mhurhangee/ep-ind-claims huggingface dataset:
Device for manufacturing an electrode strip for a battery, said electrode strip comprising at least one layer of electrochemically active composite material and a current collector strip, the manufacturing device comprising: - an extruder comprising: - a sheath delimiting a mixing chamber, - an extrusion head giving the electrode strip leaving the extruder its shape; and - an extrusion screw arranged in the mixing chamber, the manufacturing device being characterized in that: the extrusion screw comprises: - an outer tube mounted such that it rotates on itself in the mixing chamber, said outer tube comprising drive means (310, 311) configured to mix the active composite material in the mixing chamber and to cause said material to move downstream toward the extrusion head; - an inner tube arranged at least partially inside the outer tube and coaxially with said outer tube, said inner tube being stationary relative to the sheath and comprising an outlet located upstream of the extrusion head, and it comprises advancing and unwinding means (4, 41, 42) configured to convey the current collector strip through the inner tube as far as the extrusion head. - an extruder comprising: - a sheath delimiting a mixing chamber, - an extrusion head giving the electrode strip leaving the extruder its shape; and - an extrusion screw arranged in the mixing chamber, - a sheath delimiting a mixing chamber, - an extrusion head giving the electrode strip leaving the extruder its shape; and - an extrusion screw arranged in the mixing chamber, the extrusion screw comprises: - an outer tube mounted such that it rotates on itself in the mixing chamber, said outer tube comprising drive means (310, 311) configured to mix the active composite material in the mixing chamber and to cause said material to move downstream toward the extrusion head; - an inner tube arranged at least partially inside the outer tube and coaxially with said outer tube, said inner tube being stationary relative to the sheath and comprising an outlet located upstream of the extrusion head, and it comprises advancing and unwinding means (4, 41, 42) configured to convey the current collector strip through the inner tube as far as the extrusion head. - an outer tube mounted such that it rotates on itself in the mixing chamber, said outer tube comprising drive means (310, 311) configured to mix the active composite material in the mixing chamber and to cause said material to move downstream toward the extrusion head; - an inner tube arranged at least partially inside the outer tube and coaxially with said outer tube, said inner tube being stationary relative to the sheath and comprising an outlet located upstream of the extrusion head, and it comprises advancing and unwinding means (4, 41, 42) configured to convey the current collector strip through the inner tube as far as the extrusion head.
A hydraulic apparatus comprising a casing having arranged therein a hydraulic machine, a shaft engaged in the casing and mounted to rotate relative to the casing by means of a bearing having at least two rolling elements (51, 52), a braking system having a plurality of brake disks (31, 34) configured to prevent the shaft rotating relative to the casing in selective manner, and a control system (6, 7) for controlling said brake disks (31, 34), the hydraulic system including an irrigation system adapted to cool said brake disks (31, 34) by means of a fluid, the irrigation system including a fluid inlet and a fluid outlet, the hydraulic system being characterized in that the fluid inlet and outlet (81, 82) of the irrigation system define a fluid flow within the casing in which the braking system is downstream from the hydraulic machine.
Sliding sash with a window or door frame with a frame profile, comprising a profile strip, forming in a closed state one or more hollow chambers, wherein on at least one hollow chamber strip-shaped grooves and/or webs for fixing fitting parts and/or driving means are provided, and the hollow chamber is closed by a strip-shaped cover, which is releasably attached in the closed state to the profile strip via latching means (16, 18, 19; 16', 18'), characterized in that the profile strip is constructed in multiple parts and has an inner profile, which is connected with an outer profile via insulating webs.
An organometal catalyst having a cationic metal complex and a borate-based bulky anion, and being represented by the following Formula 1: in Formula 1, M is selected from the group consisting of metals in group 13, L is each independently a coordination solvent molecule comprising a functional group selected from the group consisting of a cyanide group, an isocyanide group, an ether group, a pyridine group, an amide group, a sulfoxide group and a nitro group, R 1 to R 4 are each independently hydrogen, a halogen group, or a substituted or unsubstituted alkyl group of C1-C20, R 5 and R 6 are each independently hydrogen, an alkyl group of C1-C20, an aryl group of C6-C20, or an allyl group, a, b, c and a+b+c are each independently an integer of 0 to 3, d and a+b+c+d are each independently an integer of 1 to 10, o, p, q and r are each independently an integer of 1 to 5, and x and y are an integer of 1 to 4 and are the same as each other; wherein the organometal catalyst does not comprise a halogen salt of one or more metals selected from the group consisting of metals of group 1, group 2 and group 11. in Formula 1, M is selected from the group consisting of metals in group 13, L is each independently a coordination solvent molecule comprising a functional group selected from the group consisting of a cyanide group, an isocyanide group, an ether group, a pyridine group, an amide group, a sulfoxide group and a nitro group, R 1 to R 4 are each independently hydrogen, a halogen group, or a substituted or unsubstituted alkyl group of C1-C20, R 5 and R 6 are each independently hydrogen, an alkyl group of C1-C20, an aryl group of C6-C20, or an allyl group, a, b, c and a+b+c are each independently an integer of 0 to 3, d and a+b+c+d are each independently an integer of 1 to 10, o, p, q and r are each independently an integer of 1 to 5, and x and y are an integer of 1 to 4 and are the same as each other; wherein the organometal catalyst does not comprise a halogen salt of one or more metals selected from the group consisting of metals of group 1, group 2 and group 11.
