mhurhangee/ep-ind-claims huggingface dataset:
Method for displaying the position of an impact point of a directed-energy weapon comprising an effective beam optical system and an imaging optical system, the imaging optical system and the effective beam optical system being arranged in a housing which has an effective beam exit opening, allowing radiation to exit the housing and radiation to enter the housing, and has a reflective optical auxiliary element, and an emission of primary radiation of the directed-energy weapon to be focused and directed by the effective beam optical system being triggered as an effective beam or as an auxiliary beam that is collinear with the effective beam, and radiation emanating from an object irradiated with the effective beam or auxiliary beam being detected by the imaging optical system and directed onto a first camera of a screen, a beam bundle cross section of an effective beam or auxiliary beam emerging from the directed-energy weapon being covered by the optical auxiliary element reflecting the effective beam or auxiliary beam, a reflective side of the reflective optical auxiliary element being arranged on a side of the reflective optical auxiliary element which faces the interior of the housing, the effective beam or the auxiliary beam being triggered when the beam bundle cross section is covered, and primary radiation of the effective beam or the auxiliary beam, which primary radiation is reflected by the reflective optical auxiliary element, is detected by the imaging optical system and directed onto a spot on the camera, which spot is displayed as an impact point on the screen, characterized in that when carrying out the method, the reflective optical auxiliary element is fastened to an edge of the effective beam exit opening in the form of a cover which light-tightly closes the effective beam exit opening, or in that the reflective optical auxiliary element is a sliding closure or a closure that swings away to the side, each of which is constructed in such a way that the effective beam exit opening is light-tightly closed when the method is carried out; and in that when the method is carried out, the housing is light-tightly closed so that no primary radiation in the form of an effective beam or auxiliary beam is emitted into the environment.
A gas turbine engine, comprising: a fan, a compressor section, a combustor section, and a turbine section, the turbine section configured to drive a shaft to rotatably drive the fan and the compressor, at least one driveshaft to be connected for rotation with the turbine section; a nacelle having an inner wall providing a bypass duct of a gas turbine engine, and an outer wall; an accessory gearbox being received between the inner wall and the outer wall of the nacelle; and an accessory drive (D4,D5) of the accessory gearbox, the accessory drive (D4,D5) configured to rotate about an accessory drive axis (A T), wherein the nacelle receives bypass air from the fan, and the at least one driveshaft extending through the inner wall, and being connected to drive the accessory gearbox received between the inner and outer walls (70,74) of the nacelle; wherein the accessory drive axis (A T) extends tangentially relative to the nacelle; characterised in that: the accessory gearbox has a circumferentially extending portion and an axially extending portion; and the accessory gearbox is configured to rotatably drive an accessory (130,134) at a drive location on a circumferentially facing side of the accessory gearbox. a fan, a compressor section, a combustor section, and a turbine section, the turbine section configured to drive a shaft to rotatably drive the fan and the compressor, at least one driveshaft to be connected for rotation with the turbine section; a nacelle having an inner wall providing a bypass duct of a gas turbine engine, and an outer wall; an accessory gearbox being received between the inner wall and the outer wall of the nacelle; and an accessory drive (D4,D5) of the accessory gearbox, the accessory drive (D4,D5) configured to rotate about an accessory drive axis (A T), wherein the nacelle receives bypass air from the fan, and the at least one driveshaft extending through the inner wall, and being connected to drive the accessory gearbox received between the inner and outer walls (70,74) of the nacelle; wherein the accessory drive axis (A T) extends tangentially relative to the nacelle; characterised in that: the accessory gearbox has a circumferentially extending portion and an axially extending portion; and the accessory gearbox is configured to rotatably drive an accessory (130,134) at a drive location on a circumferentially facing side of the accessory gearbox. the accessory gearbox has a circumferentially extending portion and an axially extending portion; and the accessory gearbox is configured to rotatably drive an accessory (130,134) at a drive location on a circumferentially facing side of the accessory gearbox.
An impact copolymer polypropylene composition comprising a propylene homopolymer or copolymer matrix and an ethylene propylene rubber phase dispersed in the matrix, wherein the ethylene propylene rubber phase is present in an amount of 5-15 %wt, based on the total weight of the propylene homopolymer or copolymer matrix and the ethylene propylene rubber phase, the amount of ethylene in the ethylene propylene rubber (PER-C2) phase is 43-55 mol%, and the intrinsic viscosity of the ethylene propylene rubber (PER-IV) phase is 3-7 dL/g, and the impact copolymer polypropylene composition has a MFR 2 of 70-200 g/10 min, as determined according to ASTM D1238-13 at 230 °C 2.16 kg.
