mhurhangee/ep-ind-claims huggingface dataset:
An agent for use in treating inflammation, wherein said agent activates CD47, wherein said agent is a modified TSP1 protein or a fragment thereof, wherein the amino acid residues VT in position 242-243 of SEQ ID NO: 8 and/or the amino acid residues QV in position 288-289 of SEQ ID NO: 8 are deleted, or wherein the amino acid residue V in position 242 and/or the amino acid residue V in position 289 of SEQ ID NO: 8 is/are substituted; wherein said agent is an activating peptide selected from 4N1K, PKHB1 and PKT16; or wherein said agent is a multimeric peptide or polypeptide comprising at least two peptide monomers linked through a linker, wherein said at least two peptide monomers activate CD47 and are selected from the group consisting of 4N1K, PKHB1 and PKT16, and wherein said inflammation is retinal inflammation. wherein said agent is an activating peptide selected from 4N1K, PKHB1 and PKT16; or wherein said agent is a multimeric peptide or polypeptide comprising at least two peptide monomers linked through a linker, wherein said at least two peptide monomers activate CD47 and are selected from the group consisting of 4N1K, PKHB1 and PKT16, and wherein said inflammation is retinal inflammation.
A sputter deposition magnetron system for sputtering material, the sputter deposition magnetron system comprising at least a first and a second sputter magnetron unit, the first respectively second sputter magnetron unit comprising a first respectively second magnet configuration (102, 106) and a first respectively second mounting element for mounting a target (101, 105) so that the magnetic field of the first respectively second magnet configuration (102, 106) contributes to the formation of a plasma allowing sputtering of the first respectively second target (101, 105), wherein the sputter deposition magnetron system furthermore comprises at least an extra magnet configuration distanced from the mounting element for targets, wherein the first, the second and the at least one extra magnet configuration are arranged for each contributing to a confined plasma configuration characterized in that, in operation, at least part of the plasma and closed loop electron trajectories are being shared across the first and the second sputter magnetron unit, and the shortest distance between target surfaces of different targets when supported by the magnetron sputter units being smaller than 100 mm.
A method for producing porous glass bodies, comprising the steps of: dispersing 2 to 40% by volume of a particulate glass powder in 50 to 97.99% by volume of a liquid primary phase and then admixing 0.01 to 10% by volume of a liquid secondary phase to the resulting suspension of particulate glass powder and liquid primary phase, based in each case on the total volume of the suspension, wherein the primary phase and the secondary phase are not miscible with each other, thus forming a capillary suspension, processing the capillary suspension into a shaped body, removing the primary phase and the secondary phase from the suspension, and sintering, whereby a porous glass body is formed, wherein a non-polar liquid is used as the primary phase and a polar liquid is used as the secondary phase, and the liquid non-polar primary phase is selected from paraffin oils, silicone oils, mineral oils or a molten wax, selected from paraffin waxes, carnauba waxes, montan waxes, polyethylene waxes, polypropylene waxes or polyamide waxes. dispersing 2 to 40% by volume of a particulate glass powder in 50 to 97.99% by volume of a liquid primary phase and then admixing 0.01 to 10% by volume of a liquid secondary phase to the resulting suspension of particulate glass powder and liquid primary phase, based in each case on the total volume of the suspension, wherein the primary phase and the secondary phase are not miscible with each other, thus forming a capillary suspension, processing the capillary suspension into a shaped body, removing the primary phase and the secondary phase from the suspension, and sintering, whereby a porous glass body is formed, wherein a non-polar liquid is used as the primary phase and a polar liquid is used as the secondary phase, and the liquid non-polar primary phase is selected from paraffin oils, silicone oils, mineral oils or a molten wax, selected from paraffin waxes, carnauba waxes, montan waxes, polyethylene waxes, polypropylene waxes or polyamide waxes.
