mhurhangee/ep-ind-claims huggingface dataset:
A system for making strips of edible material, said system including: a hopper (110, 210) for a flowable edible material, wherein said hopper includes a plurality of discharge openings, each having a first side and a second side, wherein each said first side and said second side are separated from each other by a distance representing a desired width of a strip of flowable edible material, a discharge shaping roller (120, 220), wherein said discharge shaping roller includes a discharge roller surface adjacent to said first side and said second side; and a cooling roller (130, 230) having a cooling roller surface adjacent to said first side and said second side; wherein said discharge shaping roller (120, 220) is separated from said cooling roller (130, 230) by a distance representing a desired height of a strip of flowable edible material wherein said flowable edible material passes between said first sides, said second sides, said discharge roller surface, and said cooling roller surface to form a plurality of strips of flowable edible material. a hopper (110, 210) for a flowable edible material, wherein said hopper includes a plurality of discharge openings, each having a first side and a second side, wherein each said first side and said second side are separated from each other by a distance representing a desired width of a strip of flowable edible material, wherein said hopper includes a plurality of discharge openings, each having a first side and a second side, wherein each said first side and said second side are separated from each other by a distance representing a desired width of a strip of flowable edible material, a discharge shaping roller (120, 220), wherein said discharge shaping roller includes a discharge roller surface adjacent to said first side and said second side; and a cooling roller (130, 230) having a cooling roller surface adjacent to said first side and said second side; wherein said discharge shaping roller (120, 220) is separated from said cooling roller (130, 230) by a distance representing a desired height of a strip of flowable edible material wherein said flowable edible material passes between said first sides, said second sides, said discharge roller surface, and said cooling roller surface to form a plurality of strips of flowable edible material. wherein said flowable edible material passes between said first sides, said second sides, said discharge roller surface, and said cooling roller surface to form a plurality of strips of flowable edible material.
A working robot comprising: an arm part that includes a plurality of arm members (14 to 17); and a plurality of motors (21 to 24) that respectively drives the plurality of arm members (14 to 17), wherein rated powers respectively corresponding to the motors (21 to 24) are a same characterized in that the plurality of motors (21 to 24) includes a speed-based motor of which a rated speed is relatively large and a rated torque is relatively small and a torque-based motor of which a rated speed is relatively small and a rated torque is relatively large. an arm part that includes a plurality of arm members (14 to 17); and a plurality of motors (21 to 24) that respectively drives the plurality of arm members (14 to 17), wherein rated powers respectively corresponding to the motors (21 to 24) are a same
A hardenable packaging coating composition, comprising: an under-coat composition, containing: a polyester (co)polymer, and an under-coat cross-linker; and an over-coat composition, containing: a poly(vinyl chloride) (co)polymer dispersed in a substantially non-aqueous over-coat carrier liquid, an over-coat cross-linker, and a functional (meth)acrylic (co)polymer; wherein the packaging coating composition is substantially free of mobile BPA, BPF, BADGE and BFDGE, and wherein the polyester (co)polymer has a glass transition temperature of greater than 60°C. an under-coat composition, containing: a polyester (co)polymer, and an under-coat cross-linker; and a polyester (co)polymer, and an under-coat cross-linker; and an over-coat composition, containing: a poly(vinyl chloride) (co)polymer dispersed in a substantially non-aqueous over-coat carrier liquid, an over-coat cross-linker, and a functional (meth)acrylic (co)polymer; a poly(vinyl chloride) (co)polymer dispersed in a substantially non-aqueous over-coat carrier liquid, an over-coat cross-linker, and a functional (meth)acrylic (co)polymer;