A titanium doped ternary system silicate film, characterized in that said titanium doped ternary system silicate film has the general formula of Ca 2-x MgSi 2 O 7: xTi 4+, where x is from range of 0.00017∼0.0256.
A light-emitting medium including a light-emitting image on a substrate, wherein: the light-emitting image includes a plurality of first pattern elements containing a first fluorescent material and a plurality of second pattern elements containing a second fluorescent material; the plurality of first pattern elements and the plurality of second pattern elements form a plurality of micro-characters; there is no portion where the first pattern element and the second pattern element are in contact with each other; the plurality of micro-characters form micro-character rows, and the first pattern elements form a latent image in the micro-character rows; when invisible light within a first wavelength range is irradiated, the first fluorescent material and the second fluorescent material emit light of colors that are viewed as the same color with each other; and when invisible light within a second wavelength range is irradiated, the first fluorescent material and the second fluorescent material emit light of colors that are viewed as different colors from each other, whereby the latent image in the micro-character rows is caused to appear. the light-emitting image includes a plurality of first pattern elements containing a first fluorescent material and a plurality of second pattern elements containing a second fluorescent material; the plurality of first pattern elements and the plurality of second pattern elements form a plurality of micro-characters; there is no portion where the first pattern element and the second pattern element are in contact with each other; the plurality of micro-characters form micro-character rows, and the first pattern elements form a latent image in the micro-character rows; when invisible light within a first wavelength range is irradiated, the first fluorescent material and the second fluorescent material emit light of colors that are viewed as the same color with each other; and when invisible light within a second wavelength range is irradiated, the first fluorescent material and the second fluorescent material emit light of colors that are viewed as different colors from each other, whereby the latent image in the micro-character rows is caused to appear.
A live broadcast method, wherein the method is applied to a system comprising a live broadcast client and a live broadcast proxy client, the live broadcast client is communicatively connected to the live broadcast proxy client by using a home network and is communicatively connected to a live broadcast management server and a live broadcast server by using the Internet, and the live broadcast proxy client is further communicatively connected to a device in a dedicated network; and the method comprises: receiving, by the live broadcast client, a push-stream address sent by the live broadcast management server, wherein the push-stream address comprises an IP address of the live broadcast server; sending, by the live broadcast client, a proxy push-stream request to the live broadcast proxy client, wherein the proxy push-stream request comprises the push-stream address, and the proxy push-stream request is used to determine the live broadcast server for receiving live broadcast data; and sending, by the live broadcast client, collected live broadcast data to the live broadcast proxy client, and pushing, by the live broadcast proxy client, the live broadcast data to the live broadcast server over an uplink of the dedicated network connected to the live broadcast proxy client; wherein the dedicated network is an Internet protocol television, IPTV, network and the live broadcast proxy client is a client in the dedicated network. receiving, by the live broadcast client, a push-stream address sent by the live broadcast management server, wherein the push-stream address comprises an IP address of the live broadcast server; sending, by the live broadcast client, a proxy push-stream request to the live broadcast proxy client, wherein the proxy push-stream request comprises the push-stream address, and the proxy push-stream request is used to determine the live broadcast server for receiving live broadcast data; and sending, by the live broadcast client, collected live broadcast data to the live broadcast proxy client, and pushing, by the live broadcast proxy client, the live broadcast data to the live broadcast server over an uplink of the dedicated network connected to the live broadcast proxy client; wherein the dedicated network is an Internet protocol television, IPTV, network and the live broadcast proxy client is a client in the dedicated network.
Device for connecting electrical components (20, 22) to a power supply, the device being formed by at least one three-dimensionally bent wire which has a round cross section and in which contact regions are formed at least at the ends thereof, characterized in that at least one additional contact region is formed in the wire at least at one additional position which is located between the ends of the wire.
Method for manufacturing a fat-rich substance in powder form, in which - a fat-rich medium in the liquid state is atomized to droplets in a cold atmosphere and is cooled to a temperature just above its solidification temperature, - a fat-poor carrier medium in powder form, cooled to a temperature below the solidification temperature of the fat-rich medium, is brought into contact with the droplets of the fat-rich medium, wherein - owing to the thermal contact with particles of the carrier medium and/or the cold atmosphere, the droplets of the fat-rich medium solidify at least at their surface, and particles of the carrier medium adhere to the surface of the droplets, - the carrier material is discharged in a gas jet that consists of a primary coolant and is directed at the droplets of the fat-rich medium, and - the particles of the carrier medium are intimately mixed with the at least partially solidified droplets of the fat-rich medium, in a mechanical mixing device. - a fat-rich medium in the liquid state is atomized to droplets in a cold atmosphere and is cooled to a temperature just above its solidification temperature, - a fat-poor carrier medium in powder form, cooled to a temperature below the solidification temperature of the fat-rich medium, is brought into contact with the droplets of the fat-rich medium, wherein - owing to the thermal contact with particles of the carrier medium and/or the cold atmosphere, the droplets of the fat-rich medium solidify at least at their surface, and particles of the carrier medium adhere to the surface of the droplets, - the carrier material is discharged in a gas jet that consists of a primary coolant and is directed at the droplets of the fat-rich medium, and - the particles of the carrier medium are intimately mixed with the at least partially solidified droplets of the fat-rich medium, in a mechanical mixing device.