Charging device for an energy store having - a first energy converter which is connected to the energy store and which is designed to drive a first load; - a second energy converter which is connected to the energy store and which is designed to drive a second load; - a first supply system connection device which is designed to connect an energy supply system to the first energy converter; - a second supply system connection device which is designed to connect the energy supply system to the second energy converter; - wherein the first energy converter is designed to charge the energy store with energy which is provided by the energy supply system; and - wherein the second energy converter is designed to compensate for an adverse effect, which is generated by the first energy converter, in the energy supply system during charging of the energy store; - wherein the first supply system connection device provides a connection between the first energy converter and the energy supply system interrupts a connection between the first energy converter and the first load during charging of the energy store; and - wherein the second supply system connection device provides a connection between the second energy converter and the energy supply system interrupts a connection between the second energy converter and the second load during charging of the energy store, characterized in that the second energy converter is further designed to generate a compensation signal for compensating for the adverse effect which is generated by the first energy converter, based on a predetermined control frequency of the first energy converter. - a first energy converter which is connected to the energy store and which is designed to drive a first load; - a second energy converter which is connected to the energy store and which is designed to drive a second load; - a first supply system connection device which is designed to connect an energy supply system to the first energy converter; - a second supply system connection device which is designed to connect the energy supply system to the second energy converter; - wherein the first energy converter is designed to charge the energy store with energy which is provided by the energy supply system; and - wherein the second energy converter is designed to compensate for an adverse effect, which is generated by the first energy converter, in the energy supply system during charging of the energy store; - wherein the first supply system connection device provides a connection between the first energy converter and the energy supply system interrupts a connection between the first energy converter and the first load during charging of the energy store; and - wherein the second supply system connection device provides a connection between the second energy converter and the energy supply system interrupts a connection between the second energy converter and the second load during charging of the energy store,
A tunable optical filter, comprising a substrate, a tunable filter unit, a temperature control unit, and an enclosure, wherein: the substrate, the tunable filter unit, and the temperature control unit are placed inside the enclosure, wherein the enclosure comprises a light incidence window and a light emergence window; the substrate is disposed adjacent to the light incidence window or the light emergence window, and configured to support the tunable filter unit; the temperature control unit is disposed on a surface of the tunable filter unit, and configured to adjust a channel wavelength of the tunable filter unit by means of temperature control; and optical paths of the light incidence window, the tunable filter unit and the light emergence window are aligned. the substrate, the tunable filter unit, and the temperature control unit are placed inside the enclosure, wherein the enclosure comprises a light incidence window and a light emergence window; the substrate is disposed adjacent to the light incidence window or the light emergence window, and configured to support the tunable filter unit; the temperature control unit is disposed on a surface of the tunable filter unit, and configured to adjust a channel wavelength of the tunable filter unit by means of temperature control; and optical paths of the light incidence window, the tunable filter unit and the light emergence window are aligned.
A manufacturing method of an SOI wafer, comprising the steps of: bonding a wafer for active layer with a supporting wafer via an insulating film interposed therebetween to thereby form a bonded wafer; and then reducing a film thickness in a part of said active layer wafer of said bonded wafer to thereby form an SOI layer for manufacturing said SOI wafer, characterized in that said supporting wafer, which contains boron by an amount of 9x10 18 atoms/cm 3 or more, is subjected to annealing at 1100°C or higher in a reducing gas atmosphere containing hydrogen gas before said step of bonding. bonding a wafer for active layer with a supporting wafer via an insulating film interposed therebetween to thereby form a bonded wafer; and then reducing a film thickness in a part of said active layer wafer of said bonded wafer to thereby form an SOI layer for manufacturing said SOI wafer, characterized in that said supporting wafer, which contains boron by an amount of 9x10 18 atoms/cm 3 or more, is subjected to annealing at 1100°C or higher in a reducing gas atmosphere containing hydrogen gas before said step of bonding.
A method of operation of a processing system to schedule downlink transmissions to wireless devices in a shared cell in an unlicensed frequency spectrum, the shared cell being served by a plurality of Reception/Transmission, R/T, points, comprising: receiving (106-1 through 106-N) independent Clear Channel Assessment, CCA, decisions from the plurality of R/T points serving the shared cell, each CCA decision from each R/T point being indicative of whether a CCA succeeded or failed at the R/T point; and performing scheduling for one or more upcoming Transmit Time Intervals, TTIs, based on the CCA decisions received from the plurality of R/T points serving the shared cell. receiving (106-1 through 106-N) independent Clear Channel Assessment, CCA, decisions from the plurality of R/T points serving the shared cell, each CCA decision from each R/T point being indicative of whether a CCA succeeded or failed at the R/T point; and performing scheduling for one or more upcoming Transmit Time Intervals, TTIs, based on the CCA decisions received from the plurality of R/T points serving the shared cell.