Method for operating a cable car with which a number of vehicles hanging on a hoisting cable are moved between at least two stations and on at least one vehicle of the cable car, the deflection (a) of the vehicle from the vertical is measured with a sensor, wherein the deflection (a) of the vehicle is measured with the sensor before the station entrance and transmitted to the cable car control unit, characterized in that at the same time the occurrence of a wind gust as temporal change of the wind speed (v w) is detected by the cable car control unit with a wind sensor aranged on a cable car tower before the station entrance and that the cable car control unit combines the transmitted deflection (a) of the vehicle and the detected wind gust for controlling a cable car drive as a function of the transmitted deflection (a) and of the detected wind gust.
An electronic reamer (10,150) connectable to a downhole drilling assembly, comprising: an electronic control housing (100, 700, 800); at least one sensor (116, 118, 119, 608, 808) mounted in said electronic control housing (100, 700, 800); an electronic control unit mounted within said electronic control housing (100, 700, 800) and being operatively connected to said at least one sensor (116, 118 119, 608, 808), said electronic control unit being programmed (604, 606, 608, 610, 612) to distinguish between rotating drilling and sliding drilling utilizing said at least one sensor (116, 118 119, 608, 808); one or more reamer members (152, 804) mounted for selective movement between an extended position (154, 156) and a retracted position (154, 156); said electronic control unit being operatively connected to said one or more reamer members (152, 804) and being programmed (604, 606, 608, 610, 612) for controlling said movement between said extended position (154, 156) responsively to detection of said rotating drilling and said retracted position (154, 156) responsively to detection of said sliding drilling. an electronic control housing (100, 700, 800); at least one sensor (116, 118, 119, 608, 808) mounted in said electronic control housing (100, 700, 800); an electronic control unit mounted within said electronic control housing (100, 700, 800) and being operatively connected to said at least one sensor (116, 118 119, 608, 808), said electronic control unit being programmed (604, 606, 608, 610, 612) to distinguish between rotating drilling and sliding drilling utilizing said at least one sensor (116, 118 119, 608, 808); one or more reamer members (152, 804) mounted for selective movement between an extended position (154, 156) and a retracted position (154, 156); said electronic control unit being operatively connected to said one or more reamer members (152, 804) and being programmed (604, 606, 608, 610, 612) for controlling said movement between said extended position (154, 156) responsively to detection of said rotating drilling and said retracted position (154, 156) responsively to detection of said sliding drilling.
An unbalance determining apparatus for a rotor (11, 101), the apparatus comprising two spaced apart bearings (12, 102) to support a rotor (11, 101) and rotation means to rotate the rotor in use, the apparatus characterised in that there is a dynamic bearing (13, 103) associated with the rotor and whereby the dynamic bearing (13, 103) provides synchronous deflection force components upon the rotor (11, 101) when rotating which are in phase with local rotor deflection and/or velocity force components upon the rotor (11, 101) when rotating which are in phase with local rotor velocity in order that differing boundary conditions are provided for determining unbalance of the rotor (11, 101) by appropriate analysis.
A method of controlling a semiconductor laser emitting a lasing light and having a wavelength selection portion, the refractive index of the wavelength selection portion being controllable with a heater, the method comprising, in the order: a starting sequence including a first step (S3, S13) for determining, by measuring the voltage applied to, and the current flowing through, the heater, whether the heat value of the heater is within a given range and adjusting (S7, sl9) the heat value of the heater until the heat value of the heater reaches a given value within said given range; and a wavelength control sequence including a second step for correcting (S8; S20) the wavelength of the semiconductor laser by means of a temperature control device and according to a detection result of the oscillation wavelength of the semiconductor laser obtained (S4, S14) after the starting sequence and a third step (S6, S18) for determining, by measuring the voltage applied to, and the current flowing through, the heater, whether the heat value of the heater is within said given range, and adjusting (S10, S23) the heat value of the heater until the heat value of the heater reaches said given range. a starting sequence including a first step (S3, S13) for determining, by measuring the voltage applied to, and the current flowing through, the heater, whether the heat value of the heater is within a given range and adjusting (S7, sl9) the heat value of the heater until the heat value of the heater reaches a given value within said given range; and a wavelength control sequence including a second step for correcting (S8; S20) the wavelength of the semiconductor laser by means of a temperature control device and according to a detection result of the oscillation wavelength of the semiconductor laser obtained (S4, S14) after the starting sequence and a third step (S6, S18) for determining, by measuring the voltage applied to, and the current flowing through, the heater, whether the heat value of the heater is within said given range, and adjusting (S10, S23) the heat value of the heater until the heat value of the heater reaches said given range.