An in vitro method for identifying a FMR genetic locus trinucleotide expansion disorder in a mammalian subject including a human, said method comprising screening a cell from said subject for a change relative to a healthy control in the extent of methylation within a region within the FMR genetic locus; wherein a change in extent of methylation relative to the control is indicative of the presence or severity of the FMR genetic locus trinucleotide expansion disorder or a propensity to develop same, wherein the region is selected from the list consisting of: (i) FREE2 consisting of the nucleotide sequence set forth in SEQ ID NO: 48; and (ii) FREE2 consisting of the nucleotide sequence set forth in SEQ ID NO: 49; wherein the change in extent of methylation is an increase or decrease relative to said healthy control. (i) FREE2 consisting of the nucleotide sequence set forth in SEQ ID NO: 48; and (ii) FREE2 consisting of the nucleotide sequence set forth in SEQ ID NO: 49;
A method performed by a coder/decoder, CODEC, for Intra prediction mode processing based on multiple most probable modes, MPMs, in video coding, the method comprising: determining a first Intra mode associated with a left neighboring block of a current block; determining a second Intra mode associated with a top neighboring block of the current block; and characterized by: deriving three MPMs for the current block based on the first Intra mode and the second Intra mode, wherein the step of deriving said three MPMs based on the first Intra mode and the second Intra mode comprises: determining whether the first Intra mode is identical to the second Intra mode; and if the first Intra mode is identical to the second Intra mode, deriving said three MPMs according to whether the first Intra mode is identical to a Planar mode or a DC mode, and if the first Intra mode is identical to the Planar mode or the DC mode, assigning the Planar mode, the DC mode and a Vertical mode as said three MPMs; and processing a current Intra mode associated with the current block according to said three MPMs. determining a first Intra mode associated with a left neighboring block of a current block; determining a second Intra mode associated with a top neighboring block of the current block; and characterized by: deriving three MPMs for the current block based on the first Intra mode and the second Intra mode, wherein the step of deriving said three MPMs based on the first Intra mode and the second Intra mode comprises: determining whether the first Intra mode is identical to the second Intra mode; and if the first Intra mode is identical to the second Intra mode, deriving said three MPMs according to whether the first Intra mode is identical to a Planar mode or a DC mode, and if the first Intra mode is identical to the Planar mode or the DC mode, assigning the Planar mode, the DC mode and a Vertical mode as said three MPMs; and processing a current Intra mode associated with the current block according to said three MPMs. deriving three MPMs for the current block based on the first Intra mode and the second Intra mode, wherein the step of deriving said three MPMs based on the first Intra mode and the second Intra mode comprises: determining whether the first Intra mode is identical to the second Intra mode; and if the first Intra mode is identical to the second Intra mode, deriving said three MPMs according to whether the first Intra mode is identical to a Planar mode or a DC mode, and if the first Intra mode is identical to the Planar mode or the DC mode, assigning the Planar mode, the DC mode and a Vertical mode as said three MPMs; and determining whether the first Intra mode is identical to the second Intra mode; and if the first Intra mode is identical to the second Intra mode, deriving said three MPMs according to whether the first Intra mode is identical to a Planar mode or a DC mode, and if the first Intra mode is identical to the Planar mode or the DC mode, assigning the Planar mode, the DC mode and a Vertical mode as said three MPMs; and processing a current Intra mode associated with the current block according to said three MPMs.
A cholesterol-lowering food supplement composition comprising a composition base and a sufficient amount for obtaining a monacolin cholesterol-lowering effect, wherein said monacolin is oyster mushroom lovastatin and wherein said composition base is a liquid milk base.
A composition comprising a plastic material and a content of from 50 to 90% by weight of an additive, wherein said additive comprises zinc oxide that has been treated with a silicon compound, wherein said zinc oxide has a specific surface area of from 0.5 m 2 /g to 6 m 2 /g before being treated with a silicon compound.
