mhurhangee/ep-ind-claims huggingface dataset:
A device for holding hair, comprising: a first end portion, a second end portion, and a middle portion connecting the first end portion and the second end portion, wherein the middle portion extends along a substantially C-shaped path, wherein the middle portion is formed of at least a first connecting element extending between the first end portion and the second end portion, the first connecting element is a first string made of a first material, and a second connecting element extending between the first end portion and the second end portion, the second connecting element is a second string made of a second material, wherein the first material and the second material have different physical properties, the first connecting element extends along the path of a helix or has a wave geometry, the second connecting element extends along the path of a helix or has a wave geometry, wherein the first connecting element and the second connecting element are arranged to form a double helix structure, or the first connecting element and the second connecting element have a wave structure, wherein the amplitude of the wave structure of the first connecting element and the amplitude of wave structure of the second connecting element have different planes of polarization, wherein the first connecting element and the second connecting element are wound relative to each other, characterized in that the first material is a predominantly elastically deformable material and the second material is a predominantly plastically deformable material. a first end portion, a second end portion, and a middle portion connecting the first end portion and the second end portion, wherein the middle portion extends along a substantially C-shaped path, wherein the middle portion is formed of at least a first connecting element extending between the first end portion and the second end portion, the first connecting element is a first string made of a first material, and a second connecting element extending between the first end portion and the second end portion, the second connecting element is a second string made of a second material, wherein the first material and the second material have different physical properties, the first connecting element extends along the path of a helix or has a wave geometry, the second connecting element extends along the path of a helix or has a wave geometry, wherein the first connecting element and the second connecting element are arranged to form a double helix structure, or the first connecting element and the second connecting element have a wave structure, wherein the amplitude of the wave structure of the first connecting element and the amplitude of wave structure of the second connecting element have different planes of polarization, wherein the first connecting element and the second connecting element are wound relative to each other, characterized in that the first material is a predominantly elastically deformable material and the second material is a predominantly plastically deformable material.
A fertilizer composition, comprising: - an ammonium nitrate material; and - an effective amount of a stabilizer material to result in a specific impulse of not greater than 13.5 kPa ∗ ms/kg when measured in accordance with a blast propagation test; wherein the stabilizer material comprises hydrocalumite, hydroxyapatite hydrotalcite, and/or apatite, wherein the stabilizer material is at least 12.5 wt. % of the total fertilizer composition, wherein the stabilizer material is not greater than 35 wt. % of the total fertilizer composition, and wherein the fertilizer composition is configured in the form of: pellets, prills, granules, disks, powder, or combinations thereof. - an ammonium nitrate material; and - an effective amount of a stabilizer material to result in a specific impulse of not greater than 13.5 kPa ∗ ms/kg when measured in accordance with a blast propagation test;
Milling system with a hand-held milling cutter which has a depth stop by means of which a penetration depth of a milling tool of the hand-held milling cutter can be limited, and with a suction nozzle, wherein the suction nozzle has a suction-extraction connection which is configured for connection to a dust-extraction system, wherein the suction nozzle has a connection region via which the suction nozzle is able to be fastened in a re-releasable manner, preferably in a manner re-releasable without the use of any tools, to the depth stop.
Packaging receptacle made of plastics material and intended for storing foods which can preferably be packaged when hot, more particularly a food container made of plastics material, comprising a lid and a container which forms a lower support surface and has a receiving space which is delimited by a side wall, and comprising a skirt extending along an upper region of the side wall and a tamper-evident closure which has a tamper-evident tab and which, once the packaging receptacle has been filled, can be released by a user when opened for the first time, the lid, which is formed as a snap-on lid or slip lid, being fixable to the upper container rim, the tamper-evident tab being transparent, characterised in that the container has a visual indicator between a longitudinal central axis, which is perpendicular to the lower support surface, and a surface, facing away therefrom, of the tamper-evident tab for marking the tamper-evident tab.
