mhurhangee/ep-ind-claims huggingface dataset:
A screen printing method for printing a viscous fluid through a screen on a first circuit board and a second circuit board respectively conveyed in each of two lanes using a pair of squeegees (40a, 40b) and two holding members (66, 68) capable of holding the viscous fluid, the method comprising: a first printing step of printing a first viscous fluid which is the viscous fluid on the first circuit board using a first squeegee that is one of the pair of squeegees (40a, 40b) and a first holding member that is one of the two holding members (66, 68); and a second printing step of printing a second viscous fluid different from the first viscous fluid on the second circuit board using a second squeegee that is the other one of the pair of squeegees (40a, 40b) and a second holding member that is the other one of the two holding members (66, 68). a first printing step of printing a first viscous fluid which is the viscous fluid on the first circuit board using a first squeegee that is one of the pair of squeegees (40a, 40b) and a first holding member that is one of the two holding members (66, 68); and a second printing step of printing a second viscous fluid different from the first viscous fluid on the second circuit board using a second squeegee that is the other one of the pair of squeegees (40a, 40b) and a second holding member that is the other one of the two holding members (66, 68).
A method of selecting directions for a first device and a second device in a wireless communication network, the method comprising: receiving, in a set of reception directions of the second device, one or more beacons, each beacon associated with a transmission direction of the first device; determining, based on the received beacons, indications of link quality; selecting, based on the indications of link quality, a particular transmission direction of the first device; selecting, based on the indications of link quality, a particular reception direction of the second device from the set of reception directions of the second device; and transmitting, in a set of transmission directions of the second device, data indicative of the selected transmission direction of the first device during a sub-association contention access period, wherein the sub-association contention access period is provided in the association contention access period for the set of transmission directions of the second device. receiving, in a set of reception directions of the second device, one or more beacons, each beacon associated with a transmission direction of the first device; determining, based on the received beacons, indications of link quality; selecting, based on the indications of link quality, a particular transmission direction of the first device; selecting, based on the indications of link quality, a particular reception direction of the second device from the set of reception directions of the second device; and transmitting, in a set of transmission directions of the second device, data indicative of the selected transmission direction of the first device during a sub-association contention access period, wherein the sub-association contention access period is provided in the association contention access period for the set of transmission directions of the second device.
An anti-human DNAM-1 monoclonal antibody or a fragment thereof, having a heavy-chain variable region comprising CDR1 to CDR3 having amino acid sequences of SEQ ID NOs: 1 to 3 respectively, and a light-chain variable region comprising CDR1 to CDR3 having amino acid sequences of SEQ ID NOs: 4 to 6 respectively.
A process to prepare a dual-crosslinked hydrogel, comprising the following steps: 1) functionalizing a glycosaminoglycan such as hyaluronic acid with a methacrylate on hydroxyl group and with a dihydrazide on carboxyl group to obtain a methacrylate and hydrazide group functionalized glycosaminoglycan, which can be either a glycosaminoglycan with both methacrylate and hydrazide group modification, or a glycosaminoglycan with methacrylate modification only and a glycosaminoglycan with hydrazide group modification only, wherein the degree of methacrylation is 5-200%, preferably 85-165%, and the degree of hydrazide group modification is 8-70%, preferably 10-65%, more preferably 10-40%; oxidizing a second-polysaccharide such as dextran to obtain a second-polysaccharide with aldehyde groups, the degree of aldehyde modification in the second-polysaccharide is 10-95%, preferably 85~95%; 2) crosslinking the methacrylate and hydrazide group functionalized glycosaminoglycan and the second-polysaccharide-aldehyde in an aqueous solvent, such as phosphate buffer saline or a cell culture medium, to form a dynamic acylhydrazone bond cross-linked hydrogel; and 3) photopolymerizing the dynamic acylhydrazone bond cross-linked hydrogel by irradiation under the presence of a photoinitiator. 1) functionalizing a glycosaminoglycan such as hyaluronic acid with a methacrylate on hydroxyl group and with a dihydrazide on carboxyl group to obtain a methacrylate and hydrazide group functionalized glycosaminoglycan, which can be either a glycosaminoglycan with both methacrylate and hydrazide group modification, or a glycosaminoglycan with methacrylate modification only and a glycosaminoglycan with hydrazide group modification only, wherein the degree of methacrylation is 5-200%, preferably 85-165%, and the degree of hydrazide group modification is 8-70%, preferably 10-65%, more preferably 10-40%; oxidizing a second-polysaccharide such as dextran to obtain a second-polysaccharide with aldehyde groups, the degree of aldehyde modification in the second-polysaccharide is 10-95%, preferably 85~95%; 2) crosslinking the methacrylate and hydrazide group functionalized glycosaminoglycan and the second-polysaccharide-aldehyde in an aqueous solvent, such as phosphate buffer saline or a cell culture medium, to form a dynamic acylhydrazone bond cross-linked hydrogel; and 3) photopolymerizing the dynamic acylhydrazone bond cross-linked hydrogel by irradiation under the presence of a photoinitiator.
