mhurhangee/ep-ind-claims huggingface dataset:
Injection molding device comprising a center part and a rotating device for holding and rotating the center part in the injection molding device, the rotating device comprising a. a base supported with respect to an injection molding machine, b. a column attached to the base extending in an axial direction (z) above the base and c. a sleeve coaxially surrounding the column and being at least partially arranged in the center part, wherein the sleeve rotates with the center part around the column, wherein d. grooves, used to exchange liquid and/or gaseous media between the column and the sleeve, are arranged between the column and the sleeve and characterized in that e. the column is arranged removable with respect to the center part, wherein the center part is positioned with respect to the base by fixation means (1 5), when the column is removed from the center part. a. a base supported with respect to an injection molding machine, b. a column attached to the base extending in an axial direction (z) above the base and c. a sleeve coaxially surrounding the column and being at least partially arranged in the center part, wherein the sleeve rotates with the center part around the column, wherein d. grooves, used to exchange liquid and/or gaseous media between the column and the sleeve, are arranged between the column and the sleeve and characterized in that e. the column is arranged removable with respect to the center part, wherein the center part is positioned with respect to the base by fixation means (1 5), when the column is removed from the center part.
A process for the conversion of an amine to the corresponding isocyanate component by phosgenation of said amine, the process comprising the steps of • providing a reaction mixture comprising an amine and phosgene to a phosgenation reactor; • at least partially converting the amine and the phosgene in said reaction mixture into the corresponding isocyanate component and hydrogen chloride, thereby providing a liquid isocyanate stream comprising said isocyanate component, phosgene and hydrogen chloride; • removing 200 at least part of said phosgene and at least part of said hydrogen chloride from said liquid isocyanate stream as a gaseous mixture, wherein the removing step comprises: ∘ at least partially condensing 300 the gaseous mixture providing a liquid intermediate mixture and a gaseous initial fluid stream comprising phosgene and hydrogen chloride; • evacuating at least part of the hydrogen chloride from said gaseous initial fluid stream forming a first fluid stream which is a hydrogen chloride enriched and phosgene depleted gaseous stream, and a second fluid stream being a hydrogen chloride depleted and phosgene enriched stream, wherein the evacuation comprises feeding said gaseous initial fluid stream to a membrane separation unit, said membrane separation unit separating said initial fluid stream in said first and said second fluid stream. • providing a reaction mixture comprising an amine and phosgene to a phosgenation reactor; • at least partially converting the amine and the phosgene in said reaction mixture into the corresponding isocyanate component and hydrogen chloride, thereby providing a liquid isocyanate stream comprising said isocyanate component, phosgene and hydrogen chloride; • removing 200 at least part of said phosgene and at least part of said hydrogen chloride from said liquid isocyanate stream as a gaseous mixture, wherein the removing step comprises: ∘ at least partially condensing 300 the gaseous mixture providing a liquid intermediate mixture and a gaseous initial fluid stream comprising phosgene and hydrogen chloride; ∘ at least partially condensing 300 the gaseous mixture providing a liquid intermediate mixture and a gaseous initial fluid stream comprising phosgene and hydrogen chloride; • evacuating at least part of the hydrogen chloride from said gaseous initial fluid stream forming a first fluid stream which is a hydrogen chloride enriched and phosgene depleted gaseous stream, and a second fluid stream being a hydrogen chloride depleted and phosgene enriched stream, wherein the evacuation comprises feeding said gaseous initial fluid stream to a membrane separation unit, said membrane separation unit separating said initial fluid stream in said first and said second fluid stream.
A method for a network node (400, 410, 500, 520, 600, 800, 1100, 1110, 1200) for selecting a beam candidate (A, B, C) in a wireless communication network, the method comprising: acquiring information comprising information indicative of signal qualities for a plurality of beam candidates, a signal quality relating to a link performance for at least one signal; assigning to each of the plurality of beam candidates a predetermined factor indicating signal interference generated by the corresponding beam candidate; and selecting a beam candidate for downlink transmission to a user equipment (405, 415, 515, 535, 600, 700, 1210), UE, the selected beam candidate being selected taking into account at least said associated signal quality and the factor assigned to the selected beam candidate, wherein the predetermined factor is a function of system parameters, wherein said information indicative of signal quality is mapped to a performance metric and wherein the predetermined factor comprises a correction to said performance metric, and wherein said selecting comprises selecting the beam candidate that has the best performance metric score including said correction. acquiring information comprising information indicative of signal qualities for a plurality of beam candidates, a signal quality relating to a link performance for at least one signal; assigning to each of the plurality of beam candidates a predetermined factor indicating signal interference generated by the corresponding beam candidate; and selecting a beam candidate for downlink transmission to a user equipment (405, 415, 515, 535, 600, 700, 1210), UE, the selected beam candidate being selected taking into account at least said associated signal quality and the factor assigned to the selected beam candidate, wherein the predetermined factor is a function of system parameters, wherein said information indicative of signal quality is mapped to a performance metric and wherein the predetermined factor comprises a correction to said performance metric, and wherein said selecting comprises selecting the beam candidate that has the best performance metric score including said correction.
