mhurhangee/patent-ind-claim-en huggingface dataset:
A resource configuration method, wherein the method comprises: obtaining, by a terminal device, resource configuration information transmitted by a network device, wherein the resource configuration information indicates resource mapping relationships between M bandwidth parts, BWPs, and N control resource sets, and M and N are positive integers; and monitoring, by the terminal device, based on the resource mapping relationships, a physical downlink control channel, PDCCH, over at least one control resource set corresponding to a target BWP used by the terminal device, the method characterised in that the resource configuration information comprises configuration information of each of the M BWPs, and configuration information of the i th BWP in the M BWPs comprises information about the i th BWP and information about at least one control resource set corresponding to the i th BWP, wherein i ranges from 0 to M-1; configuration information of the M BWPs is carried in M independent fields respectively, the configuration information of each BWP is carried in a dedicated continuous field of the configuration information of each BWP, and the dedicated field of the configuration information of each BWP carries information about a CORESET corresponding to the BWP. obtaining, by a terminal device, resource configuration information transmitted by a network device, wherein the resource configuration information indicates resource mapping relationships between M bandwidth parts, BWPs, and N control resource sets, and M and N are positive integers; and monitoring, by the terminal device, based on the resource mapping relationships, a physical downlink control channel, PDCCH, over at least one control resource set corresponding to a target BWP used by the terminal device, the method characterised in that the resource configuration information comprises configuration information of each of the M BWPs, and configuration information of the i th BWP in the M BWPs comprises information about the i th BWP and information about at least one control resource set corresponding to the i th BWP, wherein i ranges from 0 to M-1; configuration information of the M BWPs is carried in M independent fields respectively, the configuration information of each BWP is carried in a dedicated continuous field of the configuration information of each BWP, and the dedicated field of the configuration information of each BWP carries information about a CORESET corresponding to the BWP.
A method for performing microscopy-based imaging of samples comprising: loading a sample holder onto a support configured to receive the sample holder; moving the sample holder in a first direction (R 1 ), from a starting position on a first strip (S 1 ) of the sample holder, to move the sample holder relative to an imaging line of a line camera , to capture an image of the first strip of the sample holder; determining a focal plane using an autofocus system as the sample holder is moved in the first direction; in response to a signal from the autofocus system, moving an objective lens along the optical axis to adjust the focal plane; and moving the sample holder in a second direction (R 2 ), to align the imaging line of the line camera with a position on a second strip (S 2 ) of the sample holder, characterized in that : the first and second strips follow radial lines (L 1 , L 2 ), and the image of the first strip is captured by linearly translating the sample holder across the imaging line of the line camera, and the imaging line of the line camera is aligned with the position on the second strip of the sample holder by rotating the sample holder. loading a sample holder onto a support configured to receive the sample holder; moving the sample holder in a first direction (R 1 ), from a starting position on a first strip (S 1 ) of the sample holder, to move the sample holder relative to an imaging line of a line camera , to capture an image of the first strip of the sample holder; determining a focal plane using an autofocus system as the sample holder is moved in the first direction; in response to a signal from the autofocus system, moving an objective lens along the optical axis to adjust the focal plane; and moving the sample holder in a second direction (R 2 ), to align the imaging line of the line camera with a position on a second strip (S 2 ) of the sample holder, characterized in that : the first and second strips follow radial lines (L 1 , L 2 ), and the image of the first strip is captured by linearly translating the sample holder across the imaging line of the line camera, and the imaging line of the line camera is aligned with the position on the second strip of the sample holder by rotating the sample holder.