A composite fire rated shutter, comprising two sides in symmetry, wherein one of the two sides sequentially comprises a layer of material A or material E, a first layer of material B, a first layer of material C, a second layer of material B, a second layer of material C, a third layer of material B and a layer of material D from outside to inside, and in the middle of the two sides is an air interlayer; wherein the material A or the material E is a stainless steel wire reinforced fiberglass fabric; the material B is a ceramic blanket; the material C is a stainless steel wire reinforced fiberglass fabric; the material D is a foil-laminated fiberglass fabric layer; a thickness of the material A is 0.54 mm; a thickness of the material B is 3 mm; a thickness of the material C is 1.5 mm; a thickness of the material D is 0.3 mm; a thickness of the material E is 0.95 mm; the material A comprises a substrate and a coating coated on the substrate, the coating of the material A comprises fire retardant polyurethane with added aluminium pigment; the material E comprises a substrate and a coating coated on the substrate, and the coating of the material E comprises fire retardant silicone with added optional colour pigment.
An earth working machine, such as a road milling machine, recycler, stabilizer, or surface miner, encompassing a machine body having a machine frame and a drive configuration (46; 146; 246), rotationally drivable relative to the machine frame around a drive axis that defines an axial direction, to which drive configuration a working apparatus (32; 132; 232) embodied for earth working is releasably connected in torque-transferring fashion, in an operating position operational for earth working, for rotation together around the drive axis, such that when the connection is released, the working apparatus (32; 132; 232) is removable from the operating position in an axial direction relative to the drive configuration (46; 146; 246) for deinstallation from the drive configuration (46; 146; 246) and, for installation on the drive configuration, is conveyable into the operating position in an axial direction relative to the drive configuration (46; 146; 246), characterized in that there is provided on the drive configuration (46; 146; 246) an actuator (65; 165; 265) that encompasses an actuator member (63; 163; 263), movable relative to the drive configuration (46; 146; 246), which, when the working apparatus (32; 132; 232) is located, in preparation for installation thereof on the drive configuration (46; 146; 246), in a preparation position located axially remotely from the operating position, is conveyable directly, or indirectly with interposition of a coupling structure (94a; 194a; 294a), into installation force-transferring engagement with a counterpart coupling structure (74g; 174g; 274g) of the working apparatus (32; 132; 232), the working apparatus (32; 132; 232) being capable of being brought by the actuator (65; 165; 265), upon establishment of an installation force-transferring engagement, from the preparation position closer to the operating position.
A gas turbine engine comprising: a first stage and a second stage having a rotational axis and being configured to rotate in opposite directions; a frame arranged axially between the first stage and the second stage, the frame including a circumferential array of airfoils, at least one of the airfoils having a curvature provided equidistantly between pressure and suction sides (66,68) and extending from a leading edge to a trailing edge at a midspan plane along the airfoil, and a second angle defined between first and second lines (78,80) respectively tangent to the intersection of the midspan plane and the curvature at the airfoil leading and trailing edges (62,64), the angle being equal to or greater than about 10°, and by a plane extending through the rotational axis and intersecting the trailing edge and curvature and a first angle provided between the plane and the second line is greater than 20°. a first stage and a second stage having a rotational axis and being configured to rotate in opposite directions; a frame arranged axially between the first stage and the second stage, the frame including a circumferential array of airfoils, at least one of the airfoils having a curvature provided equidistantly between pressure and suction sides (66,68) and extending from a leading edge to a trailing edge at a midspan plane along the airfoil, and a second angle defined between first and second lines (78,80) respectively tangent to the intersection of the midspan plane and the curvature at the airfoil leading and trailing edges (62,64), the angle being equal to or greater than about 10°, and by a plane extending through the rotational axis and intersecting the trailing edge and curvature and a first angle provided between the plane and the second line is greater than 20°.
