mhurhangee/ep-ind-claims huggingface dataset:
A method of determining an initial position of a single phase DC motor, or of a two phase DC motor having two coils wound on alternating stator poles, the motor having a stator comprising magnetic material and at least one but less than three coils, and a rotor movably mounted with respect to the stator, the method comprising the steps: a) applying at least one first probe pulse (31, 41, 51, 61) to the at least one coil thereby generating a first response pulse (33, 43, 53, 63) having a first direction or a first polarity, and measuring an effect (Tr1, Peak1, ΔT1) of the at least one first probe pulse; b) applying at least one second probe pulse (32, 42, 52, 62) to the at least one coil thereby generating a second response pulse (34, 44, 54, 64) having a second direction or second polarity, and measuring an effect (Tr2, Peak2, ΔT2) of the at least one second probe pulse; wherein the at least one first probe pulse (31, 41, 51, 61) and the at least one second probe pulse (32, 42, 52, 62) have a shape and size sufficiently small for not substantially moving the rotor relative to the stator; c) determining the initial position of the rotor with respect to the stator by comparing the measured effect (Tr1, Peak1, ΔT1) of the at least one first probe pulse and the measured effect (Tr2, Peak2, ΔT2) of the at least one second probe pulse; characterized in that the first probe pulse has a shape and size sufficiently large so as to cause at least partial saturation of the magnetic stator material and that the second probe pulse has a shape and size such that the magnetic stator material is not driven in saturation, or vice versa. a) applying at least one first probe pulse (31, 41, 51, 61) to the at least one coil thereby generating a first response pulse (33, 43, 53, 63) having a first direction or a first polarity, and measuring an effect (Tr1, Peak1, ΔT1) of the at least one first probe pulse; b) applying at least one second probe pulse (32, 42, 52, 62) to the at least one coil thereby generating a second response pulse (34, 44, 54, 64) having a second direction or second polarity, and measuring an effect (Tr2, Peak2, ΔT2) of the at least one second probe pulse; wherein the at least one first probe pulse (31, 41, 51, 61) and the at least one second probe pulse (32, 42, 52, 62) have a shape and size sufficiently small for not substantially moving the rotor relative to the stator; c) determining the initial position of the rotor with respect to the stator by comparing the measured effect (Tr1, Peak1, ΔT1) of the at least one first probe pulse and the measured effect (Tr2, Peak2, ΔT2) of the at least one second probe pulse;
Process for manufacturing a mixed calcium and magnesium compound, comprising slaking of quicklime with an aqueous medium and the formation of solid particles characterized in that said aqueous medium is a suspension of magnesium hydroxide, and in that said slaking is non-wet slaking to form said solid particles of mixed compound of formula xCa 2.yMg 2.zl comprising a closely bound calcium phase and magnesium phase having homogeneous volume distribution, a formula where x, y and z are weight fractions with x + y between 88 and 100 % by weight relative to the total weight of the mixed compound, and where I represents impurities.
Window or door having a plastic profile frame and a facing shell frame, which is connected to the plastic profile frame, and also a glazing which is positioned in the interior of the plastic profile frame, wherein the facing shell frame consists of mitre-cut facing shells, which are connected by means of first corner connectors, and, in the installed position, is arranged, at least in a subregion, so as to horizontally overlap the glazing, wherein the first corner connectors are arranged in the facing shells so as to horizontally overlap the glazing, preferably at least in a subregion, characterized in that second corner connectors are arranged in the facing shells in the vertically outer region, wherein the second corner connectors have a cross section which is substantially smaller than the cross section of the first corner connectors, and the plastic profile frame has at least one recess (14, 15), on the side facing the facing shell frame in the mounted state, for receiving at least one groove (8, 9) for receiving at least one corner connector (6, 7).
