mhurhangee/ep-ind-claims huggingface dataset:
A computing device, comprising: a peripheral housing defining an aperture having a shape, wherein the peripheral housing has an internal housing volume; a display disposed within the aperture and rotatably attached to the peripheral housing, wherein the display has a peripheral shape corresponding to the shape of the aperture; and components that provide power and/or data to the display are disposed entirely within the internal housing volume. a peripheral housing defining an aperture having a shape, wherein the peripheral housing has an internal housing volume; a display disposed within the aperture and rotatably attached to the peripheral housing, wherein the display has a peripheral shape corresponding to the shape of the aperture; and components that provide power and/or data to the display are disposed entirely within the internal housing volume.
Transmission device (1, 1', 1") for a wind turbine for transferring electrostatic energy between a rotatable rotary device (6, 36) and a grounding device (35, 38) that cannot be rotated with respect to the rotary device (6, 36), comprising - a holder (15, 31, 39), a sliding contact device with pressing means, - at least one electrode with adjusting means to transmit lightning current, - wherein a spark gap with a sparking distance can be formed between the electrode and a ring electrode (28, 40), - and whereas the sliding contact device permanently acts upon the ring electrode, characterized in that - the holder (15, 31, 39) is arranged in a non-rotatable manner relative to the grounding device or in a manner of being rotationally fixed on the rotating device (6, 36), - the transmission device (1, 1', 1") comprises a tracking device (14, 30, 37) which is effectively arranged between the ring electrode and the electrode with supporting means, - wherein the ring electrode or the electrode is connected to the rotary device (6, 36) in a manner of being rotationally fixed, - wherein the electrode is arranged in a movable manner relative to the holder (15, 31, 39) via the tracking device (14, 30, 37) - and wherein the electrode is supported relative to the rotary device (6,36) or/and relative to the ring electrode (28, 40) by the supporting means in such a way that the sparking distance cannot fall below a minimal dimension. - a holder (15, 31, 39), a sliding contact device with pressing means, - at least one electrode with adjusting means to transmit lightning current, - wherein a spark gap with a sparking distance can be formed between the electrode and a ring electrode (28, 40), - and whereas the sliding contact device permanently acts upon the ring electrode, - the holder (15, 31, 39) is arranged in a non-rotatable manner relative to the grounding device or in a manner of being rotationally fixed on the rotating device (6, 36), - the transmission device (1, 1', 1") comprises a tracking device (14, 30, 37) which is effectively arranged between the ring electrode and the electrode with supporting means, - wherein the ring electrode or the electrode is connected to the rotary device (6, 36) in a manner of being rotationally fixed, - wherein the electrode is arranged in a movable manner relative to the holder (15, 31, 39) via the tracking device (14, 30, 37) - and wherein the electrode is supported relative to the rotary device (6,36) or/and relative to the ring electrode (28, 40) by the supporting means in such a way that the sparking distance cannot fall below a minimal dimension.
