mhurhangee/ep-ind-claims huggingface dataset:
Filling system for filling a liquid product into bottles or similar containers, with at least one filling element (3,3a) with a product space or liquid channel configured in a filling element housing (7,7a), which is in communication with a bowl for the product and forms a product dispenser on a lower side of the filling element (3,3a), via which dispenser the liquid product flows towards the respective container to be filled, which is being held on a container support, and with a liquid valve arranged in the liquid channel, wherein, for heating or keeping warm the filling element (3, 3a) during a hot filling, a first flow path (24, 27; 33) is formed in the filling element housing (7,7a), which connects a part section (8.1) of the liquid channel, located in relation to the flow direction of the liquid product in the liquid channel upstream of the liquid valve, to a collection channel which is common to a plurality of filling elements (3,3a), and wherein at least one control valve (25,36) is provided, specifically for the controlling of the flow of a hot filling product out of the bowl through the part section (8.1) and the first flow path into the first collection channel, characterised by a return gas channel (13,14), which during the filling is in connection with the interior of the container, which is arranged in a sealing position against the filling element (3,3a), via at least one second and a third flow path (15, 16, 21; 15, 21, 32), formed in the housing (7,7a) of the filling element (3,3a), which connects the return gas channel (13,14) to a second collection chamber which is common to a plurality of filling elements (3,3a), as well as via at least one control valve (18,19;31) for the controlled connecting of the return gas channel (13,14) to the second collection channel via the second flow path (15,21) and/or via the third, choked, flow path (16,21;32,21).
A power cable comprising: a conductor (1-1; 1-2; 1-3) comprising: a first conductor section comprising an elongated first central element made of a first metal and a first outer metal structure made of a second metal surrounding the first central element, a second conductor section (5-1; 5-2; 5-3) comprising the second metal, a weld metal located axially between the first conductor section and the second conductor section (5-1; 5-2; 5-3), wherein the first conductor section has a first axial end section extending to the weld metal, wherein the first axial end section comprises: a central axially extending first metal member surrounded by the first outer metal structure, the first metal member including a first axial part made of the first metal and a second axial part made of the second metal, wherein the first axial part has a first end that is welded to the first central element and a second end that is welded to a first end of the second axial part, and wherein the second axial part has a second end, wherein the second end of the second axial part and the first outer metal structure are welded to the second conductor section (5-1; 5-2; 5-3) by means of the weld metal. a first conductor section comprising an elongated first central element made of a first metal and a first outer metal structure made of a second metal surrounding the first central element, a second conductor section (5-1; 5-2; 5-3) comprising the second metal, a weld metal located axially between the first conductor section and the second conductor section (5-1; 5-2; 5-3), wherein the first conductor section has a first axial end section extending to the weld metal, wherein the first axial end section comprises: a central axially extending first metal member surrounded by the first outer metal structure, the first metal member including a first axial part made of the first metal and a second axial part made of the second metal, wherein the first axial part has a first end that is welded to the first central element and a second end that is welded to a first end of the second axial part, and wherein the second axial part has a second end, wherein the second end of the second axial part and the first outer metal structure are welded to the second conductor section (5-1; 5-2; 5-3) by means of the weld metal. a central axially extending first metal member surrounded by the first outer metal structure, the first metal member including a first axial part made of the first metal and a second axial part made of the second metal, wherein the first axial part has a first end that is welded to the first central element and a second end that is welded to a first end of the second axial part, and wherein the second axial part has a second end, wherein the second end of the second axial part and the first outer metal structure are welded to the second conductor section (5-1; 5-2; 5-3) by means of the weld metal.
A connector with a sliding cam, comprising: a housing for accommodating contacts; and a slider accommodated to be slidable in a slider accommodating groove arranged in the housing, and having a plurality of lines of cam grooves (71a, 71b, 71c) in a sliding direction, the cam grooves (71a, 71b, 71c) having cam pin insertion openings (73a, 73b, 73c) into which a plurality of cam pins (411a, 411b, 411c) provided at both side surfaces of a mating portion of a mating connector are inserted, wherein: the slider slides for mating with and unmating from the mating portion of the mating connector, and projections (74a, 74b, 74c) for temporary mating are provided at the cam pin insertion openings (73a, 73b, 73c), characterised in that a height (h 1) of the projection for the temporary mating of one of the cam grooves corresponding to one of the cam pins provided at a longer distance from a side surface end portion of the mating portion, is higher than a height (h 2) of the projection (74b, 74c) for the temporary mating of each of the other cam grooves (71b, 71c). a housing for accommodating contacts; and a slider accommodated to be slidable in a slider accommodating groove arranged in the housing, and having a plurality of lines of cam grooves (71a, 71b, 71c) in a sliding direction, the cam grooves (71a, 71b, 71c) having cam pin insertion openings (73a, 73b, 73c) into which a plurality of cam pins (411a, 411b, 411c) provided at both side surfaces of a mating portion of a mating connector are inserted, wherein: the slider slides for mating with and unmating from the mating portion of the mating connector, and projections (74a, 74b, 74c) for temporary mating are provided at the cam pin insertion openings (73a, 73b, 73c), characterised in that a height (h 1) of the projection for the temporary mating of one of the cam grooves corresponding to one of the cam pins provided at a longer distance from a side surface end portion of the mating portion, is higher than a height (h 2) of the projection (74b, 74c) for the temporary mating of each of the other cam grooves (71b, 71c).
