mhurhangee/ep-ind-claims huggingface dataset:
Electric motor, comprising an axle part of a wheel axle, and a drive apparatus for a wheel of a work machine, wherein the electric motor comprises a rotor which is rotatably received in a stator, which is supported at bearing plates (8, 9) arranged at the end side and in which two coil head spaces (10, 11) are provided which are bounded by the stator, by the rotor, by the shaft and by the bearing plate or by the bearing plate, wherein a cooling apparatus for cooling the stator and the rotor comprises at least one coolant path through the coil head spaces (10, 11) which is suppliable with coolant via a coolant inlet, wherein the cooling apparatus comprises a space which surrounds the stator and which is bounded at the outer peripheral side by a housing part spaced apart from the stator and having the named coolant inlet and communicates via communication openings which are provided at the ends of the stator with the coil head spaces (10, 11), with one bearing plate being closed and free of a coolant passage and with the other bearing plate or the stator having at least one coolant outlet at the end of the motor at the side of the bearing plate such that coolant is conducted via the coolant inlet into the space, is conducted in the space propagating over the outer peripheral side of the stator, is introduced through the communication openings into the coil head spaces (10, 11), flows through bores in the rotor and/or through the air gap between the stator and the rotor from the coil head space at the side of the closed bearing plate into the coil head space having the at least one coolant outlet, and is drained through the at least one coolant outlet, characterized in that the electric motor is configured without a housing with an exposed stator, wherein the housing part bounding the named space is formed by an axle part of the wheel axle, in which the electric motor is received, and wherein the electric motor, at the side of the closed bearing plate, is connected to a transmission.
Machine for regeneration of pneumatic tyres comprising a beading device for axial locking of the pneumatic tyre to be regenerated in the direction of the revolving axis of the pneumatic tyre which provides an untranslatable bead and a translatable bead in said direction, a work rasp mounted on a spindle, inflation means of the pneumatic tyre and a discharge cochlea, characterized in that it comprises also a roughing miller suitable to prepare the pneumatic tyre to a subsequent finishing by means of the rasp, said miller being mounted on the same spindle of said rasp and after it, and constituted of a monoblock with discharge channels for chips produced by inserts with a curved profile providing a plurality of planar blades joined by discharge grooves of the chips produced.
A fuel cell membrane electrode assembly comprising at least one gas permeable layer comprising a mixture of first and second types of carbon particles in a weight ratio of between 99:1 and 50:50, wherein said first type of carbon particle oxidizes at a lower rate than said second type of carbon particle, wherein said first type of carbon particles is graphitized carbon particles, and wherein said second type of carbon particle is not graphitized carbon particles.
Two-dimensional screen material for use in screen printing, in particular in rotary screen printing, including webs (10, 11) forming a screen structure and arranged at an angle relative to each other wherein the webs (10, 11) or at least the surfaces thereof are made of a metal, in particular nickel, that has been deposited onto the webs (10, 11) in an electroplating process, characterized in that the webs (10, 11) form a structure with longitudinal openings and that the width (a, w1) of the openings in the direction of the longitudinal axes of the openings is greater than the width (b, w2) in the direction of the transverse axes of the openings.
Method for the preparation of beer, wherein a mash is produced from malt, a wort is obtained from the mash by means of a lautering process, the wort is subjected to a heat treatment, the hot trub is separated from the treated wort and, after separation of the hot trub, beer is obtained from the wort by fermentation, characterized in that the husks are partially removed from the malt before the mashing, wherein the proportion of husks partially removed from the malt is between 10 and 60% when using a lauter tun and is between 30 and 95% when using a mash filter or a centrifuge for lautering, and the remaining husks present in the malt used are fed back to the brewing process, wherein the method is further characterized in that all the removed husks are burned in the dry state for the purpose of generating energy and the energy released during the burning is used for the brewing process, wherein the reduction of the husk addition to the brewing process is between 10 and 60% when using a lauter tun and is between 30 and 95% when using a mash filter or a centrifuge for lautering.
Cytoplasmic male sterile Cichorium plant comprising mitochondria of Lactuca, wherein said mitochondria of Lactuca comprise at least one mitochondrial nucleic acid sequence selected from the group consisting of SEQ ID No. 1, SEQ ID No. 2, SEQ ID No. 3, SEQ ID No. 4, SEQ ID No. 5, SEQ ID No. 6, SEQ ID No. 7, SEQ ID No. 8, SEQ ID No. 9, and SEQ ID No. 10 and wherein said Cichorium plant comprises a cytoplasm maternally derived from a plant according to deposit NCIMB 42125.
