mhurhangee/ep-ind-claims huggingface dataset:
A compressor comprising: a case having: an inlet; a motor compartment; a plurality of cylinders; a suction passage being provided between the motor compartment and the cylinders; a crankcase compartment; a wall dividing the motor compartment and the crankcase compartment; and an outlet; a crankshaft; for each of said cylinders: a piston mounted for reciprocal movement at least partially within the cylinder; a connecting rod coupling the piston to the crankshaft; and a pin coupling the connecting rod to the piston; and an electric motor within the motor compartment and comprising: a stator; a rotor mounted to the crankshaft; and a gap formed between the rotor and the stator, wherein, in use, refrigerant is drawn through the gap and then through the suction passage; and wherein the wall bears means (120, 132; 420; 460) comprising a lip for coalescing oil entrained in the refrigerant exiting the gap between the rotor and the stator to prevent the oil from entering the cylinders via the suction passage. a case having: an inlet; a motor compartment; a plurality of cylinders; a suction passage being provided between the motor compartment and the cylinders; a crankcase compartment; a wall dividing the motor compartment and the crankcase compartment; and an outlet; an inlet; a motor compartment; a plurality of cylinders; a suction passage being provided between the motor compartment and the cylinders; a crankcase compartment; a wall dividing the motor compartment and the crankcase compartment; and an outlet; a crankshaft; for each of said cylinders: a piston mounted for reciprocal movement at least partially within the cylinder; a connecting rod coupling the piston to the crankshaft; and a pin coupling the connecting rod to the piston; and a piston mounted for reciprocal movement at least partially within the cylinder; a connecting rod coupling the piston to the crankshaft; and a pin coupling the connecting rod to the piston; and an electric motor within the motor compartment and comprising: a stator; a rotor mounted to the crankshaft; and a gap formed between the rotor and the stator, a stator; a rotor mounted to the crankshaft; and a gap formed between the rotor and the stator, wherein, in use, refrigerant is drawn through the gap and then through the suction passage; and wherein the wall bears means (120, 132; 420; 460) comprising a lip for coalescing oil entrained in the refrigerant exiting the gap between the rotor and the stator to prevent the oil from entering the cylinders via the suction passage.
Use of a molding composition which comprises the following components: I. less than 95 to 80 parts by weight of a polyetheramide based on a liner aliphatic diamine having from 6 to 14 carbon atoms, on a linear aliphatic or aromatic dicarboxylic acid having from 6 to 14 carbon atoms, and on a polyetherdiamine which has at least 3 carbon atoms per ether oxygen and has primary amino groups at the chain ends, II. more than 5 to 20 parts by weight of a rubber containing functional groups, where the total of the parts by weight of I. and II. is 100 and where the polyetheramide of component I has a crystallite melting point T m in accordance with ISO 11357 of at least 175°C, a relative solution viscosity η rel, measured in 0.5% by weight solution in m-cresol at 23°C in accordance with ISO 307, of 1.80 and also a zero-shear viscosity at 220°C, measured in a mechanical spectrometer (cone and plate) in accordance with ASTM D4440, of at least 500 Pas, for producing a molding selected from the group consisting of subatmospheric-pressure line for brake servos, air line, pressure hose, control line, coolant line, fuel line, ventilation line, windshield-wash system line, line for hydraulic coupling systems, servo control line, line for air-conditioning systems of motor vehicles, cable sheath or wire sheath and injection-molded part of an oil filter or fuel filter. I. less than 95 to 80 parts by weight of a polyetheramide based on a liner aliphatic diamine having from 6 to 14 carbon atoms, on a linear aliphatic or aromatic dicarboxylic acid having from 6 to 14 carbon atoms, and on a polyetherdiamine which has at least 3 carbon atoms per ether oxygen and has primary amino groups at the chain ends, II. more than 5 to 20 parts by weight of a rubber containing functional groups,
Crushing device with a comb system, wherein the crushing device consists of at least one crushing roller rotatably mounted in a machine frame with at least one crushing tool arranged thereon, wherein the crushing device has at least one counter-blade which cooperates with the crushing tool, the comb system having at least one base comb on which the at least one counter-blade is arranged and on which at least one screening element can be arranged as a component of a screening device, wherein the screening device during the intended use at least partially encloses the crushing roller and the screening element is resiliently mounted on the base comb by means of a suspension, wherein the suspension is formed by at least one compression spring which is in the form of a spiral spring, characterized in that in in its core at least one cylindrical body made of an elastic material is arranged, and in that the cylindrical body is in the form of an elastomeric spring element, of which the external diameter corresponds to the internal diameter and/or to the core diameter of the compression spring.
