mhurhangee/ep-ind-claims huggingface dataset:
A fuel mixture comprising: (a) an oil in an amount from 50% to 99% (vol/vol) of the fuel mixture, wherein the oil is selected from the group consisting of marine gas oil, marine diesel oil, intermediate fuel oil, low sulfur diesel, ultra-low sulfur diesel and residual fuel oil; (b) a plurality of droplets evenly dispersed in the oil, wherein the droplets comprise glycerol; and the glycerol is present in 35% (vol/vol) of the fuel mixture; and (c) a non-ionic surfactant, wherein the mixture remains homogeneous or chemically stable at room temperature for at least 24 hours. (a) an oil in an amount from 50% to 99% (vol/vol) of the fuel mixture, wherein the oil is selected from the group consisting of marine gas oil, marine diesel oil, intermediate fuel oil, low sulfur diesel, ultra-low sulfur diesel and residual fuel oil; (b) a plurality of droplets evenly dispersed in the oil, wherein the droplets comprise glycerol; and the glycerol is present in 35% (vol/vol) of the fuel mixture; and (c) a non-ionic surfactant,
A semiconductive composition, which semiconductive composition comprises 50 to 98 weight percentage (wt %) of a polymer blend, 2 to 50 wt % of a conductive filler and 0.05 to 2 wt% of an antioxidant; wherein said polymer blend comprises 10 to 99 wt% of a multimodal high density polyolefin, which high density polyolefin has a density which is from 930 to 970 kg/m 3 and a melt flow rate (MFR2@190°C) according to ISO 1133 (190°C, 2.16 kg) which is less than 1.6 g/10 min, and 1 to 90 wt% of a thermoplastic elastomer, which is an unsaturated polyolefin comprising a polymer with monomer units comprising polar groups.
A method for addressing control components (170..177) of a group of several linearly chained control components (170..177) of a conveying system, characterized by the steps a) step-by-step allocation of ascending/descending addresses to control components (171..174), wherein the control components (170..177) are arranged from any control component, but not one lying at an end of the mentioned chain, to a first end of the mentioned chain, by means of a daisy-chain selection line; b) step-by-step allocation of ascending/descending addresses to control components (175..177) proceeding from the control component arranged adjacent to the control component mentioned in step a) in the direction of the second end of the mentioned chain to the mentioned second end by means of the daisy-chain selection line; and c) ascending/descending addressing of the control components (171..174) addressed in step a) in the reversed sequence. a) step-by-step allocation of ascending/descending addresses to control components (171..174), wherein the control components (170..177) are arranged from any control component, but not one lying at an end of the mentioned chain, to a first end of the mentioned chain, by means of a daisy-chain selection line; b) step-by-step allocation of ascending/descending addresses to control components (175..177) proceeding from the control component arranged adjacent to the control component mentioned in step a) in the direction of the second end of the mentioned chain to the mentioned second end by means of the daisy-chain selection line; and c) ascending/descending addressing of the control components (171..174) addressed in step a) in the reversed sequence.
A computer-implemented medical method for radiation treatment planning for treating multiple brain metastases of a patient, the method comprising the following steps: - acquiring a first arc setup comprising a plurality of arcs, each arc being defined by a combination of a patient table angle, a gantry start angle and a gantry stop angle, - distributing a plurality of target volumes, which describe the brain metastases, to the arcs of the first arc setup thereby providing a packed first arc setup, - comparing said first packed arc setup with one or more predefined arc setup constraints, characterised in that the one or more predefined arc setup constraints are selected from: the number of patient table angles per target volume, the number of passes, the sum of gantry span per metastasis over all arcs, the minimum table span, and the total number of patient table angles, and the method comprising the step of - automatically suggesting at least a second arc setup based on a result of the comparison. - acquiring a first arc setup comprising a plurality of arcs, each arc being defined by a combination of a patient table angle, a gantry start angle and a gantry stop angle, - distributing a plurality of target volumes, which describe the brain metastases, to the arcs of the first arc setup thereby providing a packed first arc setup, - comparing said first packed arc setup with one or more predefined arc setup constraints, the one or more predefined arc setup constraints are selected from: the number of patient table angles per target volume, the number of passes, the sum of gantry span per metastasis over all arcs, the minimum table span, and the total number of patient table angles, and the method comprising the step of - automatically suggesting at least a second arc setup based on a result of the comparison. - automatically suggesting at least a second arc setup based on a result of the comparison.