A method comprising: dividing (420, 1320) a data stream into a plurality of sub-streams (D 0, D 1, D 2,...D i), modulating (430, 1330) each sub-stream (D 0, D 1, D 2,...D i) to provide a respective modulated signal adapted for transmission via a respective spectral fragment (S 0, S 1, S 2,...S i), each spectral fragment associated with a respective channel; further comprising the steps of: arranging an amount of data allocated to any of the plurality of sub-streams (D 0, D 1, D 2,...D i) as proportional to a data carrying capacity of the respective spectral fragment (S 0, S 1, S 2,...S i); and, monitoring data indicative of channel performance for each of the spectral fragments (S 0, S 1, S 2,...S i) to identify degraded channels; and adapting (1350, 1355), for each degraded channel, one or more respective modulation parameters to compensate for respective identified channel degradation; and further comprising in response to degradation of an identified channel exceeding a threshold level, selecting a backup spectral fragment for use by the modulated signal associated with the identified degraded channel. dividing (420, 1320) a data stream into a plurality of sub-streams (D 0, D 1, D 2,...D i), modulating (430, 1330) each sub-stream (D 0, D 1, D 2,...D i) to provide a respective modulated signal adapted for transmission via a respective spectral fragment (S 0, S 1, S 2,...S i), each spectral fragment associated with a respective channel; further comprising the steps of: arranging an amount of data allocated to any of the plurality of sub-streams (D 0, D 1, D 2,...D i) as proportional to a data carrying capacity of the respective spectral fragment (S 0, S 1, S 2,...S i); and, monitoring data indicative of channel performance for each of the spectral fragments (S 0, S 1, S 2,...S i) to identify degraded channels; and adapting (1350, 1355), for each degraded channel, one or more respective modulation parameters to compensate for respective identified channel degradation; and further comprising in response to degradation of an identified channel exceeding a threshold level, selecting a backup spectral fragment for use by the modulated signal associated with the identified degraded channel. arranging an amount of data allocated to any of the plurality of sub-streams (D 0, D 1, D 2,...D i) as proportional to a data carrying capacity of the respective spectral fragment (S 0, S 1, S 2,...S i); and, monitoring data indicative of channel performance for each of the spectral fragments (S 0, S 1, S 2,...S i) to identify degraded channels; and adapting (1350, 1355), for each degraded channel, one or more respective modulation parameters to compensate for respective identified channel degradation; and further comprising in response to degradation of an identified channel exceeding a threshold level, selecting a backup spectral fragment for use by the modulated signal associated with the identified degraded channel.
Carbine with a weapon median plane, with a barrel with a barrel bore axis, a gas drive, a sliding block, a closing spring unit, and a charging handle arranged in front of the sliding block, wherein the charging handle has two operating handles (21a,b) rotatably mounted about pivot pins (23a,b) on a charging handle body, said operating handles (21a,b) being pushed about the pivot pins (23a,b) into a rest position by at least one handle spring, wherein the charging handle body is mounted on a carriage which is arranged axially in front of the sliding block and movable in the axial direction, wherein said operating handles (21a,b) exhibit elongated holes for guiding them along said pivot pins (23a,b), said elongated holes, in an unfolded position of the operating handles (21a,b), run parallel to the barrel bore axis, in the charging handle body, a catch slider is slidably mounted normal to the weapon median plane, said catch slider being pushed by a catch slider spring into a position symmetrical to the weapon median plane, in which it is located axially in front of a housing-mounted control element and, upon pivoting an operating handle (21a,b), the catch slider is shifted, due to its contour, against the force of the catch slider spring from its rest position, placing it next to the housing-mounted control element. run parallel to the barrel bore axis, in the charging handle body, a catch slider is slidably mounted normal to the weapon median plane, said catch slider being pushed by a catch slider spring into a position symmetrical to the weapon median plane, in which it is located axially in front of a housing-mounted control element and, upon pivoting an operating handle (21a,b), the catch slider is shifted, due to its contour, against the force of the catch slider spring from its rest position, placing it next to the housing-mounted control element.
A piston ring for sealing a cylinder wall to a piston body, comprising: a ring body extending about an axis and having an inner face and an outer face, said inner face presenting least two ridges that extend in a radially inward direction with said ridges being spaced axially from one another by a valley region, and said outer face said ridges being spaced axially from one another by a valley region, and said outer face presenting a groove; a spring of an elastomeric material substantially circumferentially surrounding said ring body and seated in said groove on said outer face, said spring biasing said ring body in said radially inward direction for sealing said ridges on said inner face against the piston body; and said ring body having at least one oil drainage port extending at an angle relative to said radially inward direction from said inner face to a location on said outer face on one axial side of said spring for conveying oil out of a space between said ridges. a ring body extending about an axis and having an inner face and an outer face, said inner face presenting least two ridges that extend in a radially inward direction with said ridges being spaced axially from one another by a valley region, and said outer face said ridges being spaced axially from one another by a valley region, and said outer face presenting a groove; a spring of an elastomeric material substantially circumferentially surrounding said ring body and seated in said groove on said outer face, said spring biasing said ring body in said radially inward direction for sealing said ridges on said inner face against the piston body; and said ring body having at least one oil drainage port extending at an angle relative to said radially inward direction from said inner face to a location on said outer face on one axial side of said spring for conveying oil out of a space between said ridges.