An apparatus for controlled delivery of cooling air to turbine blades in a gas turbine including a rotor unit, at least a first plurality of turbine blades disposed in a first circumferential row (6; 7) around the rotor unit and secured thereto, at least a second plurality of turbine blades disposed in a second circumferential row (7; 8) around the rotor unit and secured thereto, the first row (6; 7) and the second row (7; 8) being axially spaced with respect to one another, the apparatus including: - a plurality of rotor heat shield elements disposed in a circumferential row between said first and second rows of turbine blades, each heat shield element having a root portion contoured so as to fit in a seat of the rotor unit, an intermediate radial portion and a shroud band configured to be axially interposed between the first and second rows (6, 7; 7, 8) of turbine blades, the rotor heat shield elements configured to define with said rotor unit a rotor heat shield passage (33, 34, 35, 36) that is fed with cooling air; - a plurality of lock plates (40, 41, 42, 43) disposed in a circumferential row and configured to secure axially at least one of said first and second rows (6, 7, 8) of turbine blades to said rotor unit, said lock plates (41, 42, 43) facing said heat shield elements, - a first cavity between by the first row of turbine blades and the radial portion of the shield elements and a second cavity between the radial portion of the shield elements and the second row of turbine blades, at least one of said radial portion of the rotor shield elements and the lock plates (41, 42, 43) including at least one opening (48, 49; 54) for controlled flow of cooling air, characterized in that one of said first and second cavity is supplied by a source of cooling air, the other of said first and second cavity being supplied with cooling air through the opening in said radial portion of the shield elements. - a plurality of rotor heat shield elements disposed in a circumferential row between said first and second rows of turbine blades, each heat shield element having a root portion contoured so as to fit in a seat of the rotor unit, an intermediate radial portion and a shroud band configured to be axially interposed between the first and second rows (6, 7; 7, 8) of turbine blades, the rotor heat shield elements configured to define with said rotor unit a rotor heat shield passage (33, 34, 35, 36) that is fed with cooling air; - a plurality of lock plates (40, 41, 42, 43) disposed in a circumferential row and configured to secure axially at least one of said first and second rows (6, 7, 8) of turbine blades to said rotor unit, said lock plates (41, 42, 43) facing said heat shield elements, - a first cavity between by the first row of turbine blades and the radial portion of the shield elements and a second cavity between the radial portion of the shield elements and the second row of turbine blades,
Vapour quality sensor for detecting droplets in a vapour phase containing a ceramic sensor element with a first temperature measurement device and at least one heating device, wherein the ceramic sensor element can be heated by the heating device to above the vapour temperature of the droplets to be detected, in order to achieve instant vaporization of droplets incident thereon from the vapour, wherein the number of droplets in the vapour can be detected by means of the temperature signal and an end of the droplet load in the vapour can be achieved, characterized in that the vapour quality sensor comprises at least two temperature measurement devices, wherein the temperature measurement devices are arranged either on the front or the rear side of the sensor element or on the same side of the sensor element, such that one is exposed to the vapour with droplets and at least one other is exposed to the vapour without droplets.
A method for patterning a high-k gate insulating structure in a semiconductor device for the manufacture of a semiconductor device comprising selectively removing a high-k layer comprising rare earths over a substrate, said selective removal comprising the steps of: - providing a substrate, - depositing a high-k rare earth(s) comprising layer onto said substrate, - forming a gate electrode structure on said high-k layer and exposing parts of the high-k layer, - subjecting the exposed parts of the high-k rare earth(s) comprising layer to a Cl-comprising plasma for chlorinating at least part of said exposed high-k rare earth(s) comprising layer, - contacting or rinsing the resulting chlorinated layer with water, for removing said chlorinated layer. - providing a substrate, - depositing a high-k rare earth(s) comprising layer onto said substrate, - forming a gate electrode structure on said high-k layer and exposing parts of the high-k layer, - subjecting the exposed parts of the high-k rare earth(s) comprising layer to a Cl-comprising plasma for chlorinating at least part of said exposed high-k rare earth(s) comprising layer, - contacting or rinsing the resulting chlorinated layer with water, for removing said chlorinated layer.
A method of preparing a natural acellular xenogenic vascular tissue the method comprising, obtaining a suitable donor blood vessel and subjecting it to the following methodological steps: (i) a pre-treatment incubation with 200mM ethylenediaminetetraacetic acid (EDTA) for at least 24 hours out at around 4°C; (ii) a disinfection wash; (iii) at least two cycles of an incubation with a hypotonic buffer and an anionic detergent; (iv) a nuclease treatment; (v) a hypertonic wash; and (vi) a terminal sterilization process. (i) a pre-treatment incubation with 200mM ethylenediaminetetraacetic acid (EDTA) for at least 24 hours out at around 4°C; (ii) a disinfection wash; (iii) at least two cycles of an incubation with a hypotonic buffer and an anionic detergent; (iv) a nuclease treatment; (v) a hypertonic wash; and (vi) a terminal sterilization process.