A MEMS micromirror including, a frame, a mirror body arranged therein, said mirror body being rotatable around a rotation axis extending in a plane (X-Y) defined by the frame, at least one cantilever beam assembly having a longitudinal direction and extending within said plane, and vertical support beams connected between the mirror body and the frame along the rotation axis, the at least one cantilever beam assembly having a cantilever beam with a first and a second end (721, 722) and a relief means at the first end allowing for a translation of the cantilever beam at its first end in said longitudinal direction, with the first end being coupled via the relief means to the frame and the second end being fixed to the mirror body and wherein the cantilever beam has a thickness, perpendicular to a plane of the frame, that is smaller than its width, in the plane of the frame, the MEMS scanning micromirror having a natural frequency and further including an actuator configured to generate a torque oscillating with said natural frequency about the scanning axis to drive the mirror body therewith.
Heat exchanger comprising a gas circuit and a coolant circuit enclosed in a container so that, in use, pressurized gas flowing in tubes and liquid coolant flowing between said tubes are in thermal exchange, the heat exchanger further comprising turbulators (38, 40) arranged in the coolant circuit, between the tubes, for generating, in use, turbulences of the coolant flow improving the thermal efficiency of the exchanger, - -- wherein the turbulators (38, 40) are integrally formed in a turbulators plate extending across a plurality of tubes, characterized in that - the turbulators plate integrally comprise first and second sections of turbulators, each comprising periodic pattern corrugations with spatial period (P38, P40) along a longitudinal axis and normal peak-to-peak amplitude (A38, A40) along a normal axis, perpendicular to said longitudinal axis, the corrugations of the first section having smaller peak-to-peak amplitude than the corrugations of the second sections, said turbulators also being identified as offset strip fins. - the turbulators plate integrally comprise first and second sections of turbulators, each comprising periodic pattern corrugations with spatial period (P38, P40) along a longitudinal axis and normal peak-to-peak amplitude (A38, A40) along a normal axis, perpendicular to said longitudinal axis, the corrugations of the first section having smaller peak-to-peak amplitude than the corrugations of the second sections, said turbulators also being identified as offset strip fins.
Detector for detecting fluorescent signals from a plurality of fluorescent signal sources, said detector comprising: - a plurality of pixels for individually detecting said fluorescent signals from the plurality of fluorescent signal sources, each pixel comprising a predetermined number of at least two detection elements (D1, Dn) for detecting a received fluorescent signal and for generating detection signals, wherein the detection elements are arranged along a row, and - a signal conversion circuit for receiving said detection signals from said at least two detection elements (D1, Dn) and for generating a pixel output signal indicating which of said at least two detection elements generated the strongest detection signal. - a plurality of pixels for individually detecting said fluorescent signals from the plurality of fluorescent signal sources, each pixel comprising a predetermined number of at least two detection elements (D1, Dn) for detecting a received fluorescent signal and for generating detection signals, wherein the detection elements are arranged along a row, and - a signal conversion circuit for receiving said detection signals from said at least two detection elements (D1, Dn) and for generating a pixel output signal indicating which of said at least two detection elements generated the strongest detection signal.
Method for authenticating a document, the document being provided with a window that is at least partially closed off by a transparent film bearing a mark, the method being implemented by way of an image sensor connected to an image-processing computing unit, and comprising the following steps: - driving the image sensor so as to successively capture a first image of the document and a second image of the document while presenting a random dynamic background behind the window, the background presented behind the window during the capture of the second image being different from the background presented behind the window during the capture of the first image; and - driving the processing unit so as to verify that the background visible within the window in the second image corresponds to an expected background different from the background visible in the first image and verify that the mark is visible within the window. - driving the image sensor so as to successively capture a first image of the document and a second image of the document while presenting a random dynamic background behind the window, the background presented behind the window during the capture of the second image being different from the background presented behind the window during the capture of the first image; and - driving the processing unit so as to verify that the background visible within the window in the second image corresponds to an expected background different from the background visible in the first image and verify that the mark is visible within the window.
A method, comprising: providing, by a user equipment, a multi-dimensional descriptor to a network function; accessing a network slice, wherein the network slice is selected based on the multi-dimensional descriptor; and accessing a component of the network slice, wherein one or more network functions of the network slice are selected based on the multi-dimensional descriptor. providing, by a user equipment, a multi-dimensional descriptor to a network function; accessing a network slice, wherein the network slice is selected based on the multi-dimensional descriptor; and accessing a component of the network slice, wherein one or more network functions of the network slice are selected based on the multi-dimensional descriptor.