A wave power unit including a buoy adapted to a float on a water surface, an electric generator adapted to be located on the sea bed and mechanical connection means (4, 12, 13) connecting the buoy to the generator, characterized in that the buoy when floating on a water surface and when seen in a direction perpendicular to the water surface has the shape of a closed loop enclosing an inner opening, the opening being substantially free from objects related to the wave power unit, that the buoy includes a floating body having said shape of a closed loop enclosing an inner opening, that the floating body (3b; 3c) includes a plurality of sections directly connected to each other, that each section is a straight pipe and each pipe is watertight connected to adjacent pipes, and in that the floating body is hollow, and in that said connection means (4, 12, 13) includes at least three fastening devices connected to the buoy at different locations.
A method for producing a compound of Formula or a salt thereof [In the formula, R 1 and R 2 represent C 1-6 alkyl groups that are the same or different from each other.], comprising a step of hydrolyzing a compound of Formula or a salt thereof. [In the formula, R 1 and R 2 represent C 1-6 alkyl groups that are the same or different from each other.]
An adapter, comprising: a converter unit configured to increase at least one of a voltage and a current outputted from a battery pack and supply the increased at least one of the voltage and the current to a load; and a characteristic detection unit configured to detect at least one of the voltage outputted from the battery pack, the current outputted from the battery pack, a temperature of the battery pack, a voltage inputted to the load, a current inputted to the load and a temperature of the converter unit; characterized in that the adapter further comprises: a control unit configured to control the converter unit to increase each of said at least one of the voltage and the current outputted from the battery pack to a corresponding reference value and further to perform, while the increased at least one of the voltage and the current is configured to be supplied to the load, a control operation of suppressing the increase of said at least one of the voltage and the current in the converter unit to prevent an occurrence of over-current or over-discharge based on at least one detection result detected by the characteristic detection unit. a converter unit configured to increase at least one of a voltage and a current outputted from a battery pack and supply the increased at least one of the voltage and the current to a load; and a characteristic detection unit configured to detect at least one of the voltage outputted from the battery pack, the current outputted from the battery pack, a temperature of the battery pack, a voltage inputted to the load, a current inputted to the load and a temperature of the converter unit; characterized in that the adapter further comprises: a control unit configured to control the converter unit to increase each of said at least one of the voltage and the current outputted from the battery pack to a corresponding reference value and further to perform, while the increased at least one of the voltage and the current is configured to be supplied to the load, a control operation of suppressing the increase of said at least one of the voltage and the current in the converter unit to prevent an occurrence of over-current or over-discharge based on at least one detection result detected by the characteristic detection unit.
A thermoplastic polyurethane, obtainable by reacting a) isocyanates with b) chain extenders and c) polymer polyols, said polymer polyol being prepared using a difunctional polyether polyol having exclusively primary OH groups and a number-average molecular weight of from 500 to 2000 as a carrier polyol, and d) optionally polyols having a molecular weight of from 400 to 3000 g/mol and an average functionality of from 1.8 to 2.3. a) isocyanates with b) chain extenders and c) polymer polyols, said polymer polyol being prepared using a difunctional polyether polyol having exclusively primary OH groups and a number-average molecular weight of from 500 to 2000 as a carrier polyol, and d) optionally polyols having a molecular weight of from 400 to 3000 g/mol and an average functionality of from 1.8 to 2.3.