A method of repairing a casing for a gas turbine engine, wherein the casing has a wall extending generally axially, and between radially outwardly extending flanges , said radially outwardly extending flanges extending radially from said wall , and at least one radially extending flange being formed with a plurality of bolt holes , the method including the steps of: removing a portion of said flange including at least one of the plurality of bolt holes and removing a portion of said wall , a remaining portion of said flange including at least one non-removed bolt hole ; obtaining a replacement portion to replace the removed portion, said replacement portion including replacement portions of said flange and said wall ; and welding said replacement portion in an opening left in said flange by said removed portion; wherein the welding step is provided by welding the replacement portion into circumferential edges of the flange defining the removed portion, and wherein the welding step includes welding the replacement portion into a remaining portion of said wall , characterized in that the removed portions of said flange and said wall are associated with a defect, the removed portion of the wall and the replacement portion of the wall including a wall portion extending axially away from the flange . removing a portion of said flange including at least one of the plurality of bolt holes and removing a portion of said wall , a remaining portion of said flange including at least one non-removed bolt hole ; obtaining a replacement portion to replace the removed portion, said replacement portion including replacement portions of said flange and said wall ; and welding said replacement portion in an opening left in said flange by said removed portion; wherein the welding step is provided by welding the replacement portion into circumferential edges of the flange defining the removed portion, and wherein the welding step includes welding the replacement portion into a remaining portion of said wall , characterized in that the removed portions of said flange and said wall are associated with a defect, the removed portion of the wall and the replacement portion of the wall including a wall portion extending axially away from the flange .
A mass spectrometry system comprising: a laser source arranged to generate a laser beam (202; 402); a trapping volume (206; 404); and first and second beam deflectors (208, 210; 406; 408) arranged on a path from the laser source to the trapping volume (206; 404); characterized in that the first beam deflector (208; 406) is configured to oscillate in a first direction at a first frequency and the second beam deflector (210; 408) configured to oscillate in a second direction orthogonal to the first direction at a second frequency; the system further comprising a deflector controller configured to: scan a scanned area within the trapping volume (206; 404) with the laser beam (202; 402) by controlling the oscillation of the first and second beam deflectors (208, 210; 406, 408) to cause ions trapped within the trapping volume (206; 404) to become excited, the scanned area having a first dimension defined by the oscillation in first direction and a second dimension defined by the oscillation in the second direction. a laser source arranged to generate a laser beam (202; 402); a trapping volume (206; 404); and first and second beam deflectors (208, 210; 406; 408) arranged on a path from the laser source to the trapping volume (206; 404); characterized in that the first beam deflector (208; 406) is configured to oscillate in a first direction at a first frequency and the second beam deflector (210; 408) configured to oscillate in a second direction orthogonal to the first direction at a second frequency; the system further comprising a deflector controller configured to: scan a scanned area within the trapping volume (206; 404) with the laser beam (202; 402) by controlling the oscillation of the first and second beam deflectors (208, 210; 406, 408) to cause ions trapped within the trapping volume (206; 404) to become excited, the scanned area having a first dimension defined by the oscillation in first direction and a second dimension defined by the oscillation in the second direction.
A disc-shaped separating tool, for rotating (D) cutting of an elongated, stationarily clamped workpiece, at exclusively radial feed (VR) of the separating tool in relation to its rotation axis at least roughly in the direction of the clamped workpiece, with 1.1 geometrically undetermined separating blades in a radially outer circumferential area of the separating tool, 1.2 two opposing disc flanks in a radially inner area in relation to the circumferential area , and 1.3 with an axial attachment opening on the radial inside, characterised in that 1.4 the separating tool is formed as a separating-grinding-polishing disc , specifically 1.4.1 for rotating (D) cutting of the workpiece clamped at least roughly orthogonally to the radial feed (VR) along its rotation axis via the separating blades radially arranged on the outside, and 1.4.2 for rotating grinding, with the disc flanks being at least partly applied with grinding media and optionally also with polishing media . 1.1 geometrically undetermined separating blades in a radially outer circumferential area of the separating tool, 1.2 two opposing disc flanks in a radially inner area in relation to the circumferential area , and 1.3 with an axial attachment opening on the radial inside, characterised in that 1.4 the separating tool is formed as a separating-grinding-polishing disc , specifically 1.4.1 for rotating (D) cutting of the workpiece clamped at least roughly orthogonally to the radial feed (VR) along its rotation axis via the separating blades radially arranged on the outside, and 1.4.2 for rotating grinding, with the disc flanks being at least partly applied with grinding media and optionally also with polishing media . 1.4.1 for rotating (D) cutting of the workpiece clamped at least roughly orthogonally to the radial feed (VR) along its rotation axis via the separating blades radially arranged on the outside, and 1.4.2 for rotating grinding, with the disc flanks being at least partly applied with grinding media and optionally also with polishing media .