An actuator (6, 8; 10; 40; 50; 60) to be inserted in a headrail of a window covering, the actuator comprising: - a damping body (11, 12; 41, 42; 41', 42'; 51, 52; 61, 62) configured to reduce vibrations when the actuator is operating; characterized in that the actuator further comprises - an expanding mechanism (23; 43; 53; 63) configured to expand the damping body against the headrail; wherein: - the expanding mechanism comprises a spike and the damping body comprises a hole (111, 121; 101, 102) configured to receive the spike, or - the expanding mechanism comprises a plurality of spikes and the damping body comprises a plurality of holes configured to receive the spikes, the spike or the spikes comprising an expanded section (202, 204) of a width that is wider than a width of the hole; or wherein: the expanding mechanism comprises an ovoid body and the damping body (51, 52) comprises a hole configured to receive the ovoid body, the hole having a diameter that is less than the maximum diameter of the ovoid body; or wherein: the expanding mechanism comprises a rotating unit, the actuator further comprising a first outer casing, a second outer casing, and the rotating unit comprising a disk coaxially mounted with an eccentric body, and the outer casings being pushed away against each damping body (61, 62) when the eccentric body rotates; or wherein: the actuator comprises an intermediary accessory to be positioned between the headrail and damping body, the intermediary accessory comprising articulations that allow a lateral expansion when the damping body extends laterally. - a damping body (11, 12; 41, 42; 41', 42'; 51, 52; 61, 62) configured to reduce vibrations when the actuator is operating; characterized in that the actuator further comprises - an expanding mechanism (23; 43; 53; 63) configured to expand the damping body against the headrail; - the expanding mechanism comprises a spike and the damping body comprises a hole (111, 121; 101, 102) configured to receive the spike, or - the expanding mechanism comprises a plurality of spikes and the damping body comprises a plurality of holes configured to receive the spikes, the spike or the spikes comprising an expanded section (202, 204) of a width that is wider than a width of the hole; or the expanding mechanism comprises an ovoid body and the damping body (51, 52) comprises a hole configured to receive the ovoid body, the hole having a diameter that is less than the maximum diameter of the ovoid body; or the expanding mechanism comprises a rotating unit, the actuator further comprising a first outer casing, a second outer casing, and the rotating unit comprising a disk coaxially mounted with an eccentric body, and the outer casings being pushed away against each damping body (61, 62) when the eccentric body rotates; or the actuator comprises an intermediary accessory to be positioned between the headrail and damping body, the intermediary accessory comprising articulations that allow a lateral expansion when the damping body extends laterally.
Pencil-type glow plug for arrangement in a chamber of an internal combustion engine, having a housing, having a rod-like heating element which projects partially out of the housing, and having a pressure sensor which is arranged in an interior space of the housing, wherein the pressure sensor, on one side, is at least indirectly operatively connected to the rod-like heating element in order to detect a loading of the heating element, caused by a pressure prevailing in the chamber, for the purposes of determining the pressure prevailing in the chamber, and wherein the pressure sensor, on the other side, is supported under preload at least indirectly on a fixing element connected to the housing, characterized in that a sleeve-like preload element is provided which, at one side, is connected at least indirectly to the heating element and, at the other side, is connected at least indirectly to the fixing element, in that the preload element subjects the pressure sensor to the preload via the heating element and the fixing element, and in that the pressure sensor is arranged in the interior of the sleeve-like preload element.
A measuring instrument for gauging and inserting a retaining ring, comprising a push tube having a flange region, a conical region and a middle region, wherein the middle region connects the flange region to the conical region, wherein a segmented thrust collar having an inner circumferential surface corresponding to the conical region of the push tube is arranged on the outer circumference of the conical region of the push tube and the segmented thrust collar is in active contact with the flange region of the push tube by way of a spring arrangement arranged on the outer circumference of the middle region of the push tube, wherein the outer circumference surface of the segmented thrust collar is used as a gauge and as a press-in part, wherein the spring arrangement comprises a plurality of compression springs, wherein a guide pin is arranged inside each compression spring and is inserted in each case in a bore of the thrust collar and in a through bore in the flange region of the push tube, and wherein the guide pins are provided as marking elements.
A unitary household appliance mineral wool insulation panel comprising a mineral wool insulation mat characterized in that, prior to installation in a household appliance, the mineral wool insulation mat comprises at least two bands, each band having a width of at least 20cm, and in which: a) the said bands have a difference in weighted thickness of at least 5mm; and/or b) the said bands have a difference in weighted density of at least 10 kg/m 3. a) the said bands have a difference in weighted thickness of at least 5mm; and/or b) the said bands have a difference in weighted density of at least 10 kg/m 3.