Transformer plate having a soft magnetic layer of an electrically conductive core material with an amorphous and/or nanocrystalline microstructure which is coated with a separating layer of an electrically insulating material, characterized in that multiple of said soft magnetic layers form, at least with the separating layers between them, a monolithic assembly.
Electrical plug-in connector assembly, comprising a connector, a mating connector adapted to be mated with the connector along a plug direction, and a locking member adapted to be moved in an actuation direction, wherein in a final state of the plug-in connector assembly, the connector is in a fully mated position with the mating connector along a mating plug direction (P') and the locking member is in a locking position where it is supported at least at the connector and secures the connector and the mating connector in the fully mated position, wherein the actuation direction extends perpendicularly to the plug direction and wherein the locking member is in mesh with the mating connector at least in the final state, wherein the locking member comprises a blocking organ and the connector comprises a stop, wherein in a pre-mated position of the connector and the mating connector, an actuation of the locking member is limited at the stop by the blocking organ and in the fully mated position, a de-blocking organ of the mating connector that at least partially protrudes from the mating connector in the mating plug direction (P') releases the blocking organ from the stop so that the locking member is transferrable from a pre-locking position into the locking position characterised in that the mating connector comprises a mating plug portion providing a counter latching element and the connector comprises a latching element, wherein the locking member at least restricts an access to the latching element and/or the counter latching element from outside the plug-in connector assembly in the final state.
A system for attaching a distribution pump to the neck of a reservoir containing a fluid product, said system comprising: - a sleeve comprising means for attaching on said neck and means for hooking the pump; - a hinge collar, said hinge collar and the sleeve being mounted so as to be mobile relative to each other between an end of travel position (P F) and a start of travel position (P I); - a ring configured to move said hinge collar between a high position (P H) of disassembly, in which said attachment means are free, and a lower position of service (P B), in which said attachment means are engaged around said collar; said attachment system being characterised in that said start and end of travel positions (P I, P F) are located so that the hinge collar is able to move from the high position (P H) of disassembly to the lower position of service (P B) by translation. - a sleeve comprising means for attaching on said neck and means for hooking the pump; - a hinge collar, said hinge collar and the sleeve being mounted so as to be mobile relative to each other between an end of travel position (P F) and a start of travel position (P I); - a ring configured to move said hinge collar between a high position (P H) of disassembly, in which said attachment means are free, and a lower position of service (P B), in which said attachment means are engaged around said collar; said attachment system being characterised in that said start and end of travel positions (P I, P F) are located so that the hinge collar is able to move from the high position (P H) of disassembly to the lower position of service (P B) by translation.
A method for improving bilirubin oxidase activity, the method comprising the step of leaving, in a deoxygenated atmosphere, a bilirubin oxidase solution containing a bilirubin oxidase and an activity improving agent, the activity improving agent is at least one substance selected from the group consisting of uric acid, glyoxylic acid, malt extract, fish extract, yeast extract, corn steep liquor, peptones, soybean flour, sodium sulfite, glutathione (reduced form), L-cysteine hydrochloride, N-acetyl-L-cysteine, L-ascorbic acid, and Trolox, said activity improving agent having an 2,2'-azinobis(3-ethylbenzothiazoline-6-sulfonic acid (ABTS) initial absorbance (A 436) reduction rate (%) of not less than 0.10% and a 2,5-dimethyl-1,4-benzoquinone (DMBQ) initial absorbance (A 256) reduction rate (%) of not more than 10.00%.
A method of analyzing melting profiles of genotypes of nucleic acids, the method comprising: using a computer, including a processor and a memory, for: generating a plurality of melting profiles for nucleic acids each of which has a known genotype, wherein each melting profile comprises measurements of a signal representing denaturing of the nucleic acid having the known genotype as a function of continuously increasing temperature; converting the melting profiles of known genotypes of a nucleic acid to multi-dimensional data points, wherein the multi-dimensional data points are correlation vectors comprising correlation coefficients between the melting profile of each nucleic acid having a known genotype and an average melting profile for each known genotype in a class of genotypes; reducing the multi-dimensional data points into reduced-dimensional data points by using a transformation matrix; generating a plot of the reduced-dimensional data points for each genotype, wherein the plot represents genotype clusters; and classifying a nucleic acid having an unknown genotype into one of the genotype clusters based on a correlation vector for the nucleic acid having an unknown genotype. generating a plurality of melting profiles for nucleic acids each of which has a known genotype, wherein each melting profile comprises measurements of a signal representing denaturing of the nucleic acid having the known genotype as a function of continuously increasing temperature; converting the melting profiles of known genotypes of a nucleic acid to multi-dimensional data points, wherein the multi-dimensional data points are correlation vectors comprising correlation coefficients between the melting profile of each nucleic acid having a known genotype and an average melting profile for each known genotype in a class of genotypes; reducing the multi-dimensional data points into reduced-dimensional data points by using a transformation matrix; generating a plot of the reduced-dimensional data points for each genotype, wherein the plot represents genotype clusters; and classifying a nucleic acid having an unknown genotype into one of the genotype clusters based on a correlation vector for the nucleic acid having an unknown genotype.