A process to prepare calcium carbonate containing composite particles comprising the following steps: a) providing at least one calcium carbonate containing mineral powder, b) preparing at least one solution or emulsion or dispersion of at least one binder, wherein the at least one binder is selected from a polymeric binder selected from the group comprising copolymers of acrylonitrile, butadiene, acrylate, butyl acrylate, styrene, styrene-butadiene, and acrylic ester, and mixtures thereof, and wherein the amount of the at least one binder is less than 10 wt.-%, based on the total weight of the calcium carbonate containing mineral powder, c) contacting the at least one calcium carbonate containing mineral powder of step a) with the at least one solution or emulsion or dispersion of the binder of step b) in an amount to form solid calcium carbonate containing composite particles, wherein the calcium carbonate containing composite particles obtained in step c) when dried to a total surface moisture content of less than 0.5 wt.-%, based on the total weight of the composite particles, have increased bulk density at equal or improved flowability compared to the calcium carbonate containing mineral powder provided in step a) when dried to a total surface moisture content of less than 0.5 wt.-%, based on the total weight of the calcium carbonate containing mineral powder. a) providing at least one calcium carbonate containing mineral powder, b) preparing at least one solution or emulsion or dispersion of at least one binder, wherein the at least one binder is selected from a polymeric binder selected from the group comprising copolymers of acrylonitrile, butadiene, acrylate, butyl acrylate, styrene, styrene-butadiene, and acrylic ester, and mixtures thereof, and wherein the amount of the at least one binder is less than 10 wt.-%, based on the total weight of the calcium carbonate containing mineral powder, c) contacting the at least one calcium carbonate containing mineral powder of step a) with the at least one solution or emulsion or dispersion of the binder of step b) in an amount to form solid calcium carbonate containing composite particles,
Method for transmitting data between any two devices in an application layer and/or a transport layer of a communication system, wherein the data transmission is performed according to the transport control protocol, referred to hereinafter as TCP, wherein the data to be transmitted is buffered in central storage means of one of the devices before TCP processing, wherein each TCP segment of a plurality of TCP segments of a plurality of TCP connections for which said one device performs TCP processing is stored in a retransmission buffer of the one device for each TCP connection and consists of a list of references, wherein a completely hardware-implemented TCP protocol operation block of the one device handles only said references on the transported data stored in the storage means instead of the data itself, and wherein the data is read from the storage means after TCP processing of the TCP segments by the TCP protocol operation block, wherein each of these TCP segments consists of the respective list of the references.
A bicycle rim brake assembly comprising: - a support bracket having an elongated adjusting aperture, - a fixing member including a screw shaft portion extending through the elongated adjusting aperture, - a first brake arm pivotally supported to the support bracket; - a second brake arm pivotally supported to the support bracket; - an adjustable support member movably engaged to the fixing member, and dimensioned for selective contact with the support bracket, characterized in that - the screw shaft portion includes a through hole, and the adjustable support member includes a shaft that adjustably and movably connects with the through hole. - a support bracket having an elongated adjusting aperture, - a fixing member including a screw shaft portion extending through the elongated adjusting aperture, - a first brake arm pivotally supported to the support bracket; - a second brake arm pivotally supported to the support bracket; - an adjustable support member movably engaged to the fixing member, and dimensioned for selective contact with the support bracket, - the screw shaft portion includes a through hole, and the adjustable support member includes a shaft that adjustably and movably connects with the through hole.
A method of forming a monolithic three-dimensional memory device, comprising: forming a first alternating stack (132, 142) of first insulating layers and first spacer material layers over a substrate; forming a first insulating cap layer over the first alternating stack (132, 142); and forming a sacrificial pillar structure through the first insulating cap layer and the first alternating stack (132, 142); forming an annular spacer material around the sacrificial pillar structure; forming a second alternating stack (232, 242) of second insulating layers and second spacer material layers over the first insulating cap layer and the annular spacer material; forming an upper memory opening through the second alternating stack (232, 242), wherein a top surface of the sacrificial pillar structure is physically exposed; forming a memory opening by extending the upper memory opening through removal of the sacrificial pillar structure such that a remaining annular portion of the spacer material layer constitutes an annular spacer (172, 272); and forming a memory stack structure within the memory opening, wherein the memory stack structure comprises a semiconductor channel (601, 602) and a memory film including a plurality of charge storage regions. forming a first alternating stack (132, 142) of first insulating layers and first spacer material layers over a substrate; forming a first insulating cap layer over the first alternating stack (132, 142); and forming a sacrificial pillar structure through the first insulating cap layer and the first alternating stack (132, 142); forming an annular spacer material around the sacrificial pillar structure; forming a second alternating stack (232, 242) of second insulating layers and second spacer material layers over the first insulating cap layer and the annular spacer material; forming an upper memory opening through the second alternating stack (232, 242), wherein a top surface of the sacrificial pillar structure is physically exposed; forming a memory opening by extending the upper memory opening through removal of the sacrificial pillar structure such that a remaining annular portion of the spacer material layer constitutes an annular spacer (172, 272); and forming a memory stack structure within the memory opening, wherein the memory stack structure comprises a semiconductor channel (601, 602) and a memory film including a plurality of charge storage regions.