A camera device comprising: a lens barrel including at least one lens and a lens hole; a variable aperture comprising at least a first wing part (130_1) and a second wing part (130_2), each comprising a wing hole (131a, 131b) comprising a plurality of holes (137a1, 137a2; 137b1, 137b2) with different diameters which are connected to each other to form a single continuous hole, the variable aperture defining an aperture hole area arranged on the lens hole, wherein the aperture hole is area is formed by the overlap between the wing hole of the first wing part (130_1) and the wing hole of the second wing part (130_2) and wherein a size of the aperture hole area is adjustable via a physical force applied to a lever; a first movable carrier in which the lens barrel is seated, to which the variable aperture is fixed, and including at least one magnet member is configured to cooperate with at least one coil to move the first movable carrier; an aperture driving module configured to adjust the size of the aperture hole area by supplying the physical force to the lever, wherein at least a portion of an uppermost lens of the lens barrel protrudes through the aperture hole area such that the at least a portion of an uppermost lens extends beyond a surface of the wing parts (130_1; 130_2). a lens barrel including at least one lens and a lens hole; a variable aperture comprising at least a first wing part (130_1) and a second wing part (130_2), each comprising a wing hole (131a, 131b) comprising a plurality of holes (137a1, 137a2; 137b1, 137b2) with different diameters which are connected to each other to form a single continuous hole, the variable aperture defining an aperture hole area arranged on the lens hole, wherein the aperture hole is area is formed by the overlap between the wing hole of the first wing part (130_1) and the wing hole of the second wing part (130_2) and wherein a size of the aperture hole area is adjustable via a physical force applied to a lever; a first movable carrier in which the lens barrel is seated, to which the variable aperture is fixed, and including at least one magnet member is configured to cooperate with at least one coil to move the first movable carrier; an aperture driving module configured to adjust the size of the aperture hole area by supplying the physical force to the lever, wherein at least a portion of an uppermost lens of the lens barrel protrudes through the aperture hole area such that the at least a portion of an uppermost lens extends beyond a surface of the wing parts (130_1; 130_2).
A surface-coated tool, comprising: a substrate; and a coating film formed on said substrate, said substrate containing WC particles and a binder phase containing Co and binding said WC particles to one another, said coating film including an adhesive layer in contact with said substrate and an upper layer formed on said adhesive layer, said upper layer contains one or more elements selected from group IV elements, group V elements, and group VI elements in periodic table, and Si and Al and one or more elements selected from C, N, and O, said adhesive layer having a thickness not smaller than 0.5 nm and not greater than 20 nm, said adhesive layer containing a carbide, a nitride, or a carbonitride containing one or more elements selected from Cr, Ti, Zr, and Nb, one or more elements selected from W and C forming said substrate, and one or more elements selected from Al, Si, and N forming said upper layer, an occupancy by said WC particles in a portion of said substrate in contact with said adhesive layer is not lower than 80%, and said WC particles have an average particle size not smaller than 0.2 μm and not greater than 2 μm, and a content of Co in said substrate is not lower than 4.0 mass% and not higher than 13 mass%. a substrate; and a coating film formed on said substrate, said substrate containing WC particles and a binder phase containing Co and binding said WC particles to one another, said coating film including an adhesive layer in contact with said substrate and an upper layer formed on said adhesive layer, said upper layer contains one or more elements selected from group IV elements, group V elements, and group VI elements in periodic table, and Si and Al and one or more elements selected from C, N, and O, said adhesive layer having a thickness not smaller than 0.5 nm and not greater than 20 nm, said adhesive layer containing a carbide, a nitride, or a carbonitride containing one or more elements selected from Cr, Ti, Zr, and Nb, one or more elements selected from W and C forming said substrate, and one or more elements selected from Al, Si, and N forming said upper layer, an occupancy by said WC particles in a portion of said substrate in contact with said adhesive layer is not lower than 80%, and said WC particles have an average particle size not smaller than 0.2 μm and not greater than 2 μm, and a content of Co in said substrate is not lower than 4.0 mass% and not higher than 13 mass%.
