mhurhangee/ep-ind-claims huggingface dataset:
A fusion protein comprising at least a portion of at least one flagellin and at least one influenza antigen for use in stimulating protective immunity against infection consequent to exposure of a human who is ≥ 65 years old, to a source of influenza antigen, wherein fusion of the at least the portion of the flagellin and the at least one influenza antigen generates the fusion protein that is capable of achieving a seroresponse rate of at least 50% and the immunogenicity is greater than the at least one influenza antigen alone.
A method of forming a ceramic matrix composite component, the method comprising: forming a fiber preform, the preform comprising: a plurality of ceramic fiber plies; a non-reduced fiber region having an areal weight; and a reduced fiber region characterized by a reduced areal weight less than the areal weight of the non-reduced fiber region by at least 5 percent; selectively applying ceramic particles to the reduced fiber region in such manner as to avoid applying the ceramic particles to the non-reduced fiber region; and subsequently densifying the preform. a plurality of ceramic fiber plies; a non-reduced fiber region having an areal weight; and a reduced fiber region characterized by a reduced areal weight less than the areal weight of the non-reduced fiber region by at least 5 percent; selectively applying ceramic particles to the reduced fiber region in such manner as to avoid applying the ceramic particles to the non-reduced fiber region; and subsequently densifying the preform.
A method for transmitting traffic in a plurality of passive optical networks, PONS, (802, 804, 806, 808), comprising: transmitting traffic at a first wavelength and at a second wavelength from an optical line terminal, OLT; combining the traffic in the first wavelength and the traffic in the second wavelength; splitting the combined traffic into a plurality of copies; forwarding a first copy to a first wavelength router at a first distribution node and forwarding a second copy to a second wavelength router at a second distribution node, wherein the first wavelength router is coupled to a first set of optical network units, ONUs, and the second wavelength router is coupled to a second set of ONUs; routing the first copy such that only a subset of one or more ONUs in the first set of ONUs receives the traffic in the first wavelength and only a subset of one or more ONUs in the first set of ONUs receives the traffic in the second wavelength; and routing the second copy such that only a subset of one or more ONUs in the second set of ONUs receives the traffic in the first wavelength and only a subset of one or more ONUs in the second set of ONUs receives the traffic in the second wavelength, the method further comprising: transmitting traffic at a further wavelength from the OLT; forwarding the traffic in the further wavelength to the first and second distribution nodes; and forwarding the traffic in the further wavelength to each ONU in the first and second sets of ONUs. transmitting traffic at a first wavelength and at a second wavelength from an optical line terminal, OLT; combining the traffic in the first wavelength and the traffic in the second wavelength; splitting the combined traffic into a plurality of copies; forwarding a first copy to a first wavelength router at a first distribution node and forwarding a second copy to a second wavelength router at a second distribution node, wherein the first wavelength router is coupled to a first set of optical network units, ONUs, and the second wavelength router is coupled to a second set of ONUs; routing the first copy such that only a subset of one or more ONUs in the first set of ONUs receives the traffic in the first wavelength and only a subset of one or more ONUs in the first set of ONUs receives the traffic in the second wavelength; and routing the second copy such that only a subset of one or more ONUs in the second set of ONUs receives the traffic in the first wavelength and only a subset of one or more ONUs in the second set of ONUs receives the traffic in the second wavelength, the method further comprising: transmitting traffic at a further wavelength from the OLT; forwarding the traffic in the further wavelength to the first and second distribution nodes; and forwarding the traffic in the further wavelength to each ONU in the first and second sets of ONUs. transmitting traffic at a further wavelength from the OLT; forwarding the traffic in the further wavelength to the first and second distribution nodes; and forwarding the traffic in the further wavelength to each ONU in the first and second sets of ONUs.
A compound of formula wherein AA 1 represents an aminoacid selected from the group consisting of D-Tryptophan (D-Trp), D-1-naphthylalanine (D-1-Nal) and D-2-naphthylalanine (D-2-Nal); AA 2 represents an aminoacid selected from the group consisting of D-Leucine (D-Leu), D-Norleucine (D-Nle) and D-Phenylalanine (D-Phe); and AA 3 represents an aminoacid selected from the group consisting of D-Methionine (D-Met), D-Tyrosine (D-Tyr) and D-Norleucine (D-Nle) or a pharmaceutically acceptable salt thereof. AA 1 represents an aminoacid selected from the group consisting of D-Tryptophan (D-Trp), D-1-naphthylalanine (D-1-Nal) and D-2-naphthylalanine (D-2-Nal); AA 2 represents an aminoacid selected from the group consisting of D-Leucine (D-Leu), D-Norleucine (D-Nle) and D-Phenylalanine (D-Phe); and AA 3 represents an aminoacid selected from the group consisting of D-Methionine (D-Met), D-Tyrosine (D-Tyr) and D-Norleucine (D-Nle) or a pharmaceutically acceptable salt thereof.