A bushing for an electrical device, comprising an insulating core (1, 7, 9) comprising a body of epoxy resin impregnated paper, characterized in that at least a part of the insulating core (1, 7, 9) comprises a continuous diffusion barrier (2, 8) of an organic film having a thickness of less than 5 mm and with firm adhesion to the insulating core (1, 7, 9).
A particulate filter comprising: an inlet end; an outlet end; and a plurality of porous walls extending from the inlet end to the outlet end and defining a plurality of channels therebetween, the channels comprising a first region of plugged filter channels and a second region of unplugged channels, wherein: the porous walls defining the plugged channels in the first region comprise a first catalyst loading arranged to provide a first oxygen storage capacity per unit volume; and the porous walls defining the unplugged channels in the second region comprise a second catalyst loading arranged to provide a second oxygen storage capacity per unit volume; wherein the second oxygen storage capacity per unit volume is higher than the first oxygen storage capacity per unit volume. an inlet end; an outlet end; and a plurality of porous walls extending from the inlet end to the outlet end and defining a plurality of channels therebetween, the channels comprising a first region of plugged filter channels and a second region of unplugged channels, wherein: the porous walls defining the plugged channels in the first region comprise a first catalyst loading arranged to provide a first oxygen storage capacity per unit volume; and the porous walls defining the unplugged channels in the second region comprise a second catalyst loading arranged to provide a second oxygen storage capacity per unit volume; wherein the second oxygen storage capacity per unit volume is higher than the first oxygen storage capacity per unit volume.
A method for preparing -methyl 2-[2-(6-chloropyrimidin-4-yloxy)phenyl]-3-methoxyacrylate, characterized in that the method comprises: a. calcining, grinding and heating a basic catalyst to activate it, obtaining an activated catalyst; b. performing a substitution reaction between methyl 3,3-dimethoxy-2-(2-hydroxyphenyl)propionate and 4,6-dichloropyrimidine in the presence of said activated catalyst, to obtain methyl 2-[2-(6-chloropyrimidin-4-yloxy)phenyl]-3,3-dimethoxypropionate; and c. dealcoholizing the obtained methyl 2-[2-(6-chloropyrimidin-4-yloxy)phenyl]-3,3-dimethoxypropionate, to obtain -methyl 2-[2-(6-chloropyrimidin -4-yloxy) phenyl]-3-methoxyacrylate; characterized in that the temperature of the calcining is 300°C-450°C and that the duration of the calcining is 2.5h~4h, wherein the activated catalyst is selected from the group consisting of K 2 CO 3, Na 2 CO 3, NaHCO 3, KHSO 4 and KHCO 3. a. calcining, grinding and heating a basic catalyst to activate it, obtaining an activated catalyst; b. performing a substitution reaction between methyl 3,3-dimethoxy-2-(2-hydroxyphenyl)propionate and 4,6-dichloropyrimidine in the presence of said activated catalyst, to obtain methyl 2-[2-(6-chloropyrimidin-4-yloxy)phenyl]-3,3-dimethoxypropionate; and c. dealcoholizing the obtained methyl 2-[2-(6-chloropyrimidin-4-yloxy)phenyl]-3,3-dimethoxypropionate, to obtain -methyl 2-[2-(6-chloropyrimidin -4-yloxy) phenyl]-3-methoxyacrylate; characterized in that the temperature of the calcining is 300°C-450°C and that the duration of the calcining is 2.5h~4h, wherein the activated catalyst is selected from the group consisting of K 2 CO 3, Na 2 CO 3, NaHCO 3, KHSO 4 and KHCO 3.
An oral formulation for use in a method for preventing or treating an adverse oral condition in a mammalian individual susceptible to or afflicted with said adverse oral condition, said oral formulation being an oral solution, suspension, paste or gel, and comprising: a biocompatible chelating agent at a concentration of at least 0.1% by weight; an effective concentration of a permeation enhancer which is methylsulfonylmethane; and a pharmaceutically acceptable carrier which is at least partially aqueous; wherein either (i) the formulation is a hydrogel and comprises a swellable, gel-forming polymer, or (ii) the formulation is able to form a hydrogel in situ following administration, and comprises a thermo-reversible hydrogel-forming polymer; and wherein said method comprises topically administering the formulation to any part of the oral cavity of the individual. a biocompatible chelating agent at a concentration of at least 0.1% by weight; an effective concentration of a permeation enhancer which is methylsulfonylmethane; and a pharmaceutically acceptable carrier which is at least partially aqueous; wherein either (i) the formulation is a hydrogel and comprises a swellable, gel-forming polymer, or (ii) the formulation is able to form a hydrogel in situ following administration, and comprises a thermo-reversible hydrogel-forming polymer; and wherein said method comprises topically administering the formulation to any part of the oral cavity of the individual.