Device for monitoring a spatial region, in particular for securing a hazardous area of an installation operating in an automated manner, comprising an image recording unit for recording an image of the spatial region and comprising an evaluation and control unit, which triggers a safety function in a manner dependent on the image, wherein the image recording unit has an imaging optical unit with a lens and an image sensor with a plurality of pixels, wherein the evaluation and control unit has an image brightness monitoring unit which triggers the safety function if an image brightness value of the image drops below an image brightness threshold, wherein the evaluation and control unit has an image contrast monitoring unit, which triggers a safety function if an image contrast value of the image drops below an image contrast threshold, and wherein the evaluation and control unit moreover has a position monitoring unit, which triggers a safety function if the position of a reference object detected in the image changes, characterized in that the imaging optical unit has an object-side front glass surface and an entrance pupil, which lies on or in the region of the object-side front glass surface, such that a singular contamination of the front glass surface shadows the plurality of pixels in a largely uniform manner, and characterized by at least one reference object, arranged in the spatial region, with a defined image contrast value, which is monitored by the evaluation and control unit in order to detect very small dirt particles on the front glass surface, and with a known position, which is monitored by the evaluation and control unit in order to detect water droplets and other transparent contaminants on the front glass surface.
A material processor comprising: a first jaw comprising: a main body having blade holder seat surface, a detachable blade holder (210, 220) detachably mounted to the blade holder seat surface, the detachable blade holder including a blade seat surface, and a detachable blade insert (230, 240) seated on the blade seat surface and detachably mounted to the blade holder, the blade insert having a first material-processing surface feature,; a second jaw with a second material-processing surface feature, wherein the first and second jaws are pivotally connected to each other such that at least one of the jaws is pivotally movable relative to the other jaw; and a piston/cylinder operatively connected to the first and second jaws and configured to pivotally drive the at least one of the jaws relative to the other jaw about a pivot axis; the material processor characterised in that the detachable blade insert is at least two-way indexable such that the first blade insert includes at least a first cutting edge (230b, 230c) and a second cutting edge (240b, 240c). a first jaw comprising: a main body having blade holder seat surface, a detachable blade holder (210, 220) detachably mounted to the blade holder seat surface, the detachable blade holder including a blade seat surface, and a detachable blade insert (230, 240) seated on the blade seat surface and detachably mounted to the blade holder, the blade insert having a first material-processing surface feature,; a main body having blade holder seat surface, a detachable blade holder (210, 220) detachably mounted to the blade holder seat surface, the detachable blade holder including a blade seat surface, and a detachable blade insert (230, 240) seated on the blade seat surface and detachably mounted to the blade holder, the blade insert having a first material-processing surface feature,; a second jaw with a second material-processing surface feature, wherein the first and second jaws are pivotally connected to each other such that at least one of the jaws is pivotally movable relative to the other jaw; and a piston/cylinder operatively connected to the first and second jaws and configured to pivotally drive the at least one of the jaws relative to the other jaw about a pivot axis;
Apparatus for a washing machine, the apparatus comprising a suds container and an overflow edge which defines a maximum liquid level in the suds container, and the suds container and the overflow edge being produced as one piece from a plastics material, characterised in that the apparatus comprises a multi-part overflow housing that has a lower housing part and an upper housing part, the lower housing part being integrally connected to the suds container, and in that the overflow edge is arranged in the overflow housing and protrudes into the lower housing part, and in that a free flow path is arranged in the upper housing part in a water inlet to the suds container, the free flow path being arranged at a safety distance above the maximum liquid level.
A method for storing nanoparticles in a host structure, comprising: dispersing nanoparticles into a primary solvent; inserting a host structure into the primary solvent, wherein the host structure is a solid phase comprised of a porous material sized to receive the nanoparticles selected from a group consisting of molecular sieves, silica, alumina, zeolites, cross-linked dextran, aerogel, xerogel, metal-organic frameworks and ion exchange media; adsorbing the nanoparticles from the primary solvent onto or within the host structure; separating the host structure from the primary solvent; storing the host structure with the adsorbed nanoparticles in a sealed container; and releasing the nanoparticles from the host structure into a secondary solvent after the step of storing the host structure with the adsorbed nanoparticles in a sealed container, wherein the nanoparticles are selected from the group consisting of metal chalcogenides and doped metal chalcogenides. dispersing nanoparticles into a primary solvent; inserting a host structure into the primary solvent, wherein the host structure is a solid phase comprised of a porous material sized to receive the nanoparticles selected from a group consisting of molecular sieves, silica, alumina, zeolites, cross-linked dextran, aerogel, xerogel, metal-organic frameworks and ion exchange media; adsorbing the nanoparticles from the primary solvent onto or within the host structure; separating the host structure from the primary solvent; storing the host structure with the adsorbed nanoparticles in a sealed container; and releasing the nanoparticles from the host structure into a secondary solvent after the step of storing the host structure with the adsorbed nanoparticles in a sealed container, wherein the nanoparticles are selected from the group consisting of metal chalcogenides and doped metal chalcogenides.