Marker for identifying a cucumber plant showing a compact growth phenotype, comprising a SNP on position 147 of the sequence of SEQ ID NO:1, wherein the SNP comprises a change from adenine to guanine.
A beverage preparation machine comprising: - a beverage preparation module (20,30) having a front face with an outlet for dispensing a prepared beverage, optionally the module (20,30) being configured to circulate a liquid e.g. water from a liquid reservoir to the outlet, such as a module (20,30) comprising at least one of a liquid driver, a thermal conditioner and a beverage mixing cavity e.g. a chamber controlled by an actuator for receiving a beverage ingredient, e.g. an ingredient provided within a capsule, via an ingredient passage and for mixing said ingredient with said liquid to prepare said beverage, such as a module (20,30) provided with an external housing and/or a user-interface; and - a cup support located under the outlet for placing a cup under the outlet, optionally the cup support being removable from under the outlet to permit a placement on a placement surface in front of the front face under the outlet of a mug that is larger than said cup, such as a placement surface that is formed by a support external to said machine or by a foot of said machine, e.g. a foot extending under the cup support when located under the outlet, the cup support having a rear face removably assembled to the front face by a mechanical connector arrangement (12,22) that comprises a front hook on the front face disassemblable from a corresponding rear hook on the rear face, the rear hook having a retaining element and the front hook having a retaining element, the retaining elements (121,221) being mutually engaged when the cup support is assembled to the front face and disengaged when the cup support is disassembled from the front face, characterised in that the rear hook with its retaining element generally extends in cross-section along two converging directions (12',12'') and the front hook with its retaining element generally extend in cross-section along two correspondingly converging directions (22',22''), so as to facilitate self-positioning of the rear hook relative to the front hook when the cup support is assembled to the front face. - a beverage preparation module (20,30) having a front face with an outlet for dispensing a prepared beverage, optionally the module (20,30) being configured to circulate a liquid e.g. water from a liquid reservoir to the outlet, such as a module (20,30) comprising at least one of a liquid driver, a thermal conditioner and a beverage mixing cavity e.g. a chamber controlled by an actuator for receiving a beverage ingredient, e.g. an ingredient provided within a capsule, via an ingredient passage and for mixing said ingredient with said liquid to prepare said beverage, such as a module (20,30) provided with an external housing and/or a user-interface; and - a cup support located under the outlet for placing a cup under the outlet, optionally the cup support being removable from under the outlet to permit a placement on a placement surface in front of the front face under the outlet of a mug that is larger than said cup, such as a placement surface that is formed by a support external to said machine or by a foot of said machine, e.g. a foot extending under the cup support when located under the outlet,
A fundus photographing apparatus including: an illumination optical system for illuminating a fundus of a examinee's eye; and a photographing optical system for photographing the fundus illuminated by the illumination optical system, the photographing optical system including an objective lens: a first aperture diaphragm for forming an image of the aperture diaphragm in a position between a pupil and a posterior surface of a crystalline lens of the eye; and a second aperture diaphragm characterized in that, the second aperture diaphragm is configured for forming through the objective lens an image of the aperture diaphragm not acting as a field diaphragm, the image being in a position between the fundus of the eye and the image of the first aperture diaphragm, to photograph the fundus through the first and second aperture diaphragms (31, 91). an illumination optical system for illuminating a fundus of a examinee's eye; and a photographing optical system for photographing the fundus illuminated by the illumination optical system, the photographing optical system including an objective lens: a first aperture diaphragm for forming an image of the aperture diaphragm in a position between a pupil and a posterior surface of a crystalline lens of the eye; and a second aperture diaphragm characterized in that, the second aperture diaphragm is configured for forming through the objective lens an image of the aperture diaphragm not acting as a field diaphragm, the image being in a position between the fundus of the eye and the image of the first aperture diaphragm, to photograph the fundus through the first and second aperture diaphragms (31, 91). a first aperture diaphragm for forming an image of the aperture diaphragm in a position between a pupil and a posterior surface of a crystalline lens of the eye; and a second aperture diaphragm characterized in that, the second aperture diaphragm is configured for forming through the objective lens an image of the aperture diaphragm not acting as a field diaphragm, the image being in a position between the fundus of the eye and the image of the first aperture diaphragm, to photograph the fundus through the first and second aperture diaphragms (31, 91).