A composition comprising diclazuril and an iron complex for use in the preventive treatment of coccidiosis in a non-human mammal, wherein said composition is administered by a single intramuscular injection.
A hybrid vehicle comprising: an internal combustion engine; an electric motor; a transmission comprising an input shaft that receives power inputted from the internal combustion engine -and an output shaft that outputs power to a drive wheel; a clutch configured to cut off a power transmission route between the internal combustion engine and the input shaft, and an output power transmission mechanism that transmits power from the output shaft to the drive wheel, wherein the electric motor is connected to a rotating member provided on the output shaft in such a manner that the electric motor transmits power to the output shaft at a location downstream of the clutch, wherein an end portion of the output shaft projects to one side in a vehicle width direction from a crankcase housing the transmission, wherein the output power transmission mechanism is connected to the end portion of the output shaft, and wherein the electric motor inputs power to the end portion of the output shaft via a motor power transmission mechanism, characterized in that a connection point between the output shaft and the motor power transmission mechanism is located inward of a connection point between the output shaft and the output power transmission mechanism in the vehicle width direction and located outward of the crankcase in the vehicle width direction, wherein a direction in which a drive shaft (Ma) of the electric motor projects from a casing (Mb) of the electric motor is the same as the direction in which the output shaft of the transmission projects from the crankcase. an internal combustion engine; an electric motor; a transmission comprising an input shaft that receives power inputted from the internal combustion engine -and an output shaft that outputs power to a drive wheel; a clutch configured to cut off a power transmission route between the internal combustion engine and the input shaft, and an output power transmission mechanism that transmits power from the output shaft to the drive wheel, wherein the electric motor is connected to a rotating member provided on the output shaft in such a manner that the electric motor transmits power to the output shaft at a location downstream of the clutch, wherein an end portion of the output shaft projects to one side in a vehicle width direction from a crankcase housing the transmission, wherein the output power transmission mechanism is connected to the end portion of the output shaft, and wherein the electric motor inputs power to the end portion of the output shaft via a motor power transmission mechanism, characterized in that a connection point between the output shaft and the motor power transmission mechanism is located inward of a connection point between the output shaft and the output power transmission mechanism in the vehicle width direction and located outward of the crankcase in the vehicle width direction, wherein a direction in which a drive shaft (Ma) of the electric motor projects from a casing (Mb) of the electric motor is the same as the direction in which the output shaft of the transmission projects from the crankcase.
Anchor weight device comprising: a weight element having an upper surface, a holder attached to the weight element and extending upwardly from the upper surface of the weight element, and a wheel rotatably arranged relative the holder and disposed at a distance from the upper surface of the weight element such that a space for receiving an anchor line is formed between a peripheral surface of the wheel and the upper surface of the weight element, characterized in that the anchor weight device comprises a shackle comprising an intermediate part and a first and a second leg (44, 46; 44b, 46b) extending from the intermediate part on opposite sides of the wheel and ending at a distance from the peripheral surface of the wheel, and the shackle is rotatably connected to the holder so that the shackle is rotatable between a closed position in which at least one of the legs (44;44b) extend between the wheel and the upper surface of the weight element to secure the anchor line housed in said space, and an open position in which the legs are moved away from the upper surface of the weight element so that an opening is formed between the shackle and the upper surface of the weight element to allow the anchor line to enter or leave said space. a weight element having an upper surface, a holder attached to the weight element and extending upwardly from the upper surface of the weight element, and a wheel rotatably arranged relative the holder and disposed at a distance from the upper surface of the weight element such that a space for receiving an anchor line is formed between a peripheral surface of the wheel and the upper surface of the weight element, characterized in that the anchor weight device comprises a shackle comprising an intermediate part and a first and a second leg (44, 46; 44b, 46b) extending from the intermediate part on opposite sides of the wheel and ending at a distance from the peripheral surface of the wheel, and the shackle is rotatably connected to the holder so that the shackle is rotatable between a closed position in which at least one of the legs (44;44b) extend between the wheel and the upper surface of the weight element to secure the anchor line housed in said space, and an open position in which the legs are moved away from the upper surface of the weight element so that an opening is formed between the shackle and the upper surface of the weight element to allow the anchor line to enter or leave said space.
