mhurhangee/ep-ind-claims huggingface dataset:
A method of automatically wrapping a ream of paper, the method comprising: positioning a wrap sheet (22, 122) in a fully extended position; disposing the ream of paper on the wrap sheet (22, 122) to begin the wrapping process; securing at least one robotic arm (24, 124) to at least one perimeter portion of the wrap sheet; controlling a tension of the wrap sheet (22, 122) via the at least one robotic arm (24, 124); pulling the at least one perimeter portion of the wrap sheet (22, 122) via the at least one robotic arm (24, 124) to ensure a taut condition of the wrap sheet (22, 122); rotating one of a first flap of the wrap sheet or a second flap of the wrap sheet in a direction toward a top portion of the ream of paper via the at least one robotic arm (24, 124); securing one of the first flap of the wrap sheet or the second flap of the wrap sheet to the top portion of the ream of paper via the at least one robotic arm (24, 124); rotating the other of the first flap of the wrap sheet or the second flap of the wrap sheet in a direction toward the top portion of the ream of paper via the at least one robotic arm (24, 124); and affixing the other of the first flap of the wrap sheet or the second flap of the wrap sheet to an outer surface of one of the second flap of the wrap sheet or the first flap of the wrap sheet via the at least one robotic arm (24, 124) to form a seam on the top portion of the ream of paper, wherein controlling a tension of the wrap sheet (22, 122) via the at least one robotic arm (24, 124) comprises controlling a transversal tension of the wrap sheet (22, 122). positioning a wrap sheet (22, 122) in a fully extended position; disposing the ream of paper on the wrap sheet (22, 122) to begin the wrapping process; securing at least one robotic arm (24, 124) to at least one perimeter portion of the wrap sheet; controlling a tension of the wrap sheet (22, 122) via the at least one robotic arm (24, 124); pulling the at least one perimeter portion of the wrap sheet (22, 122) via the at least one robotic arm (24, 124) to ensure a taut condition of the wrap sheet (22, 122); rotating one of a first flap of the wrap sheet or a second flap of the wrap sheet in a direction toward a top portion of the ream of paper via the at least one robotic arm (24, 124); securing one of the first flap of the wrap sheet or the second flap of the wrap sheet to the top portion of the ream of paper via the at least one robotic arm (24, 124); rotating the other of the first flap of the wrap sheet or the second flap of the wrap sheet in a direction toward the top portion of the ream of paper via the at least one robotic arm (24, 124); and affixing the other of the first flap of the wrap sheet or the second flap of the wrap sheet to an outer surface of one of the second flap of the wrap sheet or the first flap of the wrap sheet via the at least one robotic arm (24, 124) to form a seam on the top portion of the ream of paper, wherein controlling a tension of the wrap sheet (22, 122) via the at least one robotic arm (24, 124) comprises controlling a transversal tension of the wrap sheet (22, 122).
A prepreg comprising a mixture of a fibrous reinforcement and a resin containing from 20% to 85% by weight of an epoxy resin of epoxy equivalent weight from 150 to 1500 said resin being curable by an externally applied temperature in the range of 40 °C to 110°C, preferably from 70 °C to 110°C, more preferably from 60 °C to 90°C and/or a combination of the aforesaid temperatures, wherein the resin contains from 0.5 to 5 wt % of a curing agent, the curing agent comprising a urea curing agent and an imidazole curing agent and being free of dicyandiamide, and at least one of the urea curing agent and/or the imidazole curing agent being isolated from the remainder of the resin.