A lighting system comprising: a pole; one or more lighting devices mounted on the pole and operable to illuminate an outdoor environment; characterized in that the pole comprises a reflective surface and the lighting system further comprises: a photosensor having a narrow field of view, wherein a sensing region associated with said photosensor is directed onto a portion of the reflective surface of said pole, wherein said portion is illuminatable by approaching light emitting objects, and wherein the photosensor is configured to detect light reflected off said reflective surface; and a controller comprising an input for receiving a signal output from said photosensor, the controller being configured to: detect a light-emitting object in said outdoor environment based on detecting a change in the light reflected off the reflective surface in response to receiving said signal; and control the one or more lighting devices in response to detecting said light-emitting object. a pole; one or more lighting devices mounted on the pole and operable to illuminate an outdoor environment; characterized in that the pole comprises a reflective surface and the lighting system further comprises: a photosensor having a narrow field of view, wherein a sensing region associated with said photosensor is directed onto a portion of the reflective surface of said pole, wherein said portion is illuminatable by approaching light emitting objects, and wherein the photosensor is configured to detect light reflected off said reflective surface; and a controller comprising an input for receiving a signal output from said photosensor, the controller being configured to: detect a light-emitting object in said outdoor environment based on detecting a change in the light reflected off the reflective surface in response to receiving said signal; and control the one or more lighting devices in response to detecting said light-emitting object. a photosensor having a narrow field of view, wherein a sensing region associated with said photosensor is directed onto a portion of the reflective surface of said pole, wherein said portion is illuminatable by approaching light emitting objects, and wherein the photosensor is configured to detect light reflected off said reflective surface; and a controller comprising an input for receiving a signal output from said photosensor, the controller being configured to: detect a light-emitting object in said outdoor environment based on detecting a change in the light reflected off the reflective surface in response to receiving said signal; and control the one or more lighting devices in response to detecting said light-emitting object. detect a light-emitting object in said outdoor environment based on detecting a change in the light reflected off the reflective surface in response to receiving said signal; and control the one or more lighting devices in response to detecting said light-emitting object.
A solid state photo-active device (10; 10') comprising: a substrate; a first electrode disposed on at least one surface of the substrate or disposed within the substrate; an active layer comprising a photo-active organic salt comprising a counterion selected from the group consisting of halides, aryl borates, carboranes, fluoroantimonates, fluorophosphates, fluoroborates, and combinations thereof; and a second electrode, wherein the active layer is positioned between the first electrode and the second electrode. a substrate; a first electrode disposed on at least one surface of the substrate or disposed within the substrate; an active layer comprising a photo-active organic salt comprising a counterion selected from the group consisting of halides, aryl borates, carboranes, fluoroantimonates, fluorophosphates, fluoroborates, and combinations thereof; and a second electrode, wherein the active layer is positioned between the first electrode and the second electrode.
An imaging apparatus for tracking a plurality of permanently magnetic beads included in a fluid flowing in a channel of an object and for imaging the channel, the imaging apparatus comprising: at least three magnetic field sensors (101, 102, 103); an evaluation unit; an examination zone; wherein the examination zone is configured to receive the object; wherein the at least three magnetic field sensors are configured for detecting a magnetic field of the permanently magnetic beads in the examination zone and configured for creating a corresponding signal; wherein the evaluation unit is configured for - determining temporal magnetic field variations (405, 407, 409, 412) by processing the signal created by the at least three magnetic field sensors, which temporal magnetic field variations are caused by rotations of individual beads; - discriminating sub-signals caused by the individual beads in the processed signal using the determined temporal magnetic field variations; - determining position information related to the individual beads using magnitudes of the sub-signals caused by the individual beads; and - reconstructing an image of the channel based on the determined position information of the individual beads. at least three magnetic field sensors (101, 102, 103); an evaluation unit; an examination zone; wherein the examination zone is configured to receive the object; wherein the at least three magnetic field sensors are configured for detecting a magnetic field of the permanently magnetic beads in the examination zone and configured for creating a corresponding signal; wherein the evaluation unit is configured for - determining temporal magnetic field variations (405, 407, 409, 412) by processing the signal created by the at least three magnetic field sensors, which temporal magnetic field variations are caused by rotations of individual beads; - discriminating sub-signals caused by the individual beads in the processed signal using the determined temporal magnetic field variations; - determining position information related to the individual beads using magnitudes of the sub-signals caused by the individual beads; and - reconstructing an image of the channel based on the determined position information of the individual beads. - determining temporal magnetic field variations (405, 407, 409, 412) by processing the signal created by the at least three magnetic field sensors, which temporal magnetic field variations are caused by rotations of individual beads; - discriminating sub-signals caused by the individual beads in the processed signal using the determined temporal magnetic field variations; - determining position information related to the individual beads using magnitudes of the sub-signals caused by the individual beads; and - reconstructing an image of the channel based on the determined position information of the individual beads.