A method comprising: receiving a signal representing reflections of an electromagnetic wave from a liquid and one or more reference pins (120a-120c, 320a-320c) in a storage tank; calculating from the signal a first sensed distance to the liquid and one or more second sensed distances to the one or more reference pins; comparing the one or more second sensed distances to one or more reference distances; calculating a correction factor based on the comparison of the one or more second sensed distances and the one or more reference distances; and calculating a corrected distance to the liquid based on the correction factor and the first sensed distance; wherein calculating the first and second sensed distances comprises: identifying peaks in the signal corresponding to the reflections from the liquid and from the one or more reference pins; and calculating from the identified peaks the first and second sensed distances. receiving a signal representing reflections of an electromagnetic wave from a liquid and one or more reference pins (120a-120c, 320a-320c) in a storage tank; calculating from the signal a first sensed distance to the liquid and one or more second sensed distances to the one or more reference pins; comparing the one or more second sensed distances to one or more reference distances; calculating a correction factor based on the comparison of the one or more second sensed distances and the one or more reference distances; and calculating a corrected distance to the liquid based on the correction factor and the first sensed distance; wherein calculating the first and second sensed distances comprises: identifying peaks in the signal corresponding to the reflections from the liquid and from the one or more reference pins; and calculating from the identified peaks the first and second sensed distances. identifying peaks in the signal corresponding to the reflections from the liquid and from the one or more reference pins; and calculating from the identified peaks the first and second sensed distances.
Method for digital image processing, the method comprising - providing an immunofluorescence image, which represents a staining of a biological cell substrate by a fluorescence stain, - determining respective items of location information, which indicate respective locations of respective relevant subsections of the cell substrate in the fluorescence image, - extracting respective image subsections, which correspond to the respective subsections of the cell substrate, from the fluorescence image on the basis of the items of location information, - determining respective second partial confidence measures (ZTKM) of respective presences of the fluorescence pattern on the respective subsections using a second neural network on the basis of the respective image subsections, characterized in that - determining respective first partial confidence measures (ETKM) of respective presences of the fluorescence pattern on the respective subsections using a first neural network on the basis of the overall fluorescence image - determining a confidence measure of the presence of the fluorescence pattern in the fluorescence image on the basis of the first partial confidence measures (ETKM) and the second partial confidence measures (ZTKM). - providing an immunofluorescence image, which represents a staining of a biological cell substrate by a fluorescence stain, - determining respective items of location information, which indicate respective locations of respective relevant subsections of the cell substrate in the fluorescence image, - extracting respective image subsections, which correspond to the respective subsections of the cell substrate, from the fluorescence image on the basis of the items of location information, - determining respective second partial confidence measures (ZTKM) of respective presences of the fluorescence pattern on the respective subsections using a second neural network on the basis of the respective image subsections, characterized in that - determining respective first partial confidence measures (ETKM) of respective presences of the fluorescence pattern on the respective subsections using a first neural network on the basis of the overall fluorescence image - determining a confidence measure of the presence of the fluorescence pattern in the fluorescence image on the basis of the first partial confidence measures (ETKM) and the second partial confidence measures (ZTKM).
A method of detecting an analyte in a liquid sample known or suspected to comprise red blood cells and suspected or known to comprise eukaryotic cells, the method comprising the steps of a) processing said liquid sample with a membrane solubilizing agent thereby lysing cell membranes of red blood cells and at the same time not causing precipitation of sample constituents, b) subjecting the processed sample obtained in step (a) to a chromatographic separation, wherein said chromatographic separation is by high performance liquid chromatography (HPLC) and c) detecting the analyte wherein said membrane solubilizing reagent comprises a chemical selected from KBr (potassium bromide), KJ (potassium iodide), KSCN (potassium thiocyanate) or a salt consisting of one or more of the following cations and anions, wherein the cation is selected from wherein m is 0 or 1 and n is 4 or 6 and wherein the anion is selected from chloride, tetrafluoroborate, octylsulfate, iodide and thiocyanate and, wherein said analyte is detected by mass spectroscopy. a) processing said liquid sample with a membrane solubilizing agent thereby lysing cell membranes of red blood cells and at the same time not causing precipitation of sample constituents, b) subjecting the processed sample obtained in step (a) to a chromatographic separation, wherein said chromatographic separation is by high performance liquid chromatography (HPLC) and c) detecting the analyte wherein said membrane solubilizing reagent comprises a chemical selected from KBr (potassium bromide), KJ (potassium iodide), KSCN (potassium thiocyanate) or a salt consisting of one or more of the following cations and anions, wherein the cation is selected from wherein m is 0 or 1 and n is 4 or 6 and wherein the anion is selected from chloride, tetrafluoroborate, octylsulfate, iodide and thiocyanate and, wherein said analyte is detected by mass spectroscopy.