A milk module for preparing hot or cold, frothed or non-frothed milk-based beverages from liquid milk; the milk module comprises a milk line extending from a milk container up to a milk dispensing nozzle; and an air line extending from an air source and opens into the milk line; the milk line comprises a milk pump to suck the milk from the milk container, a flow restriction arranged on a delivery side of the milk pump, and a milk heater; the milk module further comprises a proportional air solenoid valve arranged along the air line; a pressure sensor to measure and output an output indicative of a pressure of the milk-air mixture in the milk line downstream of the milk pump; and an electronic control unit in communication with the pressure sensor to receive the output thereof and with the proportional air solenoid valve to control operation thereof; in order to control operation of the proportional air solenoid valve, the electronic control unit is configured to: - store data representative of at least one target pressure profile indicative of a time development of a target pressure of the milk-air mixture that is desired to be obtained in the milk line, downstream of the milk pump; and - closed-loop control the proportional air solenoid valve based on the pressure of the milk-air mixture measured by the pressure sensor and the target pressure profile. the milk module comprises a milk line extending from a milk container up to a milk dispensing nozzle; and an air line extending from an air source and opens into the milk line; the milk line comprises a milk pump to suck the milk from the milk container, a flow restriction arranged on a delivery side of the milk pump, and a milk heater; the milk module further comprises a proportional air solenoid valve arranged along the air line; a pressure sensor to measure and output an output indicative of a pressure of the milk-air mixture in the milk line downstream of the milk pump; and an electronic control unit in communication with the pressure sensor to receive the output thereof and with the proportional air solenoid valve to control operation thereof; in order to control operation of the proportional air solenoid valve, the electronic control unit is configured to: - store data representative of at least one target pressure profile indicative of a time development of a target pressure of the milk-air mixture that is desired to be obtained in the milk line, downstream of the milk pump; and - closed-loop control the proportional air solenoid valve based on the pressure of the milk-air mixture measured by the pressure sensor and the target pressure profile. - store data representative of at least one target pressure profile indicative of a time development of a target pressure of the milk-air mixture that is desired to be obtained in the milk line, downstream of the milk pump; and - closed-loop control the proportional air solenoid valve based on the pressure of the milk-air mixture measured by the pressure sensor and the target pressure profile.
A magnetorheological fluid comprising magnetic-responsive particles, a thickener, an ionic thixotropic additive, and a carrier fluid, characterized in that the carrier fluid comprises a glycol-water mixture comprising at least 50 percent by weight of a glycol compound, and wherein the thickener comprises untreated fumed silica.
A method of making a layered CNT-composite on an airplane wing, comprising: providing a CNT layer that is disposed on an airplane wing; and applying a solventless polymer precursor directly onto the CNT layer. providing a CNT layer that is disposed on an airplane wing; and applying a solventless polymer precursor directly onto the CNT layer.
A storage controller for writing first data to a first memory cell by performing programming of the first memory cell N-times, N being a positive integer greater than 1, the storage controller (210; 1310a; 1310b; 3251_1) comprising: a write amplification, WAF, manager configured to check whether the first data is invalid data before an N th programming of the first memory cell is performed; and a central processing unit, CPU, configured not to perform the N-th programming of the first memory cell when the first data is the invalid data, the storage controller (210; 1310a; 1310b; 3251_1) being adapted so that second data is written to a second memory cell connected to a same word line as the first memory cell by performing programming of the second memory cell N-times, and so that when the first data is the invalid data, the N th programming of the first memory cell is not performed and the N th programming of the second memory cell is performed to write the second data. a write amplification, WAF, manager configured to check whether the first data is invalid data before an N th programming of the first memory cell is performed; and a central processing unit, CPU, configured not to perform the N-th programming of the first memory cell when the first data is the invalid data, the storage controller (210; 1310a; 1310b; 3251_1) being adapted so that second data is written to a second memory cell connected to a same word line as the first memory cell by performing programming of the second memory cell N-times, and so that when the first data is the invalid data, the N th programming of the first memory cell is not performed and the N th programming of the second memory cell is performed to write the second data.
A rotary combustion engine, comprising a non-rotary outer casing, a non-rotary inner casing, a power shaft provided with an eccentric part, a driving eccentric ring provided between the outer casing and the inner casing and mounted in bearings on the eccentric part of the power shaft, a combustion chamber arrangement for burning a mixture of fuel and air supplied into the engine between the driving eccentric ring and the inner casing such that the eccentric ring drives the power shaft by means of substantially non-rotating eccentric movement, divider members for dividing the combustion chamber arrangement into at least two parts of equal size, whereby the divider members extend through the inner casing and are in close contact with an inner surface of the driving eccentric ring, an eccentric device or control for driving the divider members back and forth with respect to the inner casing, whereby the eccentricity of the eccentric device or control corresponds with the eccentricity of the eccentric part of the power shaft, characterized in that the eccentric device or control comprises at least one guide groove which implements an eccentric path and to which the divider members are connected, and in that the eccentric path of the control of the divider members, i.e. the guide groove, is made elliptical, and in that the guide groove is formed in a side surface of at least one guide disc mounted fixedly on the power shaft.