An electric tightening tool controller operative to control how hard an electric tightening tool should tighten a screw joint and to enable different functionality sets for at least a first and a second electric tightening tool associated with the electric tightening tool controller, wherein the electric tightening tool controller is integrated in the electric tightening tool, and wherein the electric tightening tool controller is arranged to be used, via a network connection, by other electric tightening tools that do not have an integrated tool controller, wherein the electric tightening tool controller is operative to: - retrieve at least a first licence type; the first licence type specifies a first set of functions allowed to be performed by at least the first electric tightening tool; - retrieve at least a second licence type; the second licence type specifies a second set of functions allowed to be performed by the at least the second electric tightening tool; - enable the first set of functions for at least the first electric tightening tool; and - enable the second set of functions for at least the second electric tightening tool. wherein the electric tightening tool controller is integrated in the electric tightening tool, and wherein the electric tightening tool controller is arranged to be used, via a network connection, by other electric tightening tools that do not have an integrated tool controller, wherein the electric tightening tool controller is operative to: - retrieve at least a first licence type; the first licence type specifies a first set of functions allowed to be performed by at least the first electric tightening tool; - retrieve at least a second licence type; the second licence type specifies a second set of functions allowed to be performed by the at least the second electric tightening tool; - enable the first set of functions for at least the first electric tightening tool; and - enable the second set of functions for at least the second electric tightening tool. - retrieve at least a first licence type; the first licence type specifies a first set of functions allowed to be performed by at least the first electric tightening tool; - retrieve at least a second licence type; the second licence type specifies a second set of functions allowed to be performed by the at least the second electric tightening tool; - enable the first set of functions for at least the first electric tightening tool; and - enable the second set of functions for at least the second electric tightening tool.
A networking system comprising: a secured mobile virtual group, SMVG, controller in a content oriented network, CON,; a plurality of user groups coupled to the SMVG controller and associated with users; a plurality of SMVG agents that are each associated with one of the user groups; and a database for trusted service profile coupled to the SMVG controller, wherein trust relationship between a service subscriber and supplier is described and enforced by the trusted service profile; a plurality of CON proxy nodes that are associated with one of the user groups and coupled to one of the SMVG agents; one or more access points, APs, that are configured to communicate with a plurality of user devices at each user group and coupled to the CON proxy nodes; wherein the SMVG controller is configured to interact with the SMVG agents to support name-based mobility, wherein a name of each user device has a domain-name prefix, and a home domain name is derived from the name of each user device; wherein a local SMVG agent is configured to derive a home domain name from a mobile device name and be triggered to send a registration message to a home domain SMVG controller when a mobile device attaches to a visiting access network. a secured mobile virtual group, SMVG, controller in a content oriented network, CON,; a plurality of user groups coupled to the SMVG controller and associated with users; a plurality of SMVG agents that are each associated with one of the user groups; and a database for trusted service profile coupled to the SMVG controller, wherein trust relationship between a service subscriber and supplier is described and enforced by the trusted service profile; a plurality of CON proxy nodes that are associated with one of the user groups and coupled to one of the SMVG agents; one or more access points, APs, that are configured to communicate with a plurality of user devices at each user group and coupled to the CON proxy nodes;
A composition for use in reducing the risk of occurrence of or preventing whey protein allergy associated with mycotoxin exposure in an infant who consumes cereals or cereal-comprising products daily and suffers from an increased risk of whey protein allergy associated with mycotoxin exposure, said composition comprising non-digestible oligosaccharide.
An inline frame for inline skates comprising a chassis in which at least one first wheel and at least one second wheel are mounted in bearings in the chassis and placed in the inline frame's longitudinal direction, where the inline frame's chassis includes an upper chassis section, and a lower chassis section, wherein said upper chassis section and said lower chassis section are rotatable relative to each other in the inline frame's longitudinal direction via a coupling element, and wherein said upper chassis section comprises a first contact surface and said lower chassis section comprises a second contact surface of which at least one is curvilinear; characterized by that: said first and second contact surfaces bear against each other, such that upon rotating said upper chassis section and said lower chassis section relative to each other, said first contact surface and said second contact surface roll against each other in the inline frame's longitudinal direction. an upper chassis section, and a lower chassis section, wherein said upper chassis section and said lower chassis section are rotatable relative to each other in the inline frame's longitudinal direction via a coupling element, and wherein said upper chassis section comprises a first contact surface and said lower chassis section comprises a second contact surface of which at least one is curvilinear; characterized by
Method for the permanent insertion of a profile insert (3, 3', 3") inserted into a recess (2, 2', 2") in the tread of a completely vulcanized pneumatic vehicle tyre that is formed during the vulcanization of the tyre, the profile insert (3, 3', 3") consisting of a rubber material which differs from the surrounding rubber material of the tread with respect to at least one property, for example the stiffness, characterized in that a reactive adhesive system which has at least one component that sublimes under the external effect of heat, penetrates into the boundary layers of rubber materials and crosslinks there is applied either to the inner wall of the recess (2, 2', 2") and/or to the outer side of the profile insert (3, 3', 3"), subsequently the profile insert (3, 3', 3") is pressed into the recess (2, 2', 2") and the tread is heated at least in the region or around the region of the profile insert (3, 3', 3") in order to bring about the sublimation and migration of the component of the reactive adhesive system.