Nacelle for a bypass turbojet engine having a secondary flow path, the said nacelle exhibiting an open window between the secondary flow path and the outside of the nacelle and comprising a reverser system comprising doors (208c-d) in which each door (208c-d) is able to move between a stowed position in which the door (208c-d) closes off the window and a deployed position in which the door (208c-d) does not close off the window and, for each door (208c-d), at least one locking system configured to lock the door (208c-d) in the stowed position, to unlock the door (208c-d) automatically when the door (208c-d) leaves its stowed position and to lock the door (208c-d) automatically when the door (208c-d) arrives in its stowed position, the nacelle being characterized in that each locking system comprises a shoe fixed to the door (208c-d), a stud facing away from the door (208c-d) and having a restriction between its base fixed to the shoe and its tip, two jaws fixed to the nacelle via an elastic support and able to move between a parted position in which the distance between the two jaws is greater than the width of the tip of the stud and a contracted position in which the distance between the two jaws is less than the width of the tip of the stud.
Vehicle, in particular rail vehicle, having at least one seat (40, 50), wherein the seat (40, 50) is mounted oriented in the longitudinal direction of the vehicle on a curved support element which is fastened to a side wall of the vehicle with two spaced-apart support element ends (31, 32), characterized in that - the curved support element is U-shaped in top view as seen along the longitudinal direction of the vehicle, and - the seat (40, 50) - as seen along the longitudinal direction of the vehicle - is arranged in the inner region of the U-shaped support element and is framed by the curved support element. - the curved support element is U-shaped in top view as seen along the longitudinal direction of the vehicle, and - the seat (40, 50) - as seen along the longitudinal direction of the vehicle - is arranged in the inner region of the U-shaped support element and is framed by the curved support element.
Method for mapping qubits of a quantum computer, which has a plurality of qubits (5, 6), for simulating a system consisting of a conventionally describable bath and a cluster to be described quantum-mechanically, the system elements of which can each assume two states, characterized in that the qubits (5, 6) of the quantum computer are evaluated with regard to their system properties and categorized into high-performance qubits and low-performance qubits, operations being carried out and measured on individual and connected qubits (5, 6) of the quantum computer in order to evaluate the quality and excellence of the qubits (5, 6) of the quantum computer, wherein the quality of the qubits (5, 6) is determined by measuring their decoherence time and the excellence of the qubits (5, 6) is determined by measuring the fidelity of the 1-qubit and 2-qubit operations, and wherein the high-performance qubits of the quantum computer are assigned to the simulation of the cluster and the low-performance qubits are assigned to the simulation of the bath, and wherein the system is simulated on the quantum computer using the assignment.
Impact pad for use in tundish of continuous casting of steel during pouring out of molten steel from the casting ladle into the tundish, the impact pad including side walls provided with barriers distributed spaced apart and staggered in height and in length in the whole extension of the walls or part thereof, the impact pad also comprising an impact bottom provided with corrugations distributed and staggered in its entirety or part thereof, characterized in that the barriers have a rectangular shape in its longitudinal section and are spaced apart in two vertically adjacent rows in an overlapping position covering a preferential flow paths of the molten steel.
A centrifugal pump for conveying a fluid, having a pump housing in which a rotor is provided for conveying the fluid, and having a stator which, together with the rotor, forms an electromagnetic rotary drive for rotating the rotor about an axial direction, wherein the stator is designed as a bearing and drive stator with which the rotor can be magnetically driven without contact and magnetically levitated without contact with respect to the stator, wherein the rotor is passively magnetically levitated in the axial direction, and is actively magnetically levitated in a radial plane perpendicular to the axial direction, wherein the pump housing comprises a bottom and a cover, and wherein the rotor is arranged in the pump housing between the bottom and the cover with respect to the axial direction, characterized in that at least one indentation is provided in the bottom and/or in the cover, which indentation is designed to generate a local turbulence.
A filter, comprising a metal cavity, at least one metal resonant cavity, and a metal cover covering the metal cavity and the at least one metal resonant cavity, wherein a dielectric waveguide is disposed in the metal cavity, and the dielectric waveguide is electrically connected to the metal cavity; a resonant rod is disposed in the at least one metal resonant cavity; and a coupling structure is disposed between the metal cavity and the at least one metal resonant cavity that is neighboring to the metal cavity, the coupling structure comprises a communication area between the metal cavity and the at least one metal resonant cavity and a dielectric body that protrudes into the communication area, the dielectric body is connected to the dielectric waveguide, and the coupling structure is coupled to the resonant rod in the at least one metal resonant cavity; wherein the dielectric waveguide and the dielectric body are of an integral structure; wherein at least two dielectric resonant cavities are disposed on the dielectric waveguide, the at least two dielectric resonant cavities are coupled together. a dielectric waveguide is disposed in the metal cavity, and the dielectric waveguide is electrically connected to the metal cavity; a resonant rod is disposed in the at least one metal resonant cavity; and a coupling structure is disposed between the metal cavity and the at least one metal resonant cavity that is neighboring to the metal cavity, the coupling structure comprises a communication area between the metal cavity and the at least one metal resonant cavity and a dielectric body that protrudes into the communication area, the dielectric body is connected to the dielectric waveguide, and the coupling structure is coupled to the resonant rod in the at least one metal resonant cavity; wherein the dielectric waveguide and the dielectric body are of an integral structure; wherein at least two dielectric resonant cavities are disposed on the dielectric waveguide, the at least two dielectric resonant cavities are coupled together.