A head array system for a power wheelchair, comprising: a head array body comprising shafts, wherein each of the shafts comprises lateral arm receiving sections; and at least one lateral arm (60, 70) detachably coupled to one of the lateral arm receiving sections of one of the shafts; and at least one of a switch and a sensor (40, 50) coupled to the head array body via the at least one lateral arm (60, 70), wherein the head array body comprises a microprocessor and an enable/disable mechanism, wherein the enable/disable mechanism is configured to instruct the microprocessor to: generate command signals in response to received activation signals from the at least one of the switch and the sensor (40, 50) if the enable/disable mechanism is in a selected enable mode, and disregard received activation signals from the at least one of the switch and the sensor (40, 50) if the enable/disable mechanism is in a selected disable mode. a head array body comprising shafts, wherein each of the shafts comprises lateral arm receiving sections; and at least one lateral arm (60, 70) detachably coupled to one of the lateral arm receiving sections of one of the shafts; and at least one of a switch and a sensor (40, 50) coupled to the head array body via the at least one lateral arm (60, 70), wherein the head array body comprises a microprocessor and an enable/disable mechanism, wherein the enable/disable mechanism is configured to instruct the microprocessor to: generate command signals in response to received activation signals from the at least one of the switch and the sensor (40, 50) if the enable/disable mechanism is in a selected enable mode, and disregard received activation signals from the at least one of the switch and the sensor (40, 50) if the enable/disable mechanism is in a selected disable mode. generate command signals in response to received activation signals from the at least one of the switch and the sensor (40, 50) if the enable/disable mechanism is in a selected enable mode, and disregard received activation signals from the at least one of the switch and the sensor (40, 50) if the enable/disable mechanism is in a selected disable mode.
A device comprising: a rotor blade (201a-d) comprising: a blade core having a root end and a tip end opposite the root end, the blade core having an upper surface and a lower surface opposite the upper surface, the upper surface and the lower surface extending between the root end and the tip end; and a material covering the upper surface and the lower surface, the material extending outwards away from the blade core past the root end, wherein the material extending outwards away from the blade core forms a cuff that is integral with the upper surface and the lower surface; characterized in that the device further comprises a damper (301a-d) configured to reduce vibrations in the rotor blade (201a-d) during operation of the device, wherein the damper has a first end that is disposed inside the cuff. a rotor blade (201a-d) comprising: a blade core having a root end and a tip end opposite the root end, the blade core having an upper surface and a lower surface opposite the upper surface, the upper surface and the lower surface extending between the root end and the tip end; and a material covering the upper surface and the lower surface, the material extending outwards away from the blade core past the root end, wherein the material extending outwards away from the blade core forms a cuff that is integral with the upper surface and the lower surface; characterized in that the device further comprises a blade core having a root end and a tip end opposite the root end, the blade core having an upper surface and a lower surface opposite the upper surface, the upper surface and the lower surface extending between the root end and the tip end; and a material covering the upper surface and the lower surface, the material extending outwards away from the blade core past the root end, wherein the material extending outwards away from the blade core forms a cuff that is integral with the upper surface and the lower surface; characterized in that the device further comprises a damper (301a-d) configured to reduce vibrations in the rotor blade (201a-d) during operation of the device, wherein the damper has a first end that is disposed inside the cuff.
A computer-implemented method for stitching source images according to a first stitching quality, the method comprising: obtaining two or more source images from two or more cameras; identifying at least one overlapping region of the obtained two or more source images; stitching at least a portion of the at least one overlapping region of the obtained two or more source images to create a stitched image in accordance with the first stitching quality, where stitching comprises cut-and-feathering or blending; and storing the stitched image and information associated with at least the identified at least one overlapping region in a stitched data structure, characterized by the information associated with the identified at least one overlapping region enabling a re-stitching of the obtained two or more source images in accordance with a second stitching quality, the second stitching quality being different than the first stitching quality. obtaining two or more source images from two or more cameras; identifying at least one overlapping region of the obtained two or more source images; stitching at least a portion of the at least one overlapping region of the obtained two or more source images to create a stitched image in accordance with the first stitching quality, where stitching comprises cut-and-feathering or blending; and storing the stitched image and information associated with at least the identified at least one overlapping region in a stitched data structure, characterized by the information associated with the identified at least one overlapping region enabling a re-stitching of the obtained two or more source images in accordance with a second stitching quality, the second stitching quality being different than the first stitching quality.