Autonomous monument that can be installed in a pressurized aircraft cabin, comprising: - a number of operating medium reservoirs for self-sufficient operation (109; 206; 302, 303) for supplying operating media; and - a number of energy converters (304, 305, 306); wherein each operating medium allows a direct energy conversion process by means of at least one energy converter and consequently an exergy flow for the self-supplying monument; wherein the operating medium reservoirs (302, 303) comprise a tank with cryogenic air and a tank with methanol; wherein the energy converters (304, 305, 306) comprise a cooling unit, an oven and a fuel cell; wherein the cooling unit is connected to the tank filled with cryogenic air and is supplied with cryogenic air; wherein the oven and the fuel cell are connected to the tank filled with methanol and are supplied with methanol; wherein the operating media and energy converters are chosen such that an anergy flow is minimized. - a number of operating medium reservoirs for self-sufficient operation (109; 206; 302, 303) for supplying operating media; and - a number of energy converters (304, 305, 306); wherein each operating medium allows a direct energy conversion process by means of at least one energy converter and consequently an exergy flow for the self-supplying monument;
A coated article including a coating supported by a glass substrate, the coating comprising moving away from the glass substrate: a dielectric layer comprising zirconium silicon oxynitride; a layer comprising zinc stannate (5, 5'); a layer comprising zinc oxide (7, 7') located over and directly contacting the layer comprising zinc stannate; an infrared reflecting layer comprising silver located on the substrate over and directly contacting the layer comprising zinc oxide; and a layer comprising metal oxide (12, 13, 14) located over at least the IR reflecting layer comprising silver; wherein the layer comprising zirconium silicon oxynitride contains at least three times as much nitrogen as oxygen, and wherein a ratio of Zr/Si (atomic) is from 0.30 to 0.47 in the layer comprising zirconium silicon oxynitride. a dielectric layer comprising zirconium silicon oxynitride; a layer comprising zinc stannate (5, 5'); a layer comprising zinc oxide (7, 7') located over and directly contacting the layer comprising zinc stannate; an infrared reflecting layer comprising silver located on the substrate over and directly contacting the layer comprising zinc oxide; and a layer comprising metal oxide (12, 13, 14) located over at least the IR reflecting layer comprising silver; wherein the layer comprising zirconium silicon oxynitride contains at least three times as much nitrogen as oxygen, and wherein a ratio of Zr/Si (atomic) is from 0.30 to 0.47 in the layer comprising zirconium silicon oxynitride.
Valve system for controlling a fluid flow, the valve system comprising: a duct, a valve body adapted to be inserted in an interruption of said duct, and provided with an inlet and an outlet for a flow of fluid in said duct, a lateral flow valve, developing substantially transversally in the duct, placed in said valve body upstream of the fluid flow, said valve comprising an obstructer capable of moving transversally in said duct to "laterally" interrupt part of the fluid flow in said duct, actuation means adapted to move said obstructer from a first position, in which said duct is fully open, to a second position, in which said duct is fully closed, said valve system further comprising: a rotor shaped substantially as a turbine, placed inside the valve body downstream of said obstructer with respect to the fluid flow, characterised in that said rotor is located at a distance from said obstructer comprised within a pressure recovery zone, said pressure being generated by said valve in the absence of the turbine, said distance being comprised between 5 and 6 times a diameter of said duct. a duct, a valve body adapted to be inserted in an interruption of said duct, and provided with an inlet and an outlet for a flow of fluid in said duct, a lateral flow valve, developing substantially transversally in the duct, placed in said valve body upstream of the fluid flow, said valve comprising an obstructer capable of moving transversally in said duct to "laterally" interrupt part of the fluid flow in said duct, actuation means adapted to move said obstructer from a first position, in which said duct is fully open, to a second position, in which said duct is fully closed, said valve system further comprising: a rotor shaped substantially as a turbine, placed inside the valve body downstream of said obstructer with respect to the fluid flow, characterised in that said rotor is located at a distance from said obstructer comprised within a pressure recovery zone, said pressure being generated by said valve in the absence of the turbine, said distance being comprised between 5 and 6 times a diameter of said duct.