A method for nucleic acid amplification, comprising: (a) forming a reaction mixture including a single continuous liquid phase containing (i) a recombinase, (ii) a plurality of beads attached to one or more first primers, (iii) a plurality of different polynucleotide templates each attached to a separate bead as an extended first primer, (iv) one or more second primers in solution, and reagents for nucleic acid synthesis, wherein the one or more second primers are attached to a drag compound; and (b) subjecting the reaction mixture to isothermal nucleic acid amplification conditions and generating at least one monoclonal polynucleotide population by amplifying at least one of the polynucleotide templates to form at least a first amplified population. (a) forming a reaction mixture including a single continuous liquid phase containing (i) a recombinase, (ii) a plurality of beads attached to one or more first primers, (iii) a plurality of different polynucleotide templates each attached to a separate bead as an extended first primer, (iv) one or more second primers in solution, and reagents for nucleic acid synthesis, wherein the one or more second primers are attached to a drag compound; and (i) a recombinase, (ii) a plurality of beads attached to one or more first primers, (iii) a plurality of different polynucleotide templates each attached to a separate bead as an extended first primer, (iv) one or more second primers in solution, and reagents for nucleic acid synthesis, wherein the one or more second primers are attached to a drag compound; and (b) subjecting the reaction mixture to isothermal nucleic acid amplification conditions and generating at least one monoclonal polynucleotide population by amplifying at least one of the polynucleotide templates to form at least a first amplified population.
A compound having a structure according to formula I or a pharmaceutically acceptable salt thereof, wherein Xaa 1 is D-tyrosine, Xaa 2 is arginine, Xaa 3 is naphthylalanine (Nal) and Xaa 4 is glycine, R is H or methyl, L has the formula -(CH 2) 3 - NH-, and Ar is selected from the group consisting of and D is i) DOTA, or ii) a combination of a Ga-atom and DOTA. wherein Xaa 1 is D-tyrosine, Xaa 2 is arginine, Xaa 3 is naphthylalanine (Nal) and Xaa 4 is glycine, R is H or methyl, L has the formula -(CH 2) 3 - NH-, and Ar is selected from the group consisting of and D is i) DOTA, or ii) a combination of a Ga-atom and DOTA. i) DOTA, or ii) a combination of a Ga-atom and DOTA.
A method for personalizing a document, said document comprising a support comprising patterns of ink (201, 202) printed on an area of the support or on the whole surface thereof, wherein said method comprises generating at least a laser pulse on said support for carbonizing at least a printed pattern of ink (201, 202) by propagation of the carbonization in the printed pattern of ink that is touched by at least a dot of the laser, said printed pattern of ink becoming darker characterized in that the printed patterns of ink are printed micro-character patterns of ink, and said laser pulse is generated by a high-powered laser so that if an area of a printed micro-character pattern of ink (201, 202) is touched by a least a dot of the laser, carbonization of the ink propagates in the full printed micro-character pattern of ink, that is made darker, and does not propagate to areas of the support that do not carry ink, such that the carbonization of several micro-characters among a plurality of micro-characters form a set of darkened micro characters forming a control code..
A method for producing a component, in particular a component of a turbine or a compressor, comprising the following steps: a) application in layers of at least one pulverulent component material to a component platform in the region of a build-up and joining zone; b) melting and/or sintering of the component material in layers and locally by supplying energy by means of at least one electron beam in the region of the build-up and joining zone; c) layer-wise lowering of the component platform by a predefined layer thickness; and d) repetition of steps a) to c) until the component is completed; characterized in that the component material is melted and/or sintered in step b) by means of at least two, preferably by means of at least four, electron beams and the electron beams are generated by splitting at least one electron beam of at least one electron source. a) application in layers of at least one pulverulent component material to a component platform in the region of a build-up and joining zone; b) melting and/or sintering of the component material in layers and locally by supplying energy by means of at least one electron beam in the region of the build-up and joining zone; c) layer-wise lowering of the component platform by a predefined layer thickness; and d) repetition of steps a) to c) until the component is completed;