A paraboloidal percussion instrument having at least one face and multiple resonating bodies, characterized in that the resonating bodies on their inner side describe the spatial form of elliptical paraboloids which spatially coincide in their respective focal points.
Signal emitter which is embodied for actuating an LED light source (7; 7a, 7b, 7c) and for interacting with a signal box and comprises an operating mode detection (3; 3a, 3b, 3c) which is embodied for detecting a target operating mode, in particular with respect to day or night operation, EMC protection equipment which is embodied for eliminating inadmissible interference voltages in the input signal, a signal generator/driver board (4; 4a, 4b; 4.1a, 4.1b, 4.1c, 4.2a, 4.2b, 4.2c) which is embodied for analysing information of the operating mode detection and adjusting an energisation for the LED light source, a characteristic curve modification (5; 5a, 5b, 5c) which is embodied for reproducing electrical properties of an incandescent lamp, a measured value detection (8; 8a, 8b) which is embodied for determining an actual operating mode by detecting optical and/or electrical operating values of the LED light source, a comparator (6; 6a, 6b, 6c) which is embodied for comparing the target operating mode predefined by the operating mode detection (3; 3a, 3b, 3c) and the actual operating mode determined by means of the measured value detection (8; 8a, 8b), and an analysis (9; 9a, 9b) which is embodied for evaluating the operating values determined by the measured value detection, wherein the operating mode detection (3; 3a, 3b, 3c) is connected on the input side via the EMC protection equipment to the signal box and on the output side to the signal generator/driver board (4; 4a, 4b; 4.1a, 4.1b, 4.1c, 4.2a, 4.2b, 4.2c) for energising the LED light source (7; 7a, 7b, 7c), the characteristic curve modification (5; 5a, 5b, 5c) and the comparator (6; 6a, 6b, 6c), wherein the measured value detection (8; 8a, 8b) is additionally integrated into a closed control loop with the analysis (9; 9a, 9b) and the signal generator/driver board (4; 4a, 4b; 4.1a, 4.1b, 4.1c, 4.2a, 4.2b, 4.2c), wherein the comparator (6; 6a, 6b, 6c) is connected to the signal box via a back channel and the signal emitter is embodied during error-free operation such that the actual operating mode of the back channel matches the target operating mode from the actuation by the signal box, and the operating mode detection (3; 3a, 3b, 3c), the EMC protection equipment, the signal generator/driver board (4; 4a, 4b; 4.1a, 4.1b, 4.1c, 4.2a, 4.2b, 4.2c), the characteristic curve modification (5; 5a, 5b, 5c), the comparator (6; 6a, 6b, 6c) and the measured value detection (8; 8a, 8b) are embodied so as to be safely separated from one another in terms of signal technology.
Stun grenade comprising a fuze head, a housing which receives the fuze head, a rocker arm located on the fuze head, and a safety cotter pin which secures the rocker arm, the housing containing at least two chambers with an effect charge, and the chambers having at least one through-ignition hole, characterized in that a switching mechanism is supported in the housing, it being possible for the switching mechanism to functionally connect different chambers simultaneously to a delay charge by means of its own adjustment, a fuse being introduced into an air gap between the fuze head and the housing, the fuse being designed in the form of a plastics clip and comprising a tab which projects laterally into the fuze head and covers a primer cap.
A heat-resistant alloy characterized by consisting of a first phase of a Mo metal phase, a second phase of Mo 5 SiB 2, and a third phase of titanium carbonitride, and a balance being inevitable compounds and an inevitable impurity, wherein a composition of the titanium carbonitride is expressed by TiC x N 1-x, wherein x is from 0.3 to 0.7, wherein the content of the titanium carbonitride in the alloy is 1 mass% or more and 80 mass% or less; and wherein the content of the Mo 5 SiB 2 in the alloy is 5 mass% or more and 80 mass% or less, wherein titanium carbonitride grains in the alloy have an average grain size of 0.5 μm or more and 11μm or less, wherein the Mo 5 SiB 2 in the alloy has an average grain size of 0.5 μm or more and 20 μm or less; and wherein the inevitable compounds are MoB, Mo 3 Si, Mo 5 Si 3 and Mo 2 C.
