mhurhangee/ep-ind-claims huggingface dataset:
A method to determine the activity of a pharmaceutical composition comprising surfactant protein-D (SP-D), the method comprising: measuring the relative proportion of oligomeric species of SP-D in the pharmaceutical composition by performing an asymmetric flow field-flow fractionation with multi-angle laser light scattering (AF4-MALLS) analysis; and calculating the relative proportion of SP-D dodecamers in the pharmaceutical composition, thereby determining the activity of the pharmaceutical composition, wherein the activity comprises activity in a toll-like receptor 4 assay, or in a bacterial aggregation assay, and wherein a composition having a higher relative proportion of SP-D dodecamers has a higher activity compared to a composition having a lower relative proportion of SP-D dodecamers. measuring the relative proportion of oligomeric species of SP-D in the pharmaceutical composition by performing an asymmetric flow field-flow fractionation with multi-angle laser light scattering (AF4-MALLS) analysis; and calculating the relative proportion of SP-D dodecamers in the pharmaceutical composition, thereby determining the activity of the pharmaceutical composition, wherein the activity comprises activity in a toll-like receptor 4 assay, or in a bacterial aggregation assay, and wherein a composition having a higher relative proportion of SP-D dodecamers has a higher activity compared to a composition having a lower relative proportion of SP-D dodecamers.
An uplink pre-coding method, performed by a terminal device, comprising: transmitting a sounding reference signal, SRS, on at least one SRS resource; receiving downlink control information, DCI, for scheduling uplink data transmission from a network side, wherein the DCI comprises an SRS resource indication, SRI; determining a pre-coding scheme for uplink data according to at least one SRS resource and the SRI; pre-coding the uplink data according to the pre-coding scheme; and sending the pre-coded uplink data; the method being characterized in that determining the pre-coding scheme for the uplink data according to at least one SRS resource and the SRI comprises: determining one or more target SRS resources from the at least one SRS resource according to the SRI; and determining the pre-coding scheme for the uplink data according to the pre-coding scheme for the one or more target SRS resources; and in that the DCI does not comprise information for indicating a pre-coding matrix for the uplink data or indication information of a transmission layer number. transmitting a sounding reference signal, SRS, on at least one SRS resource; receiving downlink control information, DCI, for scheduling uplink data transmission from a network side, wherein the DCI comprises an SRS resource indication, SRI; determining a pre-coding scheme for uplink data according to at least one SRS resource and the SRI; pre-coding the uplink data according to the pre-coding scheme; and sending the pre-coded uplink data; the method being characterized in that determining the pre-coding scheme for the uplink data according to at least one SRS resource and the SRI comprises: determining one or more target SRS resources from the at least one SRS resource according to the SRI; and determining the pre-coding scheme for the uplink data according to the pre-coding scheme for the one or more target SRS resources; and in that the DCI does not comprise information for indicating a pre-coding matrix for the uplink data or indication information of a transmission layer number.
Ladle bottom made of a refractory ceramic body with an upper surface, a lower surface and a pouring channel extending between upper surface and lower surface, further comprising a diffusor box, being defined by a deepened section of said upper surface, wherein the said diffusor box is characterized by the following features: a) it is arranged at a horizontal distance to a surface area of the ladle bottom used as an impact area for a metal melt poured onto said ladle bottom, b) it defines a secondary upper surface of the ladle bottom, vertically below the upper surface, c) wherein the secondary upper surface has a minimum horizontal area A min = Π 4 ⁢ 0, 37 r 2 + 0, 3 and a maximum horizontal area A max = Π 4 ⁢ 0, 8 r 2 + 0, 3 wherein r = radius of the ladle bottom and r ≥ 0,75 m with r max =2m for all ladle bottoms with an effective radius of ≥ 2m, d) an indentation, extending from said secondary upper surface towards the lower surface of the ladle bottom and defining a tertiary upper surface of the ladle bottom, vertically below the secondary upper surface, wherein e) the pouring channel runs through said diffusor box and indentation. a) it is arranged at a horizontal distance to a surface area of the ladle bottom used as an impact area for a metal melt poured onto said ladle bottom, b) it defines a secondary upper surface of the ladle bottom, vertically below the upper surface, c) wherein the secondary upper surface has a minimum horizontal area A min = Π 4 ⁢ 0, 37 r 2 + 0, 3 and a maximum horizontal area A max = Π 4 ⁢ 0, 8 r 2 + 0, 3 wherein r = radius of the ladle bottom and r ≥ 0,75 m with r max =2m for all ladle bottoms with an effective radius of ≥ 2m, d) an indentation, extending from said secondary upper surface towards the lower surface of the ladle bottom and defining a tertiary upper surface of the ladle bottom, vertically below the secondary upper surface, wherein e) the pouring channel runs through said diffusor box and indentation.