Device for relative positioning of multi-aperture optics comprising several optical channels (14a-f) in relation to an image sensor , comprising: a reference object arranged such that the reference object is imaged to an image region (22a-e) per channel (14a-f) by the multi-aperture optics in the optical channels (14a-f); a positioning device controllable to change a relative location between the multi-aperture optics and the image sensor ; a calculating device configured to determine actual positions of the reference object in at least three image regions (22a-e) in images of the reference object and to control the positioning device on the basis of a comparison of the actual positions with positions that are reference positions in a respective one and/or in other image regions. a reference object arranged such that the reference object is imaged to an image region (22a-e) per channel (14a-f) by the multi-aperture optics in the optical channels (14a-f); a positioning device controllable to change a relative location between the multi-aperture optics and the image sensor ; a calculating device configured to determine actual positions of the reference object in at least three image regions (22a-e) in images of the reference object and to control the positioning device on the basis of a comparison of the actual positions with positions that are reference positions in a respective one and/or in other image regions.
A process for the preparation of self-healing microcapsules with polyurethane as capsule wall material prepared by in-situ polymerization using non-aqueous continuous phase comprising the steps of: a) preparing a mixture of epoxy components to be encapsulated and polyisocyante; b) preparing a solution of diol or polyol with a cross-linker in aliphatic hydrocarbon; c) dispersing the mixture of step a) in a solution of a stabilizer and a catalyst in an aliphatic hydrocarbon; d) adding the solution of step (b) drop wise to the dispersion of step c) under agitation followed by treatment with anti-agglomerating agent to obtain microcapsules; and e) filtering and/or centrifuging, washing the microcapsules as obtained in step (d), with the aliphatic hydrocarbon and drying the microcapsules under vacuum at ambient temperature to obtain microcapsules with polyurethane as capsule wall material. a) preparing a mixture of epoxy components to be encapsulated and polyisocyante; b) preparing a solution of diol or polyol with a cross-linker in aliphatic hydrocarbon; c) dispersing the mixture of step a) in a solution of a stabilizer and a catalyst in an aliphatic hydrocarbon; d) adding the solution of step (b) drop wise to the dispersion of step c) under agitation followed by treatment with anti-agglomerating agent to obtain microcapsules; and e) filtering and/or centrifuging, washing the microcapsules as obtained in step (d), with the aliphatic hydrocarbon and drying the microcapsules under vacuum at ambient temperature to obtain microcapsules with polyurethane as capsule wall material.
A method of making a photochromic ophthalmic lens comprising a main body comprising an optical zone and a peripheral zone disposed adjacent the optical zone, wherein one or more of the optical zone and the peripheral zone comprises a photochromic dye; the method characterized in that it comprises: i) configuring the lens thickness profile based on a target level of transmission (%T) when the photochromic dye is activated; and ii) making said ophthalmic lens having said thickness profile. i) configuring the lens thickness profile based on a target level of transmission (%T) when the photochromic dye is activated; and ii) making said ophthalmic lens having said thickness profile.