Control system for an irrigation system, the control system comprising - an inflow port and an outflow port; - an electrically controllable valve adapted to selectively shut off or release a flow of liquid from the inflow port to the outflow port, and a valve housing within which the valve is disposed; - a first interface arranged on the valve housing; - an electrical energy storage device comprising - a communication device adapted for wireless communication with an external computing system; - a control circuit adapted to receive a control command via the communication device and to control the valve to shut off or release fluid flow depending on the control command; - at least one electric energy storage cell connected to the control circuit for power supply; characterized by - an energy storage enclosure within which the at least one electrical energy storage cell is disposed; and - a second interface which is arranged on the energy storage housing, the first interface and the second interface being designed to be compatible with one another, so that the energy storage housing can be connected mechanically and electrically to the valve housing via the first interface and the second interface. - an inflow port and an outflow port; - an electrically controllable valve adapted to selectively shut off or release a flow of liquid from the inflow port to the outflow port, and a valve housing within which the valve is disposed; - a first interface arranged on the valve housing; - an electrical energy storage device comprising - a communication device adapted for wireless communication with an external computing system; - a control circuit adapted to receive a control command via the communication device and to control the valve to shut off or release fluid flow depending on the control command; - at least one electric energy storage cell connected to the control circuit for power supply; characterized by - an energy storage enclosure within which the at least one electrical energy storage cell is disposed; and - a second interface which is arranged on the energy storage housing, the first interface and the second interface being designed to be compatible with one another, so that the energy storage housing can be connected mechanically and electrically to the valve housing via the first interface and the second interface. - a communication device adapted for wireless communication with an external computing system; - a control circuit adapted to receive a control command via the communication device and to control the valve to shut off or release fluid flow depending on the control command; - at least one electric energy storage cell connected to the control circuit for power supply; - an energy storage enclosure within which the at least one electrical energy storage cell is disposed; and - a second interface which is arranged on the energy storage housing, the first interface and the second interface being designed to be compatible with one another, so that the energy storage housing can be connected mechanically and electrically to the valve housing via the first interface and the second interface.
A waste heat recovery system for a vessel for supplying, to a steam utilization device, steam generated by a steam generator, using waste heat from a main machine as a heat source, wherein a plurality of expansion machines are connected in parallel to one another, and excess steam without being supplied to the steam utilization device is supplied individually to the expansion machines by the opening/closing of gate valves arranged in the respective expansion machines respectively, wherein the plurality of expansion machines are configured to have the same capacity, wherein a control device is comprised further, wherein the control device is programmed to control such that, when the flow volume of excess steam supplied to the expansion machines exceeds an upper limit value of an allowable supply amount that is determined from the combination of the expansion machines, the gate valve of the one expansion machine that is least frequently used among the plurality of expansion machines in which excess steam is not supplied is open, whereas when the flow volume of excess steam supplied to the expansion machines is equal to or lower than a lower limit value of the allowable supply amount, the gate valve of the one expansion machine that is most frequently used among the plurality of expansion machines in which excess steam is supplied is closed.
A connecting device (2-2""') for connecting a conveying carriage (1-1""') to a drive chain, having: - a swivel lever (6-6'"") which can be connected swivelably to the conveying carriage (1-1"'"); - a chain attachment (8-8'"") which can be connected to the drive chain; and - an articulated connection (10-10""') which connects the swivel lever (6-6""') and the chain attachment (8-8""'); wherein the articulated connection (10-10""') has three rotational degrees of freedom between the swivel lever (6-6"'") and the chain attachment (8-8'""), wherein the swivel lever (6-6""') has a swivel joint (12; 12"; 12""; 12"'") for connecting to the conveying carriage (1-1""'), wherein in an installation state the swivel lever (6-6"'") can be swiveled relative to the conveying carriage (1-1'"") in a horizontal plane by means of the swivel joint (12; 12"; 12""; 12'""). - a swivel lever (6-6'"") which can be connected swivelably to the conveying carriage (1-1"'"); - a chain attachment (8-8'"") which can be connected to the drive chain; and - an articulated connection (10-10""') which connects the swivel lever (6-6""') and the chain attachment (8-8""');
A brazed heat exchanger incorporating an aluminium alloy baseplate as a structural component and wherein the baseplate is made from an aluminium alloy having a composition, in wt.%, of: Mn 0.8 - 1.8, Cu 0.45 - 1.20, Si 0.25 - 1.30, Mg 0.10 - 0.60, Fe up to 0.8, Zn up to 0.3, Ti up to 0.20, Cr up to 0.25, Zr up to 0.25, balance aluminium and impurities each up to 0.05%, total up to 0.20%, wherein Cu+Mg>1.0%. balance aluminium and impurities each up to 0.05%, total up to 0.20%, wherein Cu+Mg>1.0%.