Ground cover comprising an inner frame, arranged to be filled with a ground surface material, and an outer frame, arranged to be embedded in a ground surface layer and arranged to support and laterally enclose the inner frame, wherein a gap of predetermined dimensions is provided between side walls of the inner frame and the outer frame so that the inner frame is removably contained within the outer frame, characterized in that the ground cover comprises a first seal at its top side, in a first seal material, forming a resilient closure of the gap between the side walls of the inner and outer frames.
A seamless tubular product for high-temperature applications made of a steel having the following chemical composition in weight percent: C: 0.10 to 0.16% Si: 0.20 to 0.60% Mn: 0.30 to 0.80% P ≤0.020% S ≤0.010% Al ≤0.020% Cr: 10.50 to 12.00% Mo: 0.10 to 0.60% V: 0.15 to 0.30% Ni: 0.10 to 0.40% B: 0.008 to 0.015% N: 0.002 to 0.020% Co: 1.50 to 3.00% W: 1.50 to 2.50% Nb: 0.02 to 0.07% Ti: 0.001 to 0.020% the balance of said steel being iron and unavoidable impurities. C: 0.10 to 0.16% Si: 0.20 to 0.60% Mn: 0.30 to 0.80% P ≤0.020% S ≤0.010% Al ≤0.020% Cr: 10.50 to 12.00% Mo: 0.10 to 0.60% V: 0.15 to 0.30% Ni: 0.10 to 0.40% B: 0.008 to 0.015% N: 0.002 to 0.020% Co: 1.50 to 3.00% W: 1.50 to 2.50% Nb: 0.02 to 0.07% Ti: 0.001 to 0.020% the balance of said steel being iron and unavoidable impurities.
A method for semiconductor processing, the method comprising: fabricating, in a photonically-enabled bulk complementary metal-oxide semiconductor (CMOS) process (200, 300, 350) comprising electronics process steps and photonics process steps, optical and optoelectronic devices and electronic devices in a single silicon-on-insulator complementary metal-oxide semiconductor (CMOS) wafer with different silicon layer thicknesses of silicon-on-insulator layers for said optical and said optoelectronic devices and said electronic devices, wherein the silicon layer thicknesses enable bulk optical and optoelectronic devices and bulk electronic devices, said silicon-on-insulator complementary metal-oxide semiconductor (CMOS) wafer having a thicker silicon layer thickness for said optical and said optoelectronic devices compared to a silicon layer thickness for said electronic devices, dicing a complementary metal-oxide semiconductor (CMOS) chip comprising an optoelectronic transceiver from said silicon-on-insulator complementary metal-oxide semiconductor (CMOS) wafer, wherein said optical and said optoelectronic devices and said electronic devices are integrated in said optoelectronic transceiver in the complementary metal-oxide semiconductor (CMOS) chip, wherein said optoelectronic transceiver is configured to communicate optical signals vertically to and from a chip surface of said complementary metal-oxide semiconductor (CMOS) chip by modulating a received continuous wave laser input signal. fabricating, in a photonically-enabled bulk complementary metal-oxide semiconductor (CMOS) process (200, 300, 350) comprising electronics process steps and photonics process steps, optical and optoelectronic devices and electronic devices in a single silicon-on-insulator complementary metal-oxide semiconductor (CMOS) wafer with different silicon layer thicknesses of silicon-on-insulator layers for said optical and said optoelectronic devices and said electronic devices, wherein the silicon layer thicknesses enable bulk optical and optoelectronic devices and bulk electronic devices, said silicon-on-insulator complementary metal-oxide semiconductor (CMOS) wafer having a thicker silicon layer thickness for said optical and said optoelectronic devices compared to a silicon layer thickness for said electronic devices, dicing a complementary metal-oxide semiconductor (CMOS) chip comprising an optoelectronic transceiver from said silicon-on-insulator complementary metal-oxide semiconductor (CMOS) wafer, wherein said optical and said optoelectronic devices and said electronic devices are integrated in said optoelectronic transceiver in the complementary metal-oxide semiconductor (CMOS) chip, wherein said optoelectronic transceiver is configured to communicate optical signals vertically to and from a chip surface of said complementary metal-oxide semiconductor (CMOS) chip by modulating a received continuous wave laser input signal.