Seal assembly for sealing between two receiving chambers for accommodating two media in the region of a shaft, comprising: - an annular sealing element which, in the assembled state, seals against the shaft; - an annular carrier element for accommodating the sealing element; - a shaping element different from the carrier element for shaping and/or supporting the sealing element, wherein the carrier element comprises a hollow cylindrical receiving section for accommodating the sealing element and the shaping element, and a contact section which adjoins the receiving section on one side in the axial direction and extends inwardly from the receiving section in the radial direction, characterized in that the seal assembly comprises a clamping disc for positioning, stabilizing, and/or fixing the sealing element and/or the carrier element, wherein the annular sealing element and the shaping element are fixed to the carrier element by means of a welding connection, in particular by means of a laser welding connection, wherein the welding connection is a material-bonded connection between the clamping disc and the hollow cylindrical receiving section of the carrier element. - an annular sealing element which, in the assembled state, seals against the shaft; - an annular carrier element for accommodating the sealing element; - a shaping element different from the carrier element for shaping and/or supporting the sealing element, wherein the carrier element comprises a hollow cylindrical receiving section for accommodating the sealing element and the shaping element, and a contact section which adjoins the receiving section on one side in the axial direction and extends inwardly from the receiving section in the radial direction, characterized in that the seal assembly comprises a clamping disc for positioning, stabilizing, and/or fixing the sealing element and/or the carrier element, wherein the annular sealing element and the shaping element are fixed to the carrier element by means of a welding connection, in particular by means of a laser welding connection, wherein the welding connection is a material-bonded connection between the clamping disc and the hollow cylindrical receiving section of the carrier element.
A non-invasive system for calculating a human or animal score related to liver, said system comprising: - an in-vitro measurement slave device constructed and arranged to carry out measurements of biological parameters, wherein the in-vitro measurement slave device is a clinical chemistry analyzer, wherein the in-vitro measurement slave device is a point of care testing, the in-vitro measurement slave device being constructed and arranged to measure biochemical parameters selected from the group consisting of: - aspartate aminotransferase, - alanine aminotransferase, - gamma glutamyl transpeptidase or any combination thereof; - an in vivo measurement slave device, which is an elastography device constructed and arranged to carry out measurements of physical parameters; - a master device constructed and arranged to collect said biological and physical parameters and calculate said human or animal score, said score comprising biological and physical parameters. - an in-vitro measurement slave device constructed and arranged to carry out measurements of biological parameters, wherein the in-vitro measurement slave device is a clinical chemistry analyzer, wherein the in-vitro measurement slave device is a point of care testing, the in-vitro measurement slave device being constructed and arranged to measure biochemical parameters selected from the group consisting of: - aspartate aminotransferase, - alanine aminotransferase, - gamma glutamyl transpeptidase or any combination thereof; - aspartate aminotransferase, - alanine aminotransferase, - gamma glutamyl transpeptidase or any combination thereof; - an in vivo measurement slave device, which is an elastography device constructed and arranged to carry out measurements of physical parameters; - a master device constructed and arranged to collect said biological and physical parameters and calculate said human or animal score, said score comprising biological and physical parameters.
A method for recovering and purifying ionic liquids used for biomass pretreatment from water, comprising the steps of: a. Removing particulate matter from a spent process stream of the biomass pretreatment process by membrane filtration; and b. Separating ionic liquids present in the spent process stream of a biomass pretreatment process from water by membrane dehydration. a. Removing particulate matter from a spent process stream of the biomass pretreatment process by membrane filtration; and b. Separating ionic liquids present in the spent process stream of a biomass pretreatment process from water by membrane dehydration.
A compound of formula (Ie) or a pharmaceutically acceptable salt thereof, wherein R 1 is methyl; each R 2 is methoxy; R 3 is methyl; m is an integer of from 0 to 2; each R 4 is independently selected from C1-C6 alkyl, R 12 O, halogen, R 13 R 14 NC -, R 16 C N(R 15)-, R 17 OC -, R 18 C O-, R 19 S 2 -, R 20 S 2 N -, NH 2 S 2 -, R 21 C -, N(R 22)(R 23)-, and - O-; R 12, R 13, R 14, R 15, R 22, and R 23 are independently selected from H and C1-C6 alkyl; R 16, R 17, R 18, R 19, R 20, and R 21 are independently selected from C1-6 alkyl; any alkyl is optionally substituted by one or more F; or two R 4 attached to adjacent atoms of ring B form, together with the atoms to which they are attached, a 5- or 6-membered heterocyclic or carbocyclic ring, or a benzene ring; ring B is 5- or 6-membered heteroaryl or phenyl; for use in therapy. or a pharmaceutically acceptable salt thereof, wherein R 1 is methyl; each R 2 is methoxy; R 3 is methyl; m is an integer of from 0 to 2; each R 4 is independently selected from C1-C6 alkyl, R 12 O, halogen, R 13 R 14 NC -, R 16 C N(R 15)-, R 17 OC -, R 18 C O-, R 19 S 2 -, R 20 S 2 N -, NH 2 S 2 -, R 21 C -, N(R 22)(R 23)-, and - O-; R 12, R 13, R 14, R 15, R 22, and R 23 are independently selected from H and C1-C6 alkyl; R 16, R 17, R 18, R 19, R 20, and R 21 are independently selected from C1-6 alkyl; any alkyl is optionally substituted by one or more F; or R 12, R 13, R 14, R 15, R 22, and R 23 are independently selected from H and C1-C6 alkyl; R 16, R 17, R 18, R 19, R 20, and R 21 are independently selected from C1-6 alkyl; any alkyl is optionally substituted by one or more F; or two R 4 attached to adjacent atoms of ring B form, together with the atoms to which they are attached, a 5- or 6-membered heterocyclic or carbocyclic ring, or a benzene ring; ring B is 5- or 6-membered heteroaryl or phenyl; for use in therapy.