A propulsion system (100, 900) comprising: a substantially tubular structure comprising a central axis through a longitudinal geometric center; a first fan configured to rotate around the central axis and comprising: a first fan hub rotationally coupled to the substantially tubular structure; and a plurality of first fan blades (112, 902) coupled to the first fan hub and increasing in chord length with increasing distance from the first fan hub; a second fan configured to rotate around the central axis and contra-rotate relative to the first fan and comprising: a second fan hub rotationally coupled to the substantially tubular structure; and a plurality of second fan blades (122, 904) coupled to the second fan hub; a nacelle (124, 906) circumscribing the first fan and the second fan, and coupled to and configured to rotate with the first fan; a contra-rotating first coaxial electric motor coupled to a contra-rotating second coaxial motor and operable to be controllable individually to contra rotate relative to each other; the first fan blades (112, 902) and the second fan blades (122, 904) coupled to the contra-rotating first coaxial electric motor and the contra-rotating second coaxial motor respectively; and a substantially conical close-out end of the substantially tubular structure coupled to the contra-rotating first coaxial electric motor. a substantially tubular structure comprising a central axis through a longitudinal geometric center; a first fan configured to rotate around the central axis and comprising: a first fan hub rotationally coupled to the substantially tubular structure; and a plurality of first fan blades (112, 902) coupled to the first fan hub and increasing in chord length with increasing distance from the first fan hub; a first fan hub rotationally coupled to the substantially tubular structure; and a plurality of first fan blades (112, 902) coupled to the first fan hub and increasing in chord length with increasing distance from the first fan hub; a second fan configured to rotate around the central axis and contra-rotate relative to the first fan and comprising: a second fan hub rotationally coupled to the substantially tubular structure; and a plurality of second fan blades (122, 904) coupled to the second fan hub; a second fan hub rotationally coupled to the substantially tubular structure; and a plurality of second fan blades (122, 904) coupled to the second fan hub; a nacelle (124, 906) circumscribing the first fan and the second fan, and coupled to and configured to rotate with the first fan; a contra-rotating first coaxial electric motor coupled to a contra-rotating second coaxial motor and operable to be controllable individually to contra rotate relative to each other; the first fan blades (112, 902) and the second fan blades (122, 904) coupled to the contra-rotating first coaxial electric motor and the contra-rotating second coaxial motor respectively; and a substantially conical close-out end of the substantially tubular structure coupled to the contra-rotating first coaxial electric motor.
Explosion-proof LED module having at least one LED, which is arranged on an LED circuit board, a heat sink connected to said LED and an LED cover covering the LED at least in the emission direction, wherein the LED cover extends into an insertion recess of a heat sink and in said insertion recess is surrounded by a casting compound sealing the LED relative to an external and potentially explosive atmosphere, characterised in that the heat sink has at least one insertion recess running in the longitudinal direction of the body, in which the LED circuit board is placed on a cooling surface.
Dishwasher, especially domestic dishwasher, comprising a body, a washing chamber provided in the body wherein the washing is realized, at least one rack (4.1; 4.2) which is located in the washing chamber for loading dishes to be washed and at least one spray arm (5.1; 5.2) which rotates around itself and provides water into the washing chamber for washing the dishes, wherein the dishwasher comprises a checking mechanism which is configured to translate the sliding movement of the at least one rack (4.1; 4.2) into rotation of the at least one spray arm (5.1; 5.2), characterized in that the checking mechanism comprises at least one gear (10; 21) provided on the at least one spray arm (5.1; 5.2) and at least one preferably gear rack or linear gear provided on the at least one rack (4.1; 4.2), wherein the at least one preferably gear rack or linear gear engages to the at least one gear (10; 21) and turns the at least one spray arm (5.1; 5.2) that is coupled to the at least one gear (10; 21).
A dosage form comprising: a) a core having an exterior surface and first and second ends; b) at least one debossed pattern in said core; wherein said at least one debossed pattern contains at least one wall; wherein the at least one wall contains a wall angle from vertical of 25 degrees or less; and c) a coating over portions of the exterior surface of the core. a) a core having an exterior surface and first and second ends; b) at least one debossed pattern in said core; wherein said at least one debossed pattern contains at least one wall; wherein the at least one wall contains a wall angle from vertical of 25 degrees or less; and c) a coating over portions of the exterior surface of the core.
A plate and a first mold for use in an aligner manufacturing system comprising a thermoforming chamber, wherein the plate is configured to secure the first mold of a first dental arch in a predetermined position, a predetermined orientation, and predetermined distance from inner walls of the thermoforming chamber and/or predetermined distance from a second mold, wherein the plate comprises: a pin corresponding to the first mold; a locking mechanism corresponding to the first mold; and a keyway corresponding to the first mold. a pin corresponding to the first mold; a locking mechanism corresponding to the first mold; and a keyway corresponding to the first mold.