A method for regulating user data traffic in a wireless network comprising a wireless communication device, WCD,, the method performed by the WCD comprises: receiving (204, 502) admittance information, AI, indicating a threshold value to regulate the uplink traffic representing at least one condition of: a maximum number of small data transmissions or packets or messages per unit of time, under which the WCD is admitted to transmit user data to a base station of a radio access network, RAN; initiating the uplink, UL, transmission of user data via the wireless network; performing admission control (302, 506) for regulating said UL transmission of user data based on the received AI. receiving (204, 502) admittance information, AI, indicating a threshold value to regulate the uplink traffic representing at least one condition of: a maximum number of small data transmissions or packets or messages per unit of time, under which the WCD is admitted to transmit user data to a base station of a radio access network, RAN; initiating the uplink, UL, transmission of user data via the wireless network; performing admission control (302, 506) for regulating said UL transmission of user data based on the received AI.
A computer-implemented method for analyzing digital holographic microscopy, DHM, data for hematology applications, the method comprising: receiving a plurality of DHM images acquired using a digital holographic microscopy system, each DHM image comprising depictions of one or more cell objects and background; generating a reference image based on the plurality of DHM images comprising only contributions from the background of the plurality of DHM images; using the reference image to reconstruct a fringe pattern in the DHM image into an optical depth map, the method is characterized in that: wherein the reference image is generated by: under conditions where the reference image is expected to change slowly during acquisition of the plurality of DHM images, applying a filtering algorithm to the plurality of DHM images to dynamically estimate the reference image, wherein applying the filtering algorithm comprises: computing intensity statistics for each pixel across the plurality of DHM images; selecting stable distribution values from the intensity statistics, wherein selected stable distribution values correspond to the background. receiving a plurality of DHM images acquired using a digital holographic microscopy system, each DHM image comprising depictions of one or more cell objects and background; generating a reference image based on the plurality of DHM images comprising only contributions from the background of the plurality of DHM images; using the reference image to reconstruct a fringe pattern in the DHM image into an optical depth map, computing intensity statistics for each pixel across the plurality of DHM images; selecting stable distribution values from the intensity statistics, wherein selected stable distribution values correspond to the background.
A reactor system for the catalytic hydration of olefins, the reactor system comprising: a catalytic reaction zone separated by a permeable membrane, said membrane separating the catalytic reaction zone into permeate and retentate sides of the reaction zone, wherein the retentate side includes a solid acid olefin hydration catalyst; a first outlet configured for the removal of fluids from the permeate side of the reaction zone; and a second outlet configured for the removal of fluids from the retentate side of the reaction zone; the permeable membrane being operable to selectively remove at least one olefin hydration product, wherein the membrane is selectively permeable for alcohols and where the membrane does not allow the passage of water, hydrogen or nitrogen gas. a catalytic reaction zone separated by a permeable membrane, said membrane separating the catalytic reaction zone into permeate and retentate sides of the reaction zone, wherein the retentate side includes a solid acid olefin hydration catalyst; a first outlet configured for the removal of fluids from the permeate side of the reaction zone; and a second outlet configured for the removal of fluids from the retentate side of the reaction zone; the permeable membrane being operable to selectively remove at least one olefin hydration product, wherein the membrane is selectively permeable for alcohols and where the membrane does not allow the passage of water, hydrogen or nitrogen gas.
A two-component aqueous textured layer forming composition comprising: a first component of (i) an acrylic emulsion copolymer blend of (a) a first acrylic emulsion copolymer A having a calculated glass transition temperature (calculated Tg) of from -60 to -5 °C and, (b) a second acrylic emulsion copolymer B having a calculated Tg of from 15 to 60 °C in a solids weight ratio of copolymer A: copolymer B of from 25:75 to 90:10; (ii) vulcanized or crosslinked rubber granules, in an amount wherein a solids weight ratio of the acrylic emulsion copolymer blend:vulcanized or crosslinked rubber granules ranges from less than 1:4 to 1:9, (iii) one or more polyalkylene oxide rheology modifier having a viscosity average molecular weight of from 400,000 to 5,000,000; and (iv) one or more high boiling alcohols having a normal boiling point of from 170 to 315°C, and, further, having a formula MW of 100 to 250; and, as a second component, (v) a crosslinking agent comprising both an aliphatic water-dispersible polyisocyanate composition and an epoxy silane. a first component of (i) an acrylic emulsion copolymer blend of (a) a first acrylic emulsion copolymer A having a calculated glass transition temperature (calculated Tg) of from -60 to -5 °C and, (b) a second acrylic emulsion copolymer B having a calculated Tg of from 15 to 60 °C in a solids weight ratio of copolymer A: copolymer B of from 25:75 to 90:10; (ii) vulcanized or crosslinked rubber granules, in an amount wherein a solids weight ratio of the acrylic emulsion copolymer blend:vulcanized or crosslinked rubber granules ranges from less than 1:4 to 1:9, (iii) one or more polyalkylene oxide rheology modifier having a viscosity average molecular weight of from 400,000 to 5,000,000; and (iv) one or more high boiling alcohols having a normal boiling point of from 170 to 315°C, and, further, having a formula MW of 100 to 250; and, as a second component, (v) a crosslinking agent comprising both an aliphatic water-dispersible polyisocyanate composition and an epoxy silane.