A pneumatic tire, comprising: a tread with an outer surface to form the tread surface; and a belt positioned on the radially inner side of the tread, wherein in a cross section perpendicular to a circumferential direction, a profile of the tread surface ranging from the equatorial plane to the tread edge is formed with a plurality of arcs protruding in a radially outward direction, when the i-th arc counted from the equatorial plane in an axially outward direction is set as arc (Ci), and when the radius of arc (Ci) is set as (Ri), the tangent line of arc on the equatorial plane extends in an exact axial direction, arc C(i+1) and arc (Ci) make contact at the point where they intersect, and radius R(i+1) is not greater than radius (Ri), in the cross section perpendicular to a circumferential direction, when a virtual line inclining at an angle (θ) relative to the axial direction is set as (Lt), when the point where virtual line (Lt) makes contact with the profile of the tread surface is set as (Pt), and when the axial width from the equatorial plane to contact point (Pt) is set as (Wt), then width (Wt) at an inclination angle (θ) between 3 and 5 degrees and width ranging from the equatorial plane to the tread edge are set to have a ratio (Wt/W) of less than 65%, wherein when the number of arcs is four, the ratio of radius to radius is 35% or greater but 65% or less, and when the axial width from the equatorial plane to the intersection of arcs (C1, C2) is set as, then the ratio of width to width is 26% or greater but 38% or less. a tread with an outer surface to form the tread surface; and a belt positioned on the radially inner side of the tread, wherein in a cross section perpendicular to a circumferential direction, a profile of the tread surface ranging from the equatorial plane to the tread edge is formed with a plurality of arcs protruding in a radially outward direction, when the i-th arc counted from the equatorial plane in an axially outward direction is set as arc (Ci), and when the radius of arc (Ci) is set as (Ri), the tangent line of arc on the equatorial plane extends in an exact axial direction, arc C(i+1) and arc (Ci) make contact at the point where they intersect, and radius R(i+1) is not greater than radius (Ri), in the cross section perpendicular to a circumferential direction, when a virtual line inclining at an angle (θ) relative to the axial direction is set as (Lt), when the point where virtual line (Lt) makes contact with the profile of the tread surface is set as (Pt), and when the axial width from the equatorial plane to contact point (Pt) is set as (Wt), then width (Wt) at an inclination angle (θ) between 3 and 5 degrees and width ranging from the equatorial plane to the tread edge are set to have a ratio (Wt/W) of less than 65%, wherein when the number of arcs is four, the ratio of radius to radius is 35% or greater but 65% or less, and when the axial width from the equatorial plane to the intersection of arcs (C1, C2) is set as, then the ratio of width to width is 26% or greater but 38% or less.
A drinking straw which is essentially constituted of a body endowed with a hole which runs therethrough, wherein the said body consists of a frozen liquid of the type fit for consumption, such as water, fruit juices, soft drinks, liqueurs, etc., characterised by the fact that a mouthpiece is provided for engaging with the body at one end thereof, and the said mouthpiece is composed of a stopper consisting of a disk envisaged to cover the upper part of the body with a small, internally hollow projection - envisaged to fit into the through-hole of the body - on one side and an internally hollow cylindrical portion on the other side, which is the part that is placed in the user's mouth, the said drinking straw, as well as performing the task of a tube with which to drink a beverage, being designed to cool the said beverage, instead of conventional ice cubes or in combination therewith, but above all to keep the beverage cool and/or to cool the beverage even during the passage into the body, as result of which the consumer ingests a perfectly cool or cold beverage.
A composite caulk comprising cellulose insulation, perlite, a particulated wood material having a particle size below 2 mm, a particulated fire retardant bark material having at least one axis of length with a dimension below 2 mm and a polyvinyl-acetate based aqueous dispersion adhesive; and wherein said composite caulk forms a heterogeneous caulk which can be dispensed using a handheld caulking gun.