An elevated paver support system comprising at least one locking disk, and a plurality of paver trays wherein each paver tray is configured to exchange heat with a paver and comprising: a frame with at least one corner; a hexagon lattice within the frame, said lattice defining a paver support surface on one side and an underside, wherein all of the hexagons in the hexagon lattice define hexagonal apertures except one center hexagon that is solid, said lattice comprising a tubing track for accommodating heat exchange tubing; and, a slot in the at least one corner for receiving the at least one locking disk, said system further comprising insulation provided to the underside of the paver tray, wherein said paver trays are installed on top of a plurality of pedestals, said pedestals comprising a slope compensation pad defined by at least two slope compensation panels, each of said panels comprising: a top surface that defines a first plane; an underside surface that defines a second plane; and, wherein said first plane and second plane are oblique relative to each other. a frame with at least one corner; a hexagon lattice within the frame, said lattice defining a paver support surface on one side and an underside, wherein all of the hexagons in the hexagon lattice define hexagonal apertures except one center hexagon that is solid, said lattice comprising a tubing track for accommodating heat exchange tubing; and, a slot in the at least one corner for receiving the at least one locking disk, said system further comprising insulation provided to the underside of the paver tray, a top surface that defines a first plane; an underside surface that defines a second plane; and, wherein said first plane and second plane are oblique relative to each other.
A method for distributing data across a network which comprises a plurality of nodes, characterized in that said data comprise instances of classes, each class having at least one instance, said nodes exchanging data through a shared data space comprising at least one agent for managing data exchange between nodes, the method including: - a step of publishing the class of the data, said step being performed by a node producing the data, which subsequently writes instances of said class in said shared data space; - a step of subscribing to the class of the data, said step being performed by at least one node consuming the data, which subsequently reads instances of the class from said shared data space; said agent being configured for sending and receiving packets containing instances of a class written by a producing node and read by a subscribing node, the method being further characterized in that the data are conveyed from the producing node to the consuming nodes by use of a Source-Specific Multicast "SSM" channel even in case of only one consuming node, so as to limit data distribution between the nodes, and in that a class is uniquely associated with a group address and the producing node is uniquely associated with the source address of the SSM channel. - a step of publishing the class of the data, said step being performed by a node producing the data, which subsequently writes instances of said class in said shared data space; - a step of subscribing to the class of the data, said step being performed by at least one node consuming the data, which subsequently reads instances of the class from said shared data space;
A cooler body, in particular designed for cooling of an electronic element, comprising o a contact piece, comprising a contact surface for contact to the part to be cooled, o a base piece spaced apart from the contact piece by o a middle piece in between the contact piece and the base piece, whereby o the middle piece comprises separate holes forming multiple rows of parallelly arranged coolant pipes (5d, 5u, 5d1, 5u1, 5d2, 5u2-5dN), o each pipe extends substantially from the contact piece to the base piece and o at least two, in particular at least five, parallel coolant channels (C, C1-Cn) are formed by sequences of parallel pipes (5d, 5u) connected by an enclosing surface of the contact piece and an enclosing surface of the base piece in such a way that the at least two coolant channels (C, C1-Cn) each run multiple times from the contact piece to the base piece and vice versa. o a contact piece, comprising a contact surface for contact to the part to be cooled, o a base piece spaced apart from the contact piece by o a middle piece in between the contact piece and the base piece, o the middle piece comprises separate holes forming multiple rows of parallelly arranged coolant pipes (5d, 5u, 5d1, 5u1, 5d2, 5u2-5dN), o each pipe extends substantially from the contact piece to the base piece and o at least two, in particular at least five, parallel coolant channels (C, C1-Cn) are formed by sequences of parallel pipes (5d, 5u) connected by an enclosing surface of the contact piece and an enclosing surface of the base piece in such a way that the at least two coolant channels (C, C1-Cn) each run multiple times from the contact piece to the base piece and vice versa.
A tire comprising a sidewall portion, wherein at least one mark formed by a character or a figure is disposed on a surface of the sidewall portion, wherein a decorative region comprising a first region is formed, the first region having a plurality of first micro projections disposed therein, characterized in that: the decorative region comprising the first region is formed adjacent to the mark on the surface of the sidewall portion outside the mark, wherein the first region extends radially from a vanishing point on the surface of the sidewall portion toward the mark so as to allow the mark to be stereoscopically viewed. a sidewall portion, wherein at least one mark formed by a character or a figure is disposed on a surface of the sidewall portion, wherein a decorative region comprising a first region is formed, the first region having a plurality of first micro projections disposed therein, characterized in that: the decorative region comprising the first region is formed adjacent to the mark on the surface of the sidewall portion outside the mark, wherein the first region extends radially from a vanishing point on the surface of the sidewall portion toward the mark so as to allow the mark to be stereoscopically viewed.