The compound of Formula I: wherein m is selected from the group consisting of 0, 1, 2, or 3; R 1 is independently selected from the group consisting of chloro, fluoro, bromo, cyano, and methoxy; R 2b and R 2c are independently selected from the group consisting of hydrogen, halogen, C 1 -C 3 alkyl, fluorinated C 1 -C 3 alkyl, cyano, C 1 -C 3 alkoxy, and N(CH 3) 2; X is selected from the group consisting of n is selected from the group consisting of 0, 1, and 2; R 3 is independently selected from the group consisting of halogen, C 1 -C 3 alkyl, fluorinated C 1 -C 3 alkyl, cyano, C 1 -C 3 alkoxy, and NR 4 R 4' where R 4 and R 4' are independently selected from the group consisting of C 1 -C 3 alkyl, or R 4 when taken together with R 4' form a ring with 3 to 6 members; and A is selected from the group consisting of or a pharmaceutically acceptable salt, stereoisomer, or N-oxide thereof. m is selected from the group consisting of 0, 1, 2, or 3; R 1 is independently selected from the group consisting of chloro, fluoro, bromo, cyano, and methoxy; R 2b and R 2c are independently selected from the group consisting of hydrogen, halogen, C 1 -C 3 alkyl, fluorinated C 1 -C 3 alkyl, cyano, C 1 -C 3 alkoxy, and N(CH 3) 2; X is selected from the group consisting of n is selected from the group consisting of 0, 1, and 2; R 3 is independently selected from the group consisting of halogen, C 1 -C 3 alkyl, fluorinated C 1 -C 3 alkyl, cyano, C 1 -C 3 alkoxy, and NR 4 R 4' where R 4 and R 4' are independently selected from the group consisting of C 1 -C 3 alkyl, or R 4 when taken together with R 4' form a ring with 3 to 6 members; and A is selected from the group consisting of
A pressure generator, comprising a compressed air connection, a pressure intensifier which operates as pneumatic-hydraulic pump comprising a pneumatic region and a hydraulic region, wherein the pressure generator is formed as hand-held unit and has an automatically closing hydraulic coupling for connecting a hydraulically operated tool application (36, 47), characterized in that the pressure intensifier has a pneumatic region comprising two pistons (24, 25), which are arranged in series and which are connected to a hydraulic piston, wherein the pistons in each case run in a working space, to which compressed air can be applied, and wherein the pistons (24, 25) are connected to one another via a rod comprising a duct, via which compressed air can flow from one working space into the other working space.
Plant for thermoforming a foil to a plurality of products (12, 33) in a corresponding plurality of cavities in a female form tool (38, 39) at a molding table, and for providing the products (12, 33) with supplementary parts, in particular labels (16, 45) and/or smart tags, within the cavities; the plant being adapted for translating the foil in a machine direction (24, 31, 5) and the molding table being embodied as a rotational molding table with at least three assemblages of cavities in three female form tools, which is adapted to be rotated about an axis by means of a drive so as to put the at least three assemblages of cavities in different positions, including a thermoforming position and a removal position; characterized in that the rotational molding table carries the at least three assemblages of cavities at arms, where the assemblages of cavities are carried at an arm portion radially on the outside which is relatively movable with respect to a core of the rotational molding table.
A gripping device for lifting a preform for a wind turbine blade from a preform mould, the gripping device comprising a base frame, a plurality of arms slidably mounted on the base frame, each arm having a proximal end and a distal end, a plurality of gripping members for gripping a top surface of the preform, each gripping member being attached to the distal end of at least one of the arms, a plurality of lock members, characterized in that each lock member is engaged with at least one of the arms for allowing sliding motion of the arm relative to the base frame in a first direction while preventing sliding motion of the arm relative to the base frame in a second direction. a base frame, a plurality of arms slidably mounted on the base frame, each arm having a proximal end and a distal end, a plurality of gripping members for gripping a top surface of the preform, each gripping member being attached to the distal end of at least one of the arms, a plurality of lock members, characterized in that each lock member is engaged with at least one of the arms for allowing sliding motion of the arm relative to the base frame in a first direction while preventing sliding motion of the arm relative to the base frame in a second direction.