Method for controlling the synchronization of a rotating pinion on a primary shaft driven by a traction machine of the vehicle and rotationally connected to a secondary shaft of a gearbox with parallel shafts and without a synchronization mechanism, by sending to the traction machine, before the coupling of the pinion to the primary shaft, a torque command ( T 1 ref) which depends on a torque signal ( T 1 calc) calculated to minimize the difference (σ) between the primary speed (ω 1) and the secondary speed (ω 2), multiplied by the reduction ratio between these two shafts, characterized in that the calculated torque ( T 1 calc) is corrected by the acceleration of the secondary shaft (θ), to construct an intermediate signal ( T * 1), allowing for the energy supplied to the system in order to minimize the speed difference (σ).
Variable capacity lubricant vane pump for lubrication of an internal combustion engine, with radially slidable vanes being arranged in vane slits of a rotor ring, the vanes defining pump chambers therebetween, a capacity control ring surrounding the vanes and being pivotable around a pivot axis thereby varying the volume of the pump chambers, a first and a second hydraulic control chamber (36,38), both control chambers (36, 38) being in part defined by the control ring and thereby pivoting the control ring, and a preload spring preloading the control ring in one direction, the first control chamber and the second control chamber being arranged on different sides with respect to the pivot axis and acting against each other, the preload spring pushing the control ring in a high pump chamber volume direction, characterised by the first control chamber being in fluidic connection with a pump outlet port and pushing the control ring in a low pump chamber volume direction, and either the second control chamber being in fluidic connection with the pump outlel port and a control valve controlling the fluidic connection of the second control chamber to atmospheric pressure, and the control valve being an on/off valve opening or closing the connection between the second control chamber and atmospheric pressure, or a control valve being a 3-way switching valve connecting the second control chamber either with the pump outlet port or with the atmospheric pressure, wherein a pivot bearing in the pivot axis constitutes a sealing between the two control chambers (36,38), and wherein the two control chambers (36,38) have different circumferential extents around the control ring, and, the circumferential extent of the second control chamber is shorter than that of the first control chamber, so that identical pressures in both control chambers (36, 38) lead to a higher torque caused by the first control chamber compared to the torque caused by the second control chamber.
An oral composition comprising: a first abrasive; a film comprising a second abrasive; and a carrier; wherein the particle size of the first abrasive is greather than the particle size of the second abrasive, and wherein the second abrasive has a particle size in the range of 0.5 μm to 5 μm. a first abrasive; a film comprising a second abrasive; and a carrier; wherein the particle size of the first abrasive is greather than the particle size of the second abrasive, and wherein the second abrasive has a particle size in the range of 0.5 μm to 5 μm.
A bale ejection system for a baler implement, the bale ejection system comprising: a frame; a pin secured to the frame; a carrier coupled to the frame and moveable relative to the frame along a longitudinal axis of the frame, wherein the carrier defines an elongated slot extending along the longitudinal axis of the frame with the pin extending through the elongated slot; a pawl moveable with the carrier along the longitudinal axis and rotatably attached to the carrier for rotation about a rotation axis; wherein the pawl includes a cam surface contacting the pin, and a material engaging surface disposed opposite the cam surface, with the cam surface and the material engaging surface terminating at a distal end of the pawl that is spaced from the rotation axis along the longitudinal axis; characterized in that the material engaging surface defines a crop engaging tooth positioned between the rotation axis and the distal end of the pawl along the longitudinal axis. a frame; a pin secured to the frame; a carrier coupled to the frame and moveable relative to the frame along a longitudinal axis of the frame, wherein the carrier defines an elongated slot extending along the longitudinal axis of the frame with the pin extending through the elongated slot; a pawl moveable with the carrier along the longitudinal axis and rotatably attached to the carrier for rotation about a rotation axis; wherein the pawl includes a cam surface contacting the pin, and a material engaging surface disposed opposite the cam surface, with the cam surface and the material engaging surface terminating at a distal end of the pawl that is spaced from the rotation axis along the longitudinal axis; characterized in that the material engaging surface defines a crop engaging tooth positioned between the rotation axis and the distal end of the pawl along the longitudinal axis.