A composition for use in treatment or prevention of a tumor that expresses a TUG1 gene higher than in normal tissues, in a subject, comprising, as an active ingredient, a nucleic acid that inhibits the expression of the TUG1 gene in stem cells of the tumor, wherein the nucleic acid is selected from the group consisting of siRNAs, precursor RNAs of the siRNAs, antisense RNAs, modified RNAs thereof, and antisense DNAs, each targeting a transcript RNA of the TUG1 gene, where the modified RNAs comprise at least one modification selected from the group consisting of: substitution of phosphodiester linkages of the RNAs with phosphorothioate, phosphorodithioate, alkyl phosphonate, or phosphoramidate linkage; substitution of 2'-OH of the RNAs with halogen, alkyl, alkoxy, O-alkylenyl-O-alkyl, or O-(CH 2) 2 -O-N(R m)(R n) where R m and R n independently represent H or a substituted or unsubstituted C 1 -C 10 alkyl; 2'-deoxyribonucleotide; locked nucleic acid selected from 2'-O,4'-C methylene bridge (-O-CH 2 -)-modified nucleotide and 2'-O,4'-C ethylene bridge (-O-CH 2 CH 2 -)-modified nucleotide; and 2'-methoxyethyl nucleotide, 2'-methoxyethoxy (2'-MOE) nucleotide, 2'-methoxy (2'-OMe) nucleotide, and 2'-deoxy-2'-chloro nucleotide, wherein the nucleic acid targets a region of the nucleotide numbers 1044 to 1062, 1044 to 1062, or 1044 to 1062 and/or a region of the nucleotide numbers 2997 to 5181, 2941 to 5111, or 2941 to 5125 in the nucleotide sequence of SEQ ID NO: 1, 2, or 3 of the transcript RNA of the TUG1 gene, respectively, and wherein the tumor is selected from the group consisting of brain tumor, breast cancer, colon cancer, prostate cancer, liver cancer, lung cancer, leukemia, and lymphoma.
A Botulinum toxin in a pharmaceutically safe form for use in the treatment of an externally caused migraine headache, wherein the externally caused migraine headache is a post traumatic migraine headache, and wherein the Botulinum toxin is extramuscularly injected into the aponeurotic fascia and/or to emerging nerve exit points in the face and/or neck.
A display panel comprising: a lower substrate and an upper substrate coupled to each other and configured to display images; an optical film attached to a top surface of the upper substrate; and a panel protection member for covering an edge surfaces of the lower and upper substrates, characterised in that: the optical film is larger in size than the top surface of the upper substrate and has an extending part which extends beyond the edge surfaces of the upper substrate, and wherein the panel protection member is disposed directly below the extending part of the optical film, and contacts the edge surfaces of the upper substrate and the edge surfaces of the lower substrate. a lower substrate and an upper substrate coupled to each other and configured to display images; an optical film attached to a top surface of the upper substrate; and a panel protection member for covering an edge surfaces of the lower and upper substrates, the optical film is larger in size than the top surface of the upper substrate and has an extending part which extends beyond the edge surfaces of the upper substrate, and wherein the panel protection member is disposed directly below the extending part of the optical film, and contacts the edge surfaces of the upper substrate and the edge surfaces of the lower substrate.
A milking robot for the fully automatic milking of dairy animals, comprising at least one moving component (2; 9) and a cylinder configured to support a movement of the component, which cylinder has a cylinder wall having an aeration opening, as well as a cylinder rod slidable into and out of the cylinder, wherein the cylinder wall surrounds at least one variable volume part, which volume part is free from pressure fluid connections for displacement of the cylinder rod and, furthermore, is configured to remain, via said opening, substantially in pressure equilibrium with an environment of the cylinder, wherein a gas collecting device is connected to the cylinder wall around said aeration opening, which gas collecting device has a changeable volume and which, together with the variable volume part, forms an airtight gas volume, wherein the gas collecting device has a minimum volume greater than zero, preferably of at least 10% of the airtight gas volume at ambient pressure, wherein the gas collecting device comprises an open-holding means for ensuring the minimum volume in the event of a pressure reduction in the gas collecting device, wherein the open-holding means comprises at least one of a resilient element, in particular an open-cell block of plastics foam, a spring, or a volume which is closed off with a diaphragm and contains a gas.