A method for removing carbon dioxide comprising: contacting gas containing carbon dioxide with an alkali carbonate-based carbon dioxide absorbent containing an added sterically hindered cyclic amine; absorbing carbon dioxide from the gas; and regenerating the carbon dioxide absorbent, wherein the alkali carbonate is at least one selected from a group consisting of potassium carbonate (K 2 CO 3), potassium hydroxide and potassium bicarbonate (KHCO 3); wherein the carbon dioxide absorbent includes 16 or less wt% of an alkali carbonate and 10 or less wt% of a sterically hindered cyclic amine; and wherein the sterically hindered cyclic amine is at least one selected from the group consisting of 2-methyl piperazine and homopiperazine. contacting gas containing carbon dioxide with an alkali carbonate-based carbon dioxide absorbent containing an added sterically hindered cyclic amine; absorbing carbon dioxide from the gas; and regenerating the carbon dioxide absorbent, wherein the alkali carbonate is at least one selected from a group consisting of potassium carbonate (K 2 CO 3), potassium hydroxide and potassium bicarbonate (KHCO 3); wherein the carbon dioxide absorbent includes 16 or less wt% of an alkali carbonate and 10 or less wt% of a sterically hindered cyclic amine; and wherein the sterically hindered cyclic amine is at least one selected from the group consisting of 2-methyl piperazine and homopiperazine.
A method of receiving data by a collector node, comprising: listening, by the collector node, during a listening period, for a hailing signal from a plurality of RF devices on a hailing channel, the hailing signal including identification of a specified data channel; in response to receiving the hailing signal from one of the plurality of RF devices, switching to the specified data channel and receiving data, by the collector node, on the specified data channel; collecting, by the collector node, during a collecting period, data from the plurality of RF devices; and receiving, by the collector node, the data from at least one of the plurality of RF devices, wherein the listening period and the collecting period occur at different times. listening, by the collector node, during a listening period, for a hailing signal from a plurality of RF devices on a hailing channel, the hailing signal including identification of a specified data channel; in response to receiving the hailing signal from one of the plurality of RF devices, switching to the specified data channel and receiving data, by the collector node, on the specified data channel; collecting, by the collector node, during a collecting period, data from the plurality of RF devices; and receiving, by the collector node, the data from at least one of the plurality of RF devices, wherein the listening period and the collecting period occur at different times.
A method comprising: receiving as input, data to be transmitted from a transmitter to a receiver over an optical fiber in a coherent optical communications system; converting the data to sequences of one of at least four levels according to a multilevel quadrature amplitude modulation, QAM, scheme, comprising the generation of sequences of in-phase, I, modulation levels and sequences of quadrature-phase, Q, modulation levels, the levels including two outer levels and two or more inner levels;distorting two outer levels to reduce amplitudes of the two outer levels; adjusting the Q modulation levels to compensate for non-ideal phase response of a first optical modulator, wherein the adjusting comprises adjusting a Q modulation level depending on whether the Q modulation level and current I modulation level is an outer level or an inner level, and adjusting the I modulation levels to compensate for a non-ideal phase response of a second optical modulator, wherein the adjusting comprises adjusting an I modulation level depending on whether the I modulation level and current Q modulation level is an outer level or an inner level; and driving an optical modulator with the at least four levels after distorting the two outer levels, so that, as a result of the distorting of the two outer levels, eye openings of a received optical field at the receiver are equalized. receiving as input, data to be transmitted from a transmitter to a receiver over an optical fiber in a coherent optical communications system; converting the data to sequences of one of at least four levels according to a multilevel quadrature amplitude modulation, QAM, scheme, comprising the generation of sequences of in-phase, I, modulation levels and sequences of quadrature-phase, Q, modulation levels, the levels including two outer levels and two or more inner levels;distorting two outer levels to reduce amplitudes of the two outer levels; adjusting the Q modulation levels to compensate for non-ideal phase response of a first optical modulator, wherein the adjusting comprises adjusting a Q modulation level depending on whether the Q modulation level and current I modulation level is an outer level or an inner level, and adjusting the I modulation levels to compensate for a non-ideal phase response of a second optical modulator, wherein the adjusting comprises adjusting an I modulation level depending on whether the I modulation level and current Q modulation level is an outer level or an inner level; and driving an optical modulator with the at least four levels after distorting the two outer levels, so that, as a result of the distorting of the two outer levels, eye openings of a received optical field at the receiver are equalized.