A rotary mold system for molding three dimensional food products from a food mass comprising: a) a fill plate having an outer surface in contact with a feed source, and a inner surface; b) a wear plate having an outer surface facing the inner surface of the fill plate; c) a cylindrical mold shell with mold shapes, the mold shell having an inner and outer surface, said mold shell rotating between the fill plate and the wear plate, the fill plate in contact with the outer surface of the mold shell, the wear plate in contact with the inner surface of the mold shell; d) mold cavities formed when mold shapes are between the fill plate and the wear plate, said mold cavities having a depth corresponding to the thickness of the mold shell, and said mold cavities having a bottom surface formed by the outer surface of the wear plate; and e) a knock out mechanism comprising at least one knock out cup disposed within the mold cylinder for removing the mold shapes from the mold cavity, wherein the knock out mechanism comprises a knock out bar connected to the knock out cups disposed within the mold shell, characterized by f) a first identification system for storing and retrieving information pertaining to the mold shell; g) a second identification system for storing and retrieving information pertaining to the knock out bar; and h) a processing unit for comparing information retrieved from the first and second identification system. a) a fill plate having an outer surface in contact with a feed source, and a inner surface; b) a wear plate having an outer surface facing the inner surface of the fill plate; c) a cylindrical mold shell with mold shapes, the mold shell having an inner and outer surface, said mold shell rotating between the fill plate and the wear plate, the fill plate in contact with the outer surface of the mold shell, the wear plate in contact with the inner surface of the mold shell; d) mold cavities formed when mold shapes are between the fill plate and the wear plate, said mold cavities having a depth corresponding to the thickness of the mold shell, and said mold cavities having a bottom surface formed by the outer surface of the wear plate; and e) a knock out mechanism comprising at least one knock out cup disposed within the mold cylinder for removing the mold shapes from the mold cavity, wherein the knock out mechanism comprises a knock out bar connected to the knock out cups disposed within the mold shell, f) a first identification system for storing and retrieving information pertaining to the mold shell; g) a second identification system for storing and retrieving information pertaining to the knock out bar; and h) a processing unit for comparing information retrieved from the first and second identification system.
A surge protection device of the type having a four-layer semiconductor chip and at least two terminals, where conduction occurs from one face of said chip to an opposite face of said chip when a voltage exceeding a breakover voltage is applied to the device, the surge protection device comprising: one or more buried regions of dopant formed in a surface of a semiconductor layer of said surge protection device, wherein each said buried region comprises two semiconductor regions joined by a PN junction, and wherein an impurity concentration of said buried regions defining in part the breakover voltage of said surge protection device; and an epitaxial layer of semiconductor material formed over said semiconductor layer so as to cover said buried regions. one or more buried regions of dopant formed in a surface of a semiconductor layer of said surge protection device, wherein each said buried region comprises two semiconductor regions joined by a PN junction, and wherein an impurity concentration of said buried regions defining in part the breakover voltage of said surge protection device; and an epitaxial layer of semiconductor material formed over said semiconductor layer so as to cover said buried regions.
Non-therapeutic use of collagen hydrolysate for stimulating the biosynthesis of extracellular matrix proteins by skin cells, for increasing the tonicity of the skin, for reducing the formation of wrinkles and/or for increasing the moisture content of the skin, characterized in that the collagen hydrolysate is produced by the consecutive action of at least two endoproteases with a different specificity at 50 to 60 °C for 120 to 180 min, wherein an endoprotease of Bacillus subtilis or of Bacillus amyloliquefaciens is used as the first enzyme and an endoprotease of Bacillus licheniformis is used as the second enzyme, at least 45 wt.% of the collagen hydrolysate has a molecular weight of less than 1,500 Da, and the collagen hydrolysate comprises at least four characteristic peptides with a molecular weight between 600 and 1,200 Da, which have at least twice the intensity in comparison to their surroundings in a molecular weight distribution determined by means of MALDI mass spectroscopy, wherein the mass spectrum has been determined using a TOF/TOF mass spectrometer with a sample of the collagen hydrolysate having been adjusted in 0.1% trifluoroacetic acid to a final concentration of 10 μg/μl, purified using μC 18 material and prepared with an HCCA matrix on a MALDI target.