A fiber distribution assembly comprising: an enclosure defining an interior cavity and comprising: a base defining a first opening and a second opening; and a cover rotatably coupled to the base and configured to rotate about an axis; wherein the base is symmetric about a line perpendicular to the axis, the first opening is on one side of the line, and the second opening is on the other side of the line; a tray rotatably coupled to the enclosure within the interior cavity and symmetric about the line; and a plurality of cable management or fiber optic components (44, 46, 48, 58) each configured to be releasably coupled to the tray; wherein the tray comprises a panel defining a plurality of uniformly spaced openings; and wherein each opening is configured to operatively receive a fastener that releasably couples the plurality of cable management or fiber optic components (44, 46, 48, 58) to the panel of the tray. an enclosure defining an interior cavity and comprising: a base defining a first opening and a second opening; and a cover rotatably coupled to the base and configured to rotate about an axis; wherein the base is symmetric about a line perpendicular to the axis, the first opening is on one side of the line, and the second opening is on the other side of the line; a base defining a first opening and a second opening; and a cover rotatably coupled to the base and configured to rotate about an axis; wherein the base is symmetric about a line perpendicular to the axis, the first opening is on one side of the line, and the second opening is on the other side of the line; a tray rotatably coupled to the enclosure within the interior cavity and symmetric about the line; and a plurality of cable management or fiber optic components (44, 46, 48, 58) each configured to be releasably coupled to the tray; wherein the tray comprises a panel defining a plurality of uniformly spaced openings; and wherein each opening is configured to operatively receive a fastener that releasably couples the plurality of cable management or fiber optic components (44, 46, 48, 58) to the panel of the tray.
An apparatus (202, 302, 402) configured to determine the pressure of an aircraft tire at a reference temperature, the apparatus comprising a processing system (204, 306, 404) configured to: obtain a measured tire pressure and a measured temperature associated with the measured tire pressure; and characterised in that the processing system is configured to determine a tire pressure at the reference temperature by adjusting the measured tire pressure using a predetermined temperature characteristic, a square root of the measured temperature and a square root of the reference temperature, wherein the predetermined temperature characteristic is a gradient of the relationship between square root of temperature and tire pressure. obtain a measured tire pressure and a measured temperature associated with the measured tire pressure; and characterised in that the processing system is configured to determine a tire pressure at the reference temperature by adjusting the measured tire pressure using a predetermined temperature characteristic, a square root of the measured temperature and a square root of the reference temperature, wherein the predetermined temperature characteristic is a gradient of the relationship between square root of temperature and tire pressure.
A method for detecting a human parvovirus target nucleic acid in a sample, said method comprising: contacting a sample suspected of containing human parvovirus with an oligomer combination for amplifying at least a human parvovirus nucleic acid target region, said oligomer combination comprising (a) a first parvovirus amplification oligomer comprising a first target-hybridizing sequence selected from the group consisting of SEQ ID NOs: 78, 79, 80 and 83; and (b) a second parvovirus amplification oligomer comprising a second target-hybridizing sequence consisting of a sequence selected from the group consisting of SEQ ID NO: 108, 109, 111 and 112; performing an in vitro nucleic acid amplification reaction, wherein any parvovirus target nucleic acid present in said sample is used as a template for generating a parvovirus amplification product; and detecting the presence or absence of the parvovirus amplification product, thereby indicating the presence or absence of parvovirus in said sample. contacting a sample suspected of containing human parvovirus with an oligomer combination for amplifying at least a human parvovirus nucleic acid target region, said oligomer combination comprising (a) a first parvovirus amplification oligomer comprising a first target-hybridizing sequence selected from the group consisting of SEQ ID NOs: 78, 79, 80 and 83; and (b) a second parvovirus amplification oligomer comprising a second target-hybridizing sequence consisting of a sequence selected from the group consisting of SEQ ID NO: 108, 109, 111 and 112; (a) a first parvovirus amplification oligomer comprising a first target-hybridizing sequence selected from the group consisting of SEQ ID NOs: 78, 79, 80 and 83; and (b) a second parvovirus amplification oligomer comprising a second target-hybridizing sequence consisting of a sequence selected from the group consisting of SEQ ID NO: 108, 109, 111 and 112; performing an in vitro nucleic acid amplification reaction, wherein any parvovirus target nucleic acid present in said sample is used as a template for generating a parvovirus amplification product; and detecting the presence or absence of the parvovirus amplification product, thereby indicating the presence or absence of parvovirus in said sample.