A primary ultrafine-crystalline alloy ribbon having a composition represented by the general formula of Fe 100-x-y-z A x B y X z, wherein A is Cu and/or Au, X is at least one element selected from the group consisting of Si, S, C, P, Al, Ge, Ga and Be, and x, y and z are numbers meeting the conditions of 0 < x ≤ 5, 10 ≤ y ≤ 22, 0 ≤ z ≤ 10, and x + y + z ≤ 25, respectively, when expressed by atomic %, and having a structure in which ultrafine crystal grains having an average grain size of 30 nm or less are dispersed in a proportion of 5-30% by volume in an amorphous matrix before heat treatment; said primary ultrafine-crystalline alloy ribbon having a width of 10 mm or more and a thickness of 15 μm or more, with thickness difference of 2 μm or less in transverse direction; said primary ultrafine-crystalline alloy ribbon having Vickers hardness Hv (measured at a load of 100 g) of 850-1150 in both center and side portions in transverse direction, the Vickers hardness Hv in side portions being an average value of Vickers hardness values Hv 1 and Hv 5 measured at a position 2 mm from each side edge of the primary ultrafine-crystalline alloy ribbon, and the Vickers hardness Hv in a center portion being an average value of Vickers hardness values Hv 2, Hv 3 and Hv 4 measured at a position on a longitudinal centerline of said primary ultrafine-crystalline alloy ribbon, and at positions separate from the centerline by 30% of the entire width in both transverse directions; the difference of Vickers hardness Hv (measured at a load of 100 g) between the center portion and the side portions being 150 or less; and when notches are generated along the fracture-cut portion of said primary ultrafine-crystalline alloy ribbon, the percentage of the notches being 5% or less, which is determined by the following formula: Percentage of notches = Dav / D × 100 %, wherein D is the width of said primary ultrafine-crystalline alloy ribbon, Dav is an average depth of the notches, which is obtained by dividing the total area of the notches by the width D of said primary ultrafine-crystalline alloy ribbon.
A blow molding device comprising: a tubular nozzle; a pressurized fluid supply source configured to supply a pressurized incompressible fluid to the nozzle; a tubular seal body configured to move in a vertical direction between a closed position in which the nozzle is closed and an open position in which the nozzle is open; and a rod having an outer circumferential surface that faces an inner circumferential surface of the seal body, and configured to move in the vertical direction, wherein the seal body includes a tubular wall having an outer circumferential surface that faces the nozzle when the seal body is in the closed position, a concave communication depression extending from a lower end of the tubular wall to a communication port open on the outer circumferential surface of the tubular wall is provided in the inner circumferential surface of the seal body, a communication path that communicates with the communication port when the seal body is in the closed position is provided in the nozzle, and the blow molding device further comprises at least one of: a fluid suction source configured to suck the incompressible fluid from the communication depression through the communication path and the communication port; and a pressurized gas supply source configured to supply a pressurized gas that blows off the incompressible fluid from the communication depression through the communication path and the communication port.
A pharmaceutical composition comprising a therapeutically effective amount of an agent selected from a. a peptide comprising TAK1 binding protein and b. anisomycin for use in inhibiting RPE cellular senescence and thereby treating a retinal degenerative disease. a. a peptide comprising TAK1 binding protein and b. anisomycin
An isolated genetically modified cell, wherein the cell is a fungus, wherein the activity of acyl-CoA:sterol acyltransferase/sterol O-acyltransferase (EC 2.3.1.26) is reduced or abolished in comparison with a corresponding wildtype cell, and wherein the activity of HMG-CoA-reductase (EC 1.1.1.34), is increased in comparison with the corresponding wildtype cell, wherein the increase in activity of HMG-CoA-reductase is achieved either by expressing in the cell a HMG-CoA-reductase gene, which codes only for the catalytic area of the enzyme but does not code for the membrane-bound domain, or by placing the HMG-CoA-reductase in the cell under the control of a heterologous promoter, and wherein the activities and/or amounts of FLD1 p are decreased or abolished.
Support structure associable in use to a portion of the human body and usable for supporting a surgical device, said support structure comprising at least one frame delimiting at least one opening defining an area of surgery, wherein said at least one frame has an upper support portion, and a lower portion, said support structure comprising connecting means of said at least one frame to said predefined portion of the human body, wherein said connecting means comprise at least one support (9, 9') operably connectable, in use, in a removable manner, to said at least one frame and to said predefined portion of the human body, without requiring any percutaneous intervention, said at least one support (9, 9') being configured to allow the removal of said at least one frame from said predefined portion of the human body and to provide a reference for the exact repositioning of said at least one frame along said predefined portion of the human body.