A composition comprising: at least one N-acylamino acid surfactant as component A, at least one betaine surfactant as component B, at least one N-methyl-N-acylglucamine as component C, wherein the N-methyl-N-acylglucamine has a C 16 -C 20 -acyl radical, at least one solvent as component D, and optionally one or more additives as component E. at least one N-acylamino acid surfactant as component A, at least one betaine surfactant as component B, at least one N-methyl-N-acylglucamine as component C, wherein the N-methyl-N-acylglucamine has a C 16 -C 20 -acyl radical, at least one solvent as component D, and optionally one or more additives as component E.
Fuel injector for a fuel injection system, in particular a common-rail injection system, comprising a nozzle body and injector body which in each case surround a high-pressure chamber (3, 4) in which a single-part or multi-part nozzle needle for opening up and closing off at least one injection opening is received such that it can perform stroke movements, wherein the nozzle needle is guided through a low-pressure chamber which is sealed off with respect to the high-pressure chambers (3, 4) by way of at least one guide gap (8, 9) between the nozzle needle and a guide element (10, 11), which guide element is in the form of a sleeve and is supported on a body which delimits the low-pressure chamber, and wherein the nozzle needle, in order to form a pressure stage, arranged in the low-pressure chamber, has guide diameters (d o, d u) of different size, wherein that guide diameter (d o) which is situated further remote from the injection opening is smaller than the guide diameter (d u), such that the nozzle needle is partially relieved of force in the opening direction.
A crystal of a compound represented by Formula: which is i) a monohydrate, ii) a co-crystal with sodium acetate, or iii) a co-crystal with potassium acetate. i) a monohydrate, ii) a co-crystal with sodium acetate, or iii) a co-crystal with potassium acetate.
A terminal device, comprising an antenna, a middle frame, and a first component, wherein the middle frame comprises a metal middle plate, the terminal device comprises a metal bezel disposed around a peripheral side of the metal middle plate, and the antenna is disposed on the metal bezel, the metal middle plate comprises a first surface and a second surface opposite to the first surface, the first component is mounted on the middle frame, and a first cavity is formed between the first component and the first surface; the terminal device comprises a noise suppression structure disposed on the metal middle plate, the noise suppression structure comprises a hollow region running through the first surface and the second surface, and the hollow region communicates with the first cavity; and the first cavity is a transmission medium for digital signal noise having a propagation path in a direction toward the antenna, the propagation path passes through the hollow region, and the hollow region is configured to suppress the digital signal noise generated when the first component is working and transmitted by using the propagation path, wherein the noise suppression structure comprises a plurality of slits running through the metal middle plate, each of the slits extends in a curved way, and the plurality of slits are regularly arranged to form the hollow region, wherein the plurality of slits have consistent extension directions and are spaced, or the plurality of slits have consistent extension directions and are arranged side by side, and two adjacent slits communicate with each other head to tail. the terminal device comprises a noise suppression structure disposed on the metal middle plate, the noise suppression structure comprises a hollow region running through the first surface and the second surface, and the hollow region communicates with the first cavity; and the first cavity is a transmission medium for digital signal noise having a propagation path in a direction toward the antenna, the propagation path passes through the hollow region, and the hollow region is configured to suppress the digital signal noise generated when the first component is working and transmitted by using the propagation path, wherein the noise suppression structure comprises a plurality of slits running through the metal middle plate, each of the slits extends in a curved way, and the plurality of slits are regularly arranged to form the hollow region, wherein the plurality of slits have consistent extension directions and are spaced, or the plurality of slits have consistent extension directions and are arranged side by side, and two adjacent slits communicate with each other head to tail.