A blend of polylactic acid resin and copolyester resin, the blend comprising: 5 to 94 wt% of a polylactic acid resin; 3 to 92 wt% of a copolyester resin comprising a dicarboxylic acid component, which contains a terephthalic acid residue, and a diol component which contains 3 to 99 mol% of a cyclohexanedimethanol residue and 1 to 60 mol% of an isosorbide residue; and 3 to 30 wt% of a compatibilizer containing at least one reactive functional group selected from the group consisting of glycidyl, maleic anhydride, epoxy, isocyanate, amino, carboxylic acid and oxazoline groups, and mixtures thereof Wherein the copolyester resin has a glass transition temperature (Tg)of 90°C or higher, said glass transition temperature (Tg) being measured when the copolyester resin is annealed at 300°C for 5 minutes and cooled to room temperature, followed by scanning at a heating rate of 10°C/min. 5 to 94 wt% of a polylactic acid resin; 3 to 92 wt% of a copolyester resin comprising a dicarboxylic acid component, which contains a terephthalic acid residue, and a diol component which contains 3 to 99 mol% of a cyclohexanedimethanol residue and 1 to 60 mol% of an isosorbide residue; and 3 to 30 wt% of a compatibilizer containing at least one reactive functional group selected from the group consisting of glycidyl, maleic anhydride, epoxy, isocyanate, amino, carboxylic acid and oxazoline groups, and mixtures thereof Wherein the copolyester resin has a glass transition temperature (Tg)of 90°C or higher, said glass transition temperature (Tg) being measured when the copolyester resin is annealed at 300°C for 5 minutes and cooled to room temperature, followed by scanning at a heating rate of 10°C/min.
A method of aiding in a diagnosis of a subject suspected of lung cancer, the method comprising the steps of: a. quantifying in a test sample obtained from a subject, the amount of two or more biomarkers in a panel, the panel comprising at least one antibody and at least one antigen; b. comparing the amount of each biomarker quantified in the panel to a predetermined cutoff for said biomarker and assigning a score for each biomarker based on said comparison; c. combining the assigned score for each biomarker quantified in step b to obtain a total score for said subject; d. comparing the total score determined in step c with a predetermined total score; and e. determining whether said subject has a risk of lung cancer based on the comparison of the total score in step d; wherein the panel comprises at least all five antigens cytokeratin 19, CEA, CA125, ProGRP and thymosin β4. a. quantifying in a test sample obtained from a subject, the amount of two or more biomarkers in a panel, the panel comprising at least one antibody and at least one antigen; b. comparing the amount of each biomarker quantified in the panel to a predetermined cutoff for said biomarker and assigning a score for each biomarker based on said comparison; c. combining the assigned score for each biomarker quantified in step b to obtain a total score for said subject; d. comparing the total score determined in step c with a predetermined total score; and e. determining whether said subject has a risk of lung cancer based on the comparison of the total score in step d;
An egg identification system for determining viability of an avian egg, comprising: a conveyor system for conveying an egg flat containing a plurality of eggs; an emitter assembly for emitting electromagnetic radiation toward one of the eggs conveyed in the egg flat, the emitter assembly comprising a collimator device configured to collimate the electromagnetic radiation emitted therefrom and an emitter housing with an emitter baffle arrangement configured to reject off-axis electromagnetic radiation emitted from the emitter assembly; a non-contact detector assembly for detecting the electromagnetic radiation transmitted through the egg, the non-contact detector assembly being disposed in a non-contact position such that an egg positioned for identification is spaced-apart from the non-contact detector assembly during operation thereof, the non-contact detector assembly comprises a detector housing with a detector baffle arrangement configured to reject undesired electromagnetic radiation from being received by the non-contact detector assembly for generating the output signal, and further comprises a detector lens system configured to collect the electromagnetic radiation transmitted through the egg; and a processor configured to process an output signal of the non-contact detector assembly to determine whether there exists at least one of a periodic and aperiodic variation in an intensity of the electromagnetic radiation transmitted through a respective egg corresponding to action of a heart or embryo movement, the existence of one of the periodic and aperiodic variations indicating that the egg is viable. a conveyor system for conveying an egg flat containing a plurality of eggs; an emitter assembly for emitting electromagnetic radiation toward one of the eggs conveyed in the egg flat, the emitter assembly comprising a collimator device configured to collimate the electromagnetic radiation emitted therefrom and an emitter housing with an emitter baffle arrangement configured to reject off-axis electromagnetic radiation emitted from the emitter assembly; a non-contact detector assembly for detecting the electromagnetic radiation transmitted through the egg, the non-contact detector assembly being disposed in a non-contact position such that an egg positioned for identification is spaced-apart from the non-contact detector assembly during operation thereof, the non-contact detector assembly comprises a detector housing with a detector baffle arrangement configured to reject undesired electromagnetic radiation from being received by the non-contact detector assembly for generating the output signal, and further comprises a detector lens system configured to collect the electromagnetic radiation transmitted through the egg; and a processor configured to process an output signal of the non-contact detector assembly to determine whether there exists at least one of a periodic and aperiodic variation in an intensity of the electromagnetic radiation transmitted through a respective egg corresponding to action of a heart or embryo movement, the existence of one of the periodic and aperiodic variations indicating that the egg is viable.