A method for determining the cause of an ignition failure at the burner of a boiler, the burner being used to burn a mixture of a gaseous or liquid fuel and air, an ignition electrode being used to ignite the mixture during an ignition phase, and an ionization electrode being used to monitor the combustion of the mixture, and, at least during the ignition phase, a temperature of the boiler, an air mass flow flowing to the burner, a voltage supply of the ignition electrode and an ionization signal of the ionization electrode also being monitored, characterized in that if it is found that there is no ionization signal and no change in voltage between the ignition electrode and the burner during the ignition phase, a signal is generated with the information that no ignition spark has been generated, and if it is found that there is no ionization signal during the ignition phase and there is a rise in the temperature of the boiler after the ignition phase, a signal is generated with the information that the ionization electrode is defective, and if it is found that there is no ionization signal and no drop in the air mass flow during the ignition phase, a signal is generated with the information that no fuel has been supplied to the burner, wherein the order of the testing is in principle arbitrary and wherein the three said options are tried until at least one cause is determined.
Nuclear magnetic flowmeter for measuring the flow of a multi-phase medium flowing through a measuring tube having a nuclear magnetic measuring device, wherein the nuclear magnetic measuring device is arranged around the measuring tube, wherein additionally a further measuring device implementing a different measuring principle is provided for flow measurement of the multi-phase medium flowing overall through the measuring tube, wherein the further measuring device is a differential pressure flow measuring device and wherein the differential pressure flow measuring device is designed for measuring the differential pressure of the multi-phase medium in the measuring tube, characterized in that the nuclear magnetic measuring device is designed for flow measurement of the liquid phase or phases, that at least one pressure gauge (8a, 8b) is provided at each of at least two differing measuring points (6a, 6b) in the longitudinal direction of the measuring tube, and that, in order to determine a measurement value for the gaseous phase of the multi-phase medium flowing through the measuring tube, the nuclear magnetic flowmeter is designed to subtract the measurement value obtained with the nuclear magnetic measuring device for the liquid phase or the liquid phases of the multi-phase medium flowing through the measuring tube from the measurement value obtained with the additional measuring device for the multi-phase medium flowing overall through the measuring tube.
An air-gap device for cyber isolating mobility systems when a vehicle is in motion, the air-gap device comprising: a housing comprising a plurality of input ports and a plurality of output ports, wherein the plurality of input ports comprise connections to a secure gateway and wherein the plurality of output ports comprise connections to one or more mobility Electronic Control Units, ECUs; at least one pair of terminal contacts, wherein the at least one pair of terminal contacts comprise a first terminal contact and a second terminal contact; and an air gap embedded in the housing, wherein the air gap is closed when the first terminal contact is in contact with the second terminal contact, and wherein the air gap is open when the first terminal contact is not in contact with the second terminal contact, wherein the air-gap device is instructed to open the air gap when the vehicle is determined to be in motion or about to be in motion. a housing comprising a plurality of input ports and a plurality of output ports, wherein the plurality of input ports comprise connections to a secure gateway and wherein the plurality of output ports comprise connections to one or more mobility Electronic Control Units, ECUs; wherein the plurality of input ports comprise connections to a secure gateway and wherein the plurality of output ports comprise connections to one or more mobility Electronic Control Units, ECUs; at least one pair of terminal contacts, wherein the at least one pair of terminal contacts comprise a first terminal contact and a second terminal contact; and an air gap embedded in the housing, wherein the air gap is closed when the first terminal contact is in contact with the second terminal contact, and wherein the air gap is open when the first terminal contact is not in contact with the second terminal contact, wherein the air gap is closed when the first terminal contact is in contact with the second terminal contact, and wherein the air gap is open when the first terminal contact is not in contact with the second terminal contact, wherein the air-gap device is instructed to open the air gap when the vehicle is determined to be in motion or about to be in motion.