining path in an adaptive manner to obtain an actual machining path, wherein where the modeled surface is different from the target surface, the robot is caused to follow the target surface; and determining a second designed machining path for the target surface based on the deviation between the actual machining path and the first designed machining path, so as to generate an optimized machining path, wherein the robot is run with controlled force, and causing the robot to machine comprises: causing the robot to apply a controlled force to the target surface via a machining tool; and causing the robot to move with a constant speed. causing the robot to apply a controlled force to the target surface via a machining tool; and causing the robot to move with a constant speed.
A method of harvesting textile hemp, which method comprises mowing the hemp, wherein cut hemp stem parts (11, 12) are rotated about 90° from vertical to horizontal, characterized in that the hemp is mowed on at least two levels, to form lower and upper stem parts and in which the hemp stem parts (11, 12) are deposited mainly transversely and mutually parallel in at least one swath.
An object being part of an electrode, the object comprising: - an electrically conductive body part made from a metal or an alloy, - a layer at least substantially covering an outer surface of the body part, said layer comprising an alloy of a refractory metal and the metal present in the body part, wherein, an outer part of said layer comprises an electrically conductive ceramic material. - an electrically conductive body part made from a metal or an alloy, - a layer at least substantially covering an outer surface of the body part, said layer comprising an alloy of a refractory metal and the metal present in the body part,
A flanging system for beading a flange of a component part by flanging it, preferably in order to produce a hemmed connection, the flanging system comprising: (a) a flanging tool comprising a flanging element which can run off on the flange in order to bead the flange along a flanging edge of the component part, and which is preferably a flanging roller which can roll off on the flange; (b) a flanging unit comprising a guide structure for guiding the flanging tool along the flanging edge; (c) a flanging drive for driving the flanging tool and/or the flanging element in a flanging direction along the flanging edge; (d) a media supply for the flanging drive; and (e) a bearing device for positioning and holding the flanging unit in a particular flanging position relative to the component part; (f) wherein the flanging tool and the flanging drive are supported within the flanging unit, such that a drive force to be applied for the purpose of driving and a flanging force to be exerted on the flange by the flanging element for the purpose of flanging are absorbed within the flanging unit, (g) and the flanging tool and the flanging drive are integrated components of the flanging unit which can be handled as a unit by the bearing device, characterised in that (h) the flanging unit comprises an abutment area which is formed on the guide structure and which is shaped so as to conform to and can be placed onto a surface of the component part which borders the flanging edge opposite the flange. (a) a flanging tool comprising a flanging element which can run off on the flange in order to bead the flange along a flanging edge of the component part, and which is preferably a flanging roller which can roll off on the flange; (b) a flanging unit comprising a guide structure for guiding the flanging tool along the flanging edge; (c) a flanging drive for driving the flanging tool and/or the flanging element in a flanging direction along the flanging edge; (d) a media supply for the flanging drive; and (e) a bearing device for positioning and holding the flanging unit in a particular flanging position relative to the component part; (f) wherein the flanging tool and the flanging drive are supported within the flanging unit, such that a drive force to be applied for the purpose of driving and a flanging force to be exerted on the flange by the flanging element for the purpose of flanging are absorbed within the flanging unit, (g) and the flanging tool and the flanging drive are integrated components of the flanging unit which can be handled as a unit by the bearing device, characterised in that (h) the flanging unit comprises an abutment area which is formed on the guide structure and which is shaped so as to conform to and can be placed onto a surface of the component part which borders the flanging edge opposite the flange.
Locking apparatus for plug connectors, consisting of at least one first locking half and at least one second locking half, wherein the first locking half is formed from an inner sleeve and an outer sleeve, wherein the outer sleeve is linearly displaceable relative to the inner sleeve against a plug-in direction, wherein the second locking half is formed from a further sleeve, which can be inserted into the inner sleeve of the first locking half, and wherein the first locking half is associated with at least one detent means, which acts on an inserted sleeve through at least one detent opening in the inner sleeve, characterized in that the detent means substantially has a U-shape, which is formed from a first limb, a base and a second limb, wherein the first limb and the second limb are each connected to the base via a bent region, in that the first limbs (41, 41') of at least two detent means (4, 4') are each connected to a respective one of the second limbs (43, 43') of another detent means (4, 4'), and in that the bases (42, 42') of the detent means (4, 4') are designed to be insertable into the detent opening and to reach as far as the inner side of the inner sleeve, as a result of which the detent means (4, 4') can engage in the second locking half, and in that the outer sleeve has wedge surfaces formed integrally on the inner side, wherein the wedge surfaces are arranged at an angle between 0 and 90 degrees to the plug-in direction, in that the wedge surfaces act on the detent means (4, 4'), and therefore the locking between the first locking half and the second locking half is releasable, in that the wedge surfaces can each be associated with a sweeping curve (45, 45') of the detent means (4, 4'), in that the detent means (4, 4') are movable outwards by the wedge surfaces, by displacement of the outer sleeve against the plug-in direction.