A scroll compressor comprising: a scroll compression element including a movable scroll; a drive shaft configured to allow the movable scroll to rotate; a boss portion connected to a back surface of the movable scroll, the boss portion being configured to rotatably support an upper end portion of the drive shaft configured as an eccentric shaft portion; and a sliding bearing provided between the boss portion and the eccentric shaft portion, an axially central portion of the boss portion being more rigid than a connection portion of the boss portion connected to the movable scroll and a distal end portion of the boss portion are, the central portion of the boss portion is thicker than the connection portion of the boss portion and the distal end portion of the boss portion are, the boss portion being shaped so that the central portion projects more outward than the connection portion and the distal end portion. a scroll compression element including a movable scroll; a drive shaft configured to allow the movable scroll to rotate; a boss portion connected to a back surface of the movable scroll, the boss portion being configured to rotatably support an upper end portion of the drive shaft configured as an eccentric shaft portion; and a sliding bearing provided between the boss portion and the eccentric shaft portion, an axially central portion of the boss portion being more rigid than a connection portion of the boss portion connected to the movable scroll and a distal end portion of the boss portion are, the central portion of the boss portion is thicker than the connection portion of the boss portion and the distal end portion of the boss portion are, the boss portion being shaped so that the central portion projects more outward than the connection portion and the distal end portion.
A shot-blasting machine comprising: a cabinet, a rotary drum that has holes, and a centrifugal shooting machine, wherein the rotary drum is configured to move, within the cabinet, forward and backward around a horizontal shaft that passes through a central axis of the rotary drum to move through operating positions for feeding materials to be processed, for processing the materials, and for taking out the materials, wherein the cabinet has a cover for shutting an opening for feeding the materials to be processed and taking out the materials, and the cabinet having on a side of the opening a wall for sealing that consists of a ceiling, a base, and two side walls (59c, 59d), wherein the cover is integrated with the rotary drum to be movable forward and backward around an axis, characterised in that the cover comprises upper and lower arc portions (51a, 51b) that can fit the wall for sealing, a string portion for connecting a front side of the upper arc portion to the front side of the lower arc portion, and two side portions that enclose the space between the string portion and the upper and lower arc portions (51a, 51b), and wherein a seal (61, 63) is formed by at least a line of a lip seal that is provided at gaps between the upper and lower arc portions (51a, 51b) and the two side portions of the cover and the wall for sealing. a cabinet, a rotary drum that has holes, and a centrifugal shooting machine, wherein the rotary drum is configured to move, within the cabinet, forward and backward around a horizontal shaft that passes through a central axis of the rotary drum to move through operating positions for feeding materials to be processed, for processing the materials, and for taking out the materials, wherein the cabinet has a cover for shutting an opening for feeding the materials to be processed and taking out the materials, and the cabinet having on a side of the opening a wall for sealing that consists of a ceiling, a base, and two side walls (59c, 59d), wherein the cover is integrated with the rotary drum to be movable forward and backward around an axis, characterised in that the cover comprises upper and lower arc portions (51a, 51b) that can fit the wall for sealing, a string portion for connecting a front side of the upper arc portion to the front side of the lower arc portion, and two side portions that enclose the space between the string portion and the upper and lower arc portions (51a, 51b), and wherein a seal (61, 63) is formed by at least a line of a lip seal that is provided at gaps between the upper and lower arc portions (51a, 51b) and the two side portions of the cover and the wall for sealing.
A surgical buttress for use with a circular or semi-circular surgical stapling apparatus, the surgical buttress comprising: a body portion configured and dimensioned to substantially overlie a portion of at least some of the fastener slots of a tubular body portion of the surgical stapling apparatus or the fastener pockets of an anvil of the surgical stapling apparatus; a resilient skirt for engaging the circumferential periphery of the stapling apparatus and for pulling over the tubular body portion of the anvil; characterised in that the body portion of the surgical buttress includes a plurality of perforations disposed along a perimeter thereof. a body portion configured and dimensioned to substantially overlie a portion of at least some of the fastener slots of a tubular body portion of the surgical stapling apparatus or the fastener pockets of an anvil of the surgical stapling apparatus; a resilient skirt for engaging the circumferential periphery of the stapling apparatus and for pulling over the tubular body portion of the anvil; characterised in that the body portion of the surgical buttress includes a plurality of perforations disposed along a perimeter thereof.