A process for manufacturing olefin trimers comprising: feeding into a reactor containing a dimerization catalyst being an acid catalyst: olefin monomer feed comprising at least one of the following: C4 olefins, C5 olefins, a mixed feed of C4 and C5 olefins, isobutene, 1-butene, cis-2-butene, trans-2-butene; and at least one oxygen-containing moderator comprising water, demiwater, alcohol, tert-butyl alcohol, or any combination thereof; operating the reactor at a temperature selected from the range 40-140°C and at a pressure selected from the range 10-40bar for carrying out catalytic dimerization reactions between olefin monomers and olefin monomers, and addition reactions between olefin monomers and olefin dimers; withdrawing a reactor outlet stream from the reactor; and distilling the reactor outlet stream to separate at least one lighter product comprising olefin dimers, and a heavier bottom product comprising olefin trimers; wherein at least a portion of the lighter product is recycled into the reactor for providing a recycle feed, olefin monomers are fed into the reactor predominantly as a fresh olefin monomer feed, the amount of the fresh olefin monomer feed and the recycle feed fed into the reactor are controlled such that the mass ratio of olefin monomers to olefin dimers entering the reactor is selected from the range 1:8-1:15, and wherein the catalytic reactions are carried out at operational conditions wherein the olefins remain in liquid phase. feeding into a reactor containing a dimerization catalyst being an acid catalyst: olefin monomer feed comprising at least one of the following: C4 olefins, C5 olefins, a mixed feed of C4 and C5 olefins, isobutene, 1-butene, cis-2-butene, trans-2-butene; and at least one oxygen-containing moderator comprising water, demiwater, alcohol, tert-butyl alcohol, or any combination thereof; operating the reactor at a temperature selected from the range 40-140°C and at a pressure selected from the range 10-40bar for carrying out catalytic dimerization reactions between olefin monomers and olefin monomers, and addition reactions between olefin monomers and olefin dimers; withdrawing a reactor outlet stream from the reactor; and distilling the reactor outlet stream to separate at least one lighter product comprising olefin dimers, and a heavier bottom product comprising olefin trimers; wherein at least a portion of the lighter product is recycled into the reactor for providing a recycle feed, olefin monomers are fed into the reactor predominantly as a fresh olefin monomer feed, the amount of the fresh olefin monomer feed and the recycle feed fed into the reactor are controlled such that the mass ratio of olefin monomers to olefin dimers entering the reactor is selected from the range 1:8-1:15, and wherein the catalytic reactions are carried out at operational conditions wherein the olefins remain in liquid phase.
A method of generating two-dimensional scanning videokymography (2D VKG) images using real-time or pre-stored laryngeal endoscopy images in a 2D VKG image generation server, the method comprising: (a) acquiring (S310) monochromatic or color laryngeal endoscopy images; (b) setting (S320) a target region and a pixel unit for generating 2D VKG images from the laryngeal endoscopy images, the pixel unit corresponding to one pixel line or a predetermined number of pixel lines of the target region or corresponding to at least one pixel of a pixel line of the target region; (c) extracting (S330) pixel information of each frame of the laryngeal endoscopy images from the pixel unit in the target region; (d) generating (S430) frames of 2D VKG images by combining the extracted pixel information of each frame; and (e) generating (S350) a 2D VKG video by combining the frames of the 2D VKG images, wherein step (a) comprises receiving the laryngeal endoscopy images in real time from a camera connected to the 2D VKG image generation server or loading laryngeal endoscopy images pre-stored in the 2D VKG image generation server. (a) acquiring (S310) monochromatic or color laryngeal endoscopy images; (b) setting (S320) a target region and a pixel unit for generating 2D VKG images from the laryngeal endoscopy images, the pixel unit corresponding to one pixel line or a predetermined number of pixel lines of the target region or corresponding to at least one pixel of a pixel line of the target region; (c) extracting (S330) pixel information of each frame of the laryngeal endoscopy images from the pixel unit in the target region; (d) generating (S430) frames of 2D VKG images by combining the extracted pixel information of each frame; and (e) generating (S350) a 2D VKG video by combining the frames of the 2D VKG images,