A compressor section for a gas turbine engine comprising: an upstream portion including at least one upstream rotor stage configured to rotate on a shaft; a downstream portion including at least one downstream rotor stage configured to rotate with the upstream rotor stage on the shaft, characterised in that: the compressor section further comprises a transition duct defined by a compressor transition case separating the upstream portion from the downstream portion, and a radially outer edge of the at least one upstream rotor stage is spaced radially outward from a radially outer edge of the at least one downstream rotor stage, and a platform on at least one rotor of the upstream rotor stage is spaced radially outward from a platform on at least one rotor of the downstream rotor stage. an upstream portion including at least one upstream rotor stage configured to rotate on a shaft; a downstream portion including at least one downstream rotor stage configured to rotate with the upstream rotor stage on the shaft, the compressor section further comprises a transition duct defined by a compressor transition case separating the upstream portion from the downstream portion, and a radially outer edge of the at least one upstream rotor stage is spaced radially outward from a radially outer edge of the at least one downstream rotor stage, and a platform on at least one rotor of the upstream rotor stage is spaced radially outward from a platform on at least one rotor of the downstream rotor stage.
A method for the mass spectrometric identification of pathogens in a whole blood sample, comprising the following steps: (a) destruction of the blood particles in the whole blood sample, (b) precipitating by centrifuging the pathogens without further multiplication from the whole blood sample directly into a pellet, (c) subjecting the pathogens to a mass spectrometric analysis of their proteins, and (d) identifying the pathogens by comparison of the protein mass spectra with reference protein mass spectra. (a) destruction of the blood particles in the whole blood sample, (b) precipitating by centrifuging the pathogens without further multiplication from the whole blood sample directly into a pellet, (c) subjecting the pathogens to a mass spectrometric analysis of their proteins, and (d) identifying the pathogens by comparison of the protein mass spectra with reference protein mass spectra.
An arrangement for characterizing the magnetic field distribution of a magnetic system based on an initialized set of input parameters of the magnetic system, the parameters comprising magnetization vectors, the arrangement comprising: - means for measuring the magnetic field distribution and - means for determining an optimal expected magnetic field distribution of the magnetic system, characterized in that - the means for measuring the magnetic field distribution is a magnetic field camera device and wherein - the means for determining said optimal expected magnetic field distribution includes i) means for determining a calculated magnetic field distribution using a theoretical simulation model, making use of precalculated simulation data which need to be calculated only once for a particular magnetic system configuration; ii) means for comparing said expected magnetic field distribution to said measured magnetic field distribution value and iii) means for using an optimization scheme to obtain the optimal expected magnetic field distribution of the magnetic system; iv) means for repeating the method steps executed by the means of i), ii) and iii) until the expected magnetic field distribution is the same as the measured magnetic field distribution value within a tolerance. - means for measuring the magnetic field distribution and - means for determining an optimal expected magnetic field distribution of the magnetic system, characterized in that - the means for measuring the magnetic field distribution is a magnetic field camera device and wherein - the means for determining said optimal expected magnetic field distribution includes i) means for determining a calculated magnetic field distribution using a theoretical simulation model, making use of precalculated simulation data which need to be calculated only once for a particular magnetic system configuration; ii) means for comparing said expected magnetic field distribution to said measured magnetic field distribution value and iii) means for using an optimization scheme to obtain the optimal expected magnetic field distribution of the magnetic system; iv) means for repeating the method steps executed by the means of i), ii) and iii) until the expected magnetic field distribution is the same as the measured magnetic field distribution value within a tolerance. i) means for determining a calculated magnetic field distribution using a theoretical simulation model, making use of precalculated simulation data which need to be calculated only once for a particular magnetic system configuration; ii) means for comparing said expected magnetic field distribution to said measured magnetic field distribution value and iii) means for using an optimization scheme to obtain the optimal expected magnetic field distribution of the magnetic system; iv) means for repeating the method steps executed by the means of i), ii) and iii) until the expected magnetic field distribution is the same as the measured magnetic field distribution value within a tolerance.