Method for the wireless transmission of electronic data between a communication unit of a hand-held machine tool designed as a first connection partner and a communication unit of an external unit designed as a second connection partner, wherein, in a method step, the communication unit of the hand-held machine tool is activated automatically so as to transmit the electronic data depending on an acceleration value and/or a change in a position parameter of the communication unit, wherein, in a method step, the communication unit of the external unit is activated automatically so as to transmit the electronic data depending on an acceleration value and/or a change in a position parameter of the communication unit, wherein, in a method step, if there are even more potential connection partners for a communication unit, a connection partner (10, 12) is chosen from the potential connection partners depending on the signal attenuation and/or the distance between a respective potential connection partner and a communication unit (18, 20), wherein, in a method step (62, 72), a connection is set up between the communication units, wherein, in a method step, a motion parameter profile of the communication unit is compared with a motion parameter profile of the communication unit, and wherein, in a method step, the communication connection between the connection partners (10, 12) is maintained or disconnected depending on an evaluation of the comparison.
A coated cubic boron nitride sintered body tool which is a coated cubic boron nitride sintered body tool at least whose blade edge comprises a coated cubic boron nitride sintered body where the surface of a cubic boron nitride sintered body substrate is coated with a coating layer, wherein the coating layer contains a lower layer at the substrate side and an upper layer thereon, the upper layer is a layer which comprises a compound represented by a compositional formula Mα (provided that M represents at least one element selected from Ti, V, Zr, Nb, Mo, Al and Si, and α represents at least one element selected from C, N, B and O) and has an average layer thickness of 0.5 to 3.0 μm, the lower layer is an alternately laminated material in which a first thin layer comprising a compound represented by the compositional formula (Ti (1-x) L x)β (provided that L represents at least one element selected from B and Si, x represents an atomic ratio of L based on the sum of Ti and L, and satisfies 0.01≤x≤0.7, and β represents at least one element selected from C and N) and having an average layer thickness of 60 to 200 nm, and a second thin layer comprising a compound represented by the compositional formula (Al (1-y) J y)γ (provided that J represents at least one element selected from Ti, V, Cr, Zr, Nb and Mo, y represents an atomic ratio of J based on the sum of Al and J, and satisfies 0.1≤y≤0.5, and γ represents at least one element selected from C and N) and having an average layer thickness of 60 to 200 nm, are laminated alternately, and an average layer thickness of the alternately laminated material is 0.5 to 3.0 μm. the upper layer is a layer which comprises a compound represented by a compositional formula Mα (provided that M represents at least one element selected from Ti, V, Zr, Nb, Mo, Al and Si, and α represents at least one element selected from C, N, B and O) and has an average layer thickness of 0.5 to 3.0 μm, the lower layer is an alternately laminated material in which a first thin layer comprising a compound represented by the compositional formula (Ti (1-x) L x)β (provided that L represents at least one element selected from B and Si, x represents an atomic ratio of L based on the sum of Ti and L, and satisfies 0.01≤x≤0.7, and β represents at least one element selected from C and N) and having an average layer thickness of 60 to 200 nm, and a second thin layer comprising a compound represented by the compositional formula (Al (1-y) J y)γ (provided that J represents at least one element selected from Ti, V, Cr, Zr, Nb and Mo, y represents an atomic ratio of J based on the sum of Al and J, and satisfies 0.1≤y≤0.5, and γ represents at least one element selected from C and N) and having an average layer thickness of 60 to 200 nm, are laminated alternately, and an average layer thickness of the alternately laminated material is 0.5 to 3.0 μm.
Support station for supporting a conveyor belt of a belt conveyor system, with several support rollers (8a, 8b, 8c) that are held rotatably on a supporting frame, and an anti-trap protection with several anti-trap protection sections (4a, 4b, 4c), wherein in each case an anti-trap protection section is arranged adjacent to a support roller (8a, 8b, 8c) and at a distance from the conveyor belt, wherein each anti-trap protection section (4a, 4b, 4c) is held on a support (14a, 14b, 14c), wherein in each case a flexible intermediate section (6a, 6b) is arranged between ends of two adjacent anti-trap protection sections (4a, 4b, 4c) and connects them flexibly to one another, wherein at least one of the supports (14a, 14b, 14c) is adjustable and thereby the distance of the anti-trap protection section (4a, 4b, 4c) that is held on it from the conveyor belt and a distance of at least one intermediate section (6a, 6b) from the conveyor belt can be set. several support rollers (8a, 8b, 8c) that are held rotatably on a supporting frame, and an anti-trap protection with several anti-trap protection sections (4a, 4b, 4c), wherein in each case an anti-trap protection section is arranged adjacent to a support roller (8a, 8b, 8c) and at a distance from the conveyor belt, wherein each anti-trap protection section (4a, 4b, 4c) is held on a support (14a, 14b, 14c), wherein in each case a flexible intermediate section (6a, 6b) is arranged between ends of two adjacent anti-trap protection sections (4a, 4b, 4c) and connects them flexibly to one another, wherein at least one of the supports (14a, 14b, 14c) is adjustable and thereby the distance of the anti-trap protection section (4a, 4b, 4c) that is held on it from the conveyor belt and a distance of at least one intermediate section (6a, 6b) from the conveyor belt can be set.