Compositions comprising 1) as component I compound I-3: 2-[4-(4-chlorophenoxy)-2-(trifluoromethyl)phenyl]-1-(1,2,4-triazol-1-yl)propan-2-ol; and 2) as component II an active ingredient, selected from: azoxystrobin, dimoxystrobin, fluoxastrobin, isofetamid, kresoxim-methyl, picoxystrobin, pyraclostrobin, trifloxystrobin, cyazofamid, benzovindiflupyr, bixafen, boscalid, fluopyram, fluxapyroxad, isopyrazam, sedaxane, fluazinam, cyproconazole, difenoconazole, epoxiconazole, metconazole, propiconazole, prothioconazole, tebuconazole, tetraconazole, triticonazole, fenpropimorph, fenpropidin, metalaxyl, metalaxyl-M (mefenoxam), metrafenone, iprovalicarb, oxathiapiprolin, copper oxychloride, sulfur, mancozeb, chlorothalonil, tricyclazole, picarbutrazox, Bacillus amyloliquefaciens, B. pumilus, B. subtilis, Paenibacillus polymyxa, T. gamsii, prohexadione-calcium, mepiquat (mepiquat chloride), trinexapac-ethyl, flupyradifurone, thiamethoxam, nitenpyram, wherein the weight ratio of component I to component II is from 4:1 to 1:4. 1) as component I compound I-3: 2-[4-(4-chlorophenoxy)-2-(trifluoromethyl)phenyl]-1-(1,2,4-triazol-1-yl)propan-2-ol; and 2) as component II an active ingredient, selected from: azoxystrobin, dimoxystrobin, fluoxastrobin, isofetamid, kresoxim-methyl, picoxystrobin, pyraclostrobin, trifloxystrobin, cyazofamid, benzovindiflupyr, bixafen, boscalid, fluopyram, fluxapyroxad, isopyrazam, sedaxane, fluazinam, cyproconazole, difenoconazole, epoxiconazole, metconazole, propiconazole, prothioconazole, tebuconazole, tetraconazole, triticonazole, fenpropimorph, fenpropidin, metalaxyl, metalaxyl-M (mefenoxam), metrafenone, iprovalicarb, oxathiapiprolin, copper oxychloride, sulfur, mancozeb, chlorothalonil, tricyclazole, picarbutrazox, Bacillus amyloliquefaciens, B. pumilus, B. subtilis, Paenibacillus polymyxa, T. gamsii, prohexadione-calcium, mepiquat (mepiquat chloride), trinexapac-ethyl, flupyradifurone, thiamethoxam, nitenpyram, wherein the weight ratio of component I to component II is from 4:1 to 1:4. azoxystrobin, dimoxystrobin, fluoxastrobin, isofetamid, kresoxim-methyl, picoxystrobin, pyraclostrobin, trifloxystrobin, cyazofamid, benzovindiflupyr, bixafen, boscalid, fluopyram, fluxapyroxad, isopyrazam, sedaxane, fluazinam, cyproconazole, difenoconazole, epoxiconazole, metconazole, propiconazole, prothioconazole, tebuconazole, tetraconazole, triticonazole, fenpropimorph, fenpropidin, metalaxyl, metalaxyl-M (mefenoxam), metrafenone, iprovalicarb, oxathiapiprolin, copper oxychloride, sulfur, mancozeb, chlorothalonil, tricyclazole, picarbutrazox, Bacillus amyloliquefaciens, B. pumilus, B. subtilis, Paenibacillus polymyxa, T. gamsii, prohexadione-calcium, mepiquat (mepiquat chloride), trinexapac-ethyl, flupyradifurone, thiamethoxam, nitenpyram, wherein the weight ratio of component I to component II is from 4:1 to 1:4.
A hearing protector having an ear cup forming a space for a wearer's ear, the ear cup comprising a shell having an ear facing inner side and a passageway extending through the shell between the ear facing inner side and an outer side of the shell , the ear cup further comprising a loudspeaker assembly which seals the passageway from the outer side , the loud speaker assembly comprising a seal member and a loudspeaker module , wherein a portion of the seal member is arranged between the shell and a fastener which retains the loudspeaker assembly at the shell , wherein the fastener comprises electronic circuitry and first electrical contacts for contacting with the loudspeaker module , and wherein the loudspeaker module comprises second electrical contacts , and wherein the first and second electrical contacts are in releasable contact with each other.