A call processing node for a mobile communication system, the call processing node comprising: means for accepting a request of call processing subjected to control of a control node of the mobile communication system; means for registering the own node in a call processing management database of the mobile communication system as a call processing node that is executing the call processing for a mobile communication terminal related to the call processing request upon acceptance of the call processing request; means for acquiring information of the mobile communication terminal related to the accepted call processing request from the call processing management database, and for acquiring information of the mobile communication terminal related to the call processing request from another call processing node that is registered as a call processing node that is executing the call processing for the mobile communication terminal in the call processing management database; means for performing call processing related to the request using the acquired information; and means for storing information of a result of the call processing in the call processing management database, and ends registration in the call processing management database as a call processing node that is executing the call processing for the mobile communication terminal related to the call processing request when the call processing performed by the call processing means ends. means for accepting a request of call processing subjected to control of a control node of the mobile communication system; means for registering the own node in a call processing management database of the mobile communication system as a call processing node that is executing the call processing for a mobile communication terminal related to the call processing request upon acceptance of the call processing request; means for acquiring information of the mobile communication terminal related to the accepted call processing request from the call processing management database, and for acquiring information of the mobile communication terminal related to the call processing request from another call processing node that is registered as a call processing node that is executing the call processing for the mobile communication terminal in the call processing management database; means for performing call processing related to the request using the acquired information; and means for storing information of a result of the call processing in the call processing management database, and ends registration in the call processing management database as a call processing node that is executing the call processing for the mobile communication terminal related to the call processing request when the call processing performed by the call processing means ends.
A climbing shoe comprising: a shoe-upper shaped so as to accommodate and cover substantially the entire user's foot; a sole made of polymeric material, which is fixed to the bottom of the shoe-upper so as to cover at least the front part of the bottom of said shoe-upper; and a shoe-upper elastic tensioning system which is adapted to tighten the shoe-upper on the user's foot; the ogival front part of the shoe-upper being provided with a tip and, respectively, with an outer front side and with an inner front side that are arranged on opposite sides of the tip so as to flank the user's forefoot on both sides; the elastic tensioning system comprising a plantar tensioning band having an elastic and monolithic structure, which is made of elastomeric material, is firmly fixed to the bottom of the shoe-upper underneath the sole, and is shaped so as to connect the tip of the shoe-upper directly to a saddle-shaped patch, separated and distinct from said plantar tensioning band, which is made of a soft and flexible material and is placed on the rear part of the shoe-upper, in the area over the calcaneus of the user's foot; the climbing shoe being characterised in that a front portion of said plantar tensioning band covers the phalangeal section of the bottom of the shoe-upper and is moreover shaped/dimensioned so as to also extend along the upper-front area of the shoe-upper to cover both the tip and the outer and inner front sides of the shoe-upper. the ogival front part of the shoe-upper being provided with a tip and, respectively, with an outer front side and with an inner front side that are arranged on opposite sides of the tip so as to flank the user's forefoot on both sides; the elastic tensioning system comprising a plantar tensioning band having an elastic and monolithic structure, which is made of elastomeric material, is firmly fixed to the bottom of the shoe-upper underneath the sole, and is shaped so as to connect the tip of the shoe-upper directly to a saddle-shaped patch, separated and distinct from said plantar tensioning band, which is made of a soft and flexible material and is placed on the rear part of the shoe-upper, in the area over the calcaneus of the user's foot; the climbing shoe being characterised in that a front portion of said plantar tensioning band covers the phalangeal section of the bottom of the shoe-upper and is moreover shaped/dimensioned so as to also extend along the upper-front area of the shoe-upper to cover both the tip and the outer and inner front sides of the shoe-upper.