A product comprising an anti-LAG-3 antibody and an anti-PD-1 antibody for combined use in treating a solid tumor in a human patient, wherein the treatment comprises at least one administration cycle, wherein the cycle is a period of eight weeks, wherein for each of the at least one cycles, four doses of the anti-LAG-3 antibody are administered at a dose of 3, 20, 80, or 240 mg and four doses of the anti-PD-1 antibody are administered at a dose of 80 or 240 mg; the anti-LAG-3 antibody comprises heavy and light chain variable regions comprising the sequences set forth in SEQ ID NOs:3 and 5, respectively; and the anti-PD-1 antibody comprises (a) a heavy chain variable region CDR1 comprising the sequence set forth in SEQ ID NO:23; (b) a heavy chain variable region CDR2 comprising the sequence set forth in SEQ ID NO:24; (c) a heavy chain variable region CDR3 comprising the sequence set forth in SEQ ID NO:25; (d) a light chain variable region CDR1 comprising the sequence set forth in SEQ ID NO:26; (e) a light chain variable region CDR2 comprising the sequence set forth in SEQ ID NO:27; and (f) a light chain variable region CDR3 comprising the sequence set forth in SEQ ID NO:28. (a) a heavy chain variable region CDR1 comprising the sequence set forth in SEQ ID NO:23; (b) a heavy chain variable region CDR2 comprising the sequence set forth in SEQ ID NO:24; (c) a heavy chain variable region CDR3 comprising the sequence set forth in SEQ ID NO:25; (d) a light chain variable region CDR1 comprising the sequence set forth in SEQ ID NO:26; (e) a light chain variable region CDR2 comprising the sequence set forth in SEQ ID NO:27; and (f) a light chain variable region CDR3 comprising the sequence set forth in SEQ ID NO:28.
A medical tube clamp for clamping a flexible medical tube, comprising: a tube receiving area which is adapted to receive the medical tube, a first clamping portion including a first clamping jaw which is movable relative to a second clamping portion including a second clamping jaw, wherein the first clamping jaw and the second clamping jaw are respectively formed as a wall-shaped clamping edge, and a closure system for safely positioning the two clamping portions (4a, 4b) in more than one snap-fit position relative to each other so that, when the closure system is unlocked, the medical tube can be inserted in and removed from the tube clamp, in an open snap-fit position the inserted medical tube cannot be removed and is not clamped, and in a clamping snap-fit position the medical tube is clamped between the first clamping jaw and the second clamping jaw, characterized in that the first clamping jaw is configured to be elastically movable relative to the first clamping portion via a connecting member and/or the second clamping jaw is configured to be elastically movable relative to the second clamping portion via a connecting member. a tube receiving area which is adapted to receive the medical tube, a first clamping portion including a first clamping jaw which is movable relative to a second clamping portion including a second clamping jaw, wherein the first clamping jaw and the second clamping jaw are respectively formed as a wall-shaped clamping edge, and a closure system for safely positioning the two clamping portions (4a, 4b) in more than one snap-fit position relative to each other so that, when the closure system is unlocked, the medical tube can be inserted in and removed from the tube clamp, in an open snap-fit position the inserted medical tube cannot be removed and is not clamped, and in a clamping snap-fit position the medical tube is clamped between the first clamping jaw and the second clamping jaw, characterized in that the first clamping jaw is configured to be elastically movable relative to the first clamping portion via a connecting member and/or the second clamping jaw is configured to be elastically movable relative to the second clamping portion via a connecting member.