A stent graft, comprising: a stent portion including a bare section and a main section; and a graft tube fixed on the main section, wherein the main section includes a plurality of stent sections along its axial direction, the stent graft further comprises a plurality of circumferential bosses arranged on an outer circumference of the graft tube along the axial direction, and the circumferential bosses and the stent sections are alternately arranged in the axial direction, characterized in that an outer diameter of the circumferential boss is larger than an outer diameter of the graft tube by 1 mm-3 mm, and an axial size of the circumferential boss measured along the axial direction is between 0.5 mm and 1.5 mm, the main section further includes a small wave section, which is arranged close to the bare section, and the small wave section is made of filaments having a diameter of 0.2032-0.254 millimeter, the waveform of the small wave section is designed as a height-changing structure. the stent graft further comprises a plurality of circumferential bosses arranged on an outer circumference of the graft tube along the axial direction, and the circumferential bosses and the stent sections are alternately arranged in the axial direction, characterized in that an outer diameter of the circumferential boss is larger than an outer diameter of the graft tube by 1 mm-3 mm, and an axial size of the circumferential boss measured along the axial direction is between 0.5 mm and 1.5 mm, the main section further includes a small wave section, which is arranged close to the bare section, and the small wave section is made of filaments having a diameter of 0.2032-0.254 millimeter, the waveform of the small wave section is designed as a height-changing structure.
Load interrupter, in which for each current phase a switch contact arrangement is provided which is connected to an associated incoming rail provided at a rear face of a housing of the load interrupter for making an electrical contact with a current-conducting rail, wherein the switch contact arrangement can be switched by means of a the operating unit with protection against accidental contact of the load interrupter mounted on a front face of the housing, and wherein the operating unit with protection against accidental contact has an operating handle with two guide brackets (15A, 15B) connected to a spring-operated mechanism for the user-independent switching of the at least one switch contact arrangement, characterised in that the guide brackets (15A, 15B) of the operating handle of the operating unit with protection against accidental contact are guided along a plurality of protective ribs (23, 24) in associated side portions of the in-line housing of the load interrupter.
A method of making a compound comprising at least one perfluorinated allyl ether group, the method comprising: combining first components comprising: CF 2 =CF-CF 2 -OSO 2 Cl a polyfluorinated compound comprising at least one ketone, carboxylic acid halide, or a combination thereof, and fluoride ion to provide the compound comprising at least one perfluorinated allyl ether group. CF 2 =CF-CF 2 -OSO 2 Cl a polyfluorinated compound comprising at least one ketone, carboxylic acid halide, or a combination thereof, and fluoride ion to provide the compound comprising at least one perfluorinated allyl ether group.
A polyester resin according to General Formula I; HO-{[R 1 R 2 C(CH 2 -)2] a[ -OCOC x H y CO 2 -] b [-C p H z O-] c}-H wherein: R 1 and R 2 are each independently selected from the group consisting of H, C 1 -C 4 alkyl, and -CH 2 OH; x is an integer 1 through 10; y is an integer 2 through 20; p is an integer 2 through 8; z is two times p; each C x H y and C p H z are each independently linear or branched alkyl, optionally comprising an aromatic, or saturated or unsaturated alicyclic ring; a, b, and c are each independently an integer 1 through 100; provided that b < a+c; the M w is less than 10,000; the Tg is less than 5°C; the hydroxyl value is 225-300; and wherein the polyester resin is formed by the reaction of one or more dibasic organic acids, one or more organic compounds with multiple functional groups, and one or more polyols, and wherein the Mw and the Tg are determined as indicated in the description. R 1 and R 2 are each independently selected from the group consisting of H, C 1 -C 4 alkyl, and -CH 2 OH; x is an integer 1 through 10; y is an integer 2 through 20; p is an integer 2 through 8; z is two times p; each C x H y and C p H z are each independently linear or branched alkyl, optionally comprising an aromatic, or saturated or unsaturated alicyclic ring; a, b, and c are each independently an integer 1 through 100; provided that b < a+c; the M w is less than 10,000; the Tg is less than 5°C; the hydroxyl value is 225-300; and wherein the polyester resin is formed by the reaction of one or more dibasic organic acids, one or more organic compounds with multiple functional groups, and one or more polyols, and wherein the Mw and the Tg are determined as indicated in the description.