A system for measuring a crystal during crystal growth, the system comprising: a first camera configured to capture a first image of the crystal during growth on a first image plane; a second camera configured to capture a second image of the crystal during growth on a second image plane; and a processing device communicatively coupled to said first camera and said second camera and programmed to: generate a mathematical model of a crystal during crystal growth, the mathematical model comprising a plurality of model sample points including a first model sample point; detect at least one crystal growth feature within the first image and the second image; determine a first error value by comparing the mathematical model to the crystal growth feature in the first image and a second error value by comparing the mathematical model to the crystal growth feature in the second image; and generating from the mathematical model, and based on the determined first error value and the determined second error value, an estimated metrology value associated with the at least one crystal growth feature. a first camera configured to capture a first image of the crystal during growth on a first image plane; a second camera configured to capture a second image of the crystal during growth on a second image plane; and a processing device communicatively coupled to said first camera and said second camera and programmed to: generate a mathematical model of a crystal during crystal growth, the mathematical model comprising a plurality of model sample points including a first model sample point; detect at least one crystal growth feature within the first image and the second image; determine a first error value by comparing the mathematical model to the crystal growth feature in the first image and a second error value by comparing the mathematical model to the crystal growth feature in the second image; and generating from the mathematical model, and based on the determined first error value and the determined second error value, an estimated metrology value associated with the at least one crystal growth feature. generate a mathematical model of a crystal during crystal growth, the mathematical model comprising a plurality of model sample points including a first model sample point; detect at least one crystal growth feature within the first image and the second image; determine a first error value by comparing the mathematical model to the crystal growth feature in the first image and a second error value by comparing the mathematical model to the crystal growth feature in the second image; and generating from the mathematical model, and based on the determined first error value and the determined second error value, an estimated metrology value associated with the at least one crystal growth feature.
Method for viewing and selecting production resources, in particular peripheral devices, for the injection-molding industry, which are organized in at least one work cell (2 to 4) for producing an injection-molded part and are connected to one another via a network (19, 22), wherein at least one production resource is designed as a processing machine, characterized in that, following a manual storage request on a control device, in particular a work cell controller (16 to 18), or on the processing machine, all connected production resources are queried, and defined data, such as the respective settings, as well as program sequences, formulations and other configurations, are read out from these and combined with the internal settings of the processing machine, in a manner depending on the injection-molded part, to form a mold data record and stored in one or several mold data records, whereby a list of the production resources required for the production of this injection-molded part is automatically generated at any time from the mold data record or records and displayed at an output point, preferably the processing machine, whereby the defined data associated with the respective production means are transmitted to the production resources as well.
A method of cleaning and sterilizing a product filling apparatus that includes product supply piping that feeds a product into a filling machine through a heating sterilization part, the method comprising: a CIP process of removing a remaining foreign matter from a product or the like on an interior of the product supply piping and an SIP process of sterilizing the interior of the product supply piping, wherein the CIP process and the SIP process are performed in sequence without an interruption between the CIP process and the SIP process, wherein a temperature of the heating sterilization part raised and set in the CIP process does not decrease but is further raised to a temperature for the SIP process, or the temperature of the heating sterilization part is raised to the temperature for the SIP process in a rinsing step in the CIP process, a first manufacturing step of performing a filling step of filling a container with the product while performing a product sterilization process after the SIP process; and a second manufacturing step including the CIP process and the SIP process for manufacturing a product different from that manufactured in the first manufacturing step, wherein the first manufacturing step and the second manufacturing step are performed without reducing the temperature of the heating sterilization part to be equal to or lower than a set temperature of the CIP process. a CIP process of removing a remaining foreign matter from a product or the like on an interior of the product supply piping and an SIP process of sterilizing the interior of the product supply piping, wherein the CIP process and the SIP process are performed in sequence without an interruption between the CIP process and the SIP process, wherein a temperature of the heating sterilization part raised and set in the CIP process does not decrease but is further raised to a temperature for the SIP process, or the temperature of the heating sterilization part is raised to the temperature for the SIP process in a rinsing step in the CIP process, a first manufacturing step of performing a filling step of filling a container with the product while performing a product sterilization process after the SIP process; and a second manufacturing step including the CIP process and the SIP process for manufacturing a product different from that manufactured in the first manufacturing step, wherein the first manufacturing step and the second manufacturing step are performed without reducing the temperature of the heating sterilization part to be equal to or lower than a set temperature of the CIP process.