mhurhangee/ep-ind-claims huggingface dataset:
Home automation device comprising at least one position detector for a pivoting opening element, said position detector comprising: - a housing, - a magnetometer which is fixed to the housing and adapted to provide signals representing at least one instantaneous intensity value, called the intensity value, of a local magnetic field along at least one fixed axis, called the measurement axis, of the housing, - a processing unit for processing the signals provided by the magnetometer, - a memory comprising, for each measurement axis, data representing a predetermined intensity value, called the calibration value, of the local magnetic field, characterised in that the processing unit is programmed to be able to: - store in the memory intensity values for at least three positions of the housing, - calculate a value, called the constant value, at least as a function of at least three intensity values provided by the magnetometer for at least three corresponding different positions of the housing, - calculate said constant value only when at least three intensity values provided by the magnetometer are different from one another by at least a predetermined value, called the scanning value, of between 20% and 40% of the average intensity of the geomagnetic field, - calculate said constant value as coordinates of the centre of a circle, called the calibration circle, of the measurements of the actual local magnetic field vector, determined for two measurement axes in a reference system of the magnetometer starting from said intensity values, - replacing said calibration value by said constant value in the memory. - a housing, - a magnetometer which is fixed to the housing and adapted to provide signals representing at least one instantaneous intensity value, called the intensity value, of a local magnetic field along at least one fixed axis, called the measurement axis, of the housing, - a processing unit for processing the signals provided by the magnetometer, - a memory comprising, for each measurement axis, data representing a predetermined intensity value, called the calibration value, of the local magnetic field, characterised in that the processing unit is programmed to be able to: - store in the memory intensity values for at least three positions of the housing, - calculate a value, called the constant value, at least as a function of at least three intensity values provided by the magnetometer for at least three corresponding different positions of the housing, - calculate said constant value only when at least three intensity values provided by the magnetometer are different from one another by at least a predetermined value, called the scanning value, of between 20% and 40% of the average intensity of the geomagnetic field, - calculate said constant value as coordinates of the centre of a circle, called the calibration circle, of the measurements of the actual local magnetic field vector, determined for two measurement axes in a reference system of the magnetometer starting from said intensity values, - replacing said calibration value by said constant value in the memory.
A thermostatic working element comprising: a housing for receiving an expansion medium; and an electric heating element arranged in the housing and provided with connecting lines, wherein a base of a bottom side of the housing comprises an opening for passage therethrough of said connecting lines, wherein said electric heating element further comprises an anchoring element configured to stabilize said electric heating element within said housing and to prevent the pulling thereof out of said opening, characterized in that a gasket is disposed between said anchoring element of said electric heating element and the base of the bottom side of the housing, essentially surrounding the opening, wherein said housing further comprises a recess located in proximity to electric heating element, configured to press electric heating element and said gasket against said base of said bottom side of said housing and thereby sealing of said housing is facilitated, and wherein said recess is located in proximity to the top of the anchoring element, configured to press said anchoring element and said gasket against said base of said bottom side of said housing. a housing for receiving an expansion medium; and an electric heating element arranged in the housing and provided with connecting lines, wherein a base of a bottom side of the housing comprises an opening for passage therethrough of said connecting lines, wherein said electric heating element further comprises an anchoring element configured to stabilize said electric heating element within said housing and to prevent the pulling thereof out of said opening, characterized in that a gasket is disposed between said anchoring element of said electric heating element and the base of the bottom side of the housing, essentially surrounding the opening, wherein said housing further comprises a recess located in proximity to electric heating element, configured to press electric heating element and said gasket against said base of said bottom side of said housing and thereby sealing of said housing is facilitated, and wherein said recess is located in proximity to the top of the anchoring element, configured to press said anchoring element and said gasket against said base of said bottom side of said housing.
The compound, or a pharmaceutically acceptable salt, a stereoisomeric, tautomeric or polymorphic form thereof, of the formula Ia: wherein R 1 is OH, alkoxy, O-acyl or F; R 2 is O-alkyl or O-benzyl; R 8 is hydrogen, alkyl, aryl or aralkyl; R 9 is alkyl or benzyl; and R L is methyl or ethyl. R 1 is OH, alkoxy, O-acyl or F; R 2 is O-alkyl or O-benzyl; R 8 is hydrogen, alkyl, aryl or aralkyl; R 9 is alkyl or benzyl; and R L is methyl or ethyl.
Equipment for the carrying out of a photovoltaic installation comprising photovoltaic panels, as well as a plurality of modular support devices for a photovoltaic panel, able to be assembled in order to form a network of floating devices for the support of photovoltaic panels, each modular panel support device comprising: - a structure comprising coupling elements for coupling to other floating devices in such a way as to allow a network of floating devices to be formed, said structure being a plastic element, of a single piece, or a plastic element resulting from the assembly of several elements (22, 23, 24, 25, 26), in a removable manner, - one or a plurality of floats, intended to ensure that the device does float, which are connected to said structure, in a removable manner by a screwing system, a strap system, or a snap-fit system, the float or floats being connected to the structure, bearing on the under-face of said structure, - elements for holding a single photovoltaic panel, arranged in such a way as to allow for the mounting of the photovoltaic panel overhanging laterally the two sides of said device, and wherein said structure is an element separate from the float or floats in such a way as to allow for the transmission of forces between floating devices of the network, without transmitting the forces of the network to said float or floats. - a structure comprising coupling elements for coupling to other floating devices in such a way as to allow a network of floating devices to be formed, said structure being a plastic element, of a single piece, or a plastic element resulting from the assembly of several elements (22, 23, 24, 25, 26), in a removable manner, - one or a plurality of floats, intended to ensure that the device does float, which are connected to said structure, in a removable manner by a screwing system, a strap system, or a snap-fit system, the float or floats being connected to the structure, bearing on the under-face of said structure, - elements for holding a single photovoltaic panel, arranged in such a way as to allow for the mounting of the photovoltaic panel overhanging laterally the two sides of said device,
A method of using a sequencing cell, the method comprising: obtaining a plurality of measured signal values for the sequencing cell having a voltage applied across the sequencing cell, the sequencing cell including a nucleic acid, wherein the applied voltage includes an alternating signal having a first portion and a second portion relative to a reference voltage; determining a first set of one or more signal values measured during the first portion of the alternating signal; determining a second set of one or more signal values measured during the second portion of the alternating signal, wherein the first set of one or more signal values and second set of one or more signal values are determined with no molecule in a nanopore of the sequencing cell; determining a normalization factor based on the second set of one or more signal values; determining a third set of one or more signal values measured during the first portion of the alternating signal when a tag molecule is threaded in the nanopore of the sequencing cell, the tag molecule corresponding to a particular nucleotide; and normalizing the third set of one or more signal values using the normalization factor to obtain one or more normalized signal values. obtaining a plurality of measured signal values for the sequencing cell having a voltage applied across the sequencing cell, the sequencing cell including a nucleic acid, wherein the applied voltage includes an alternating signal having a first portion and a second portion relative to a reference voltage; determining a first set of one or more signal values measured during the first portion of the alternating signal; determining a second set of one or more signal values measured during the second portion of the alternating signal, wherein the first set of one or more signal values and second set of one or more signal values are determined with no molecule in a nanopore of the sequencing cell; determining a normalization factor based on the second set of one or more signal values; determining a third set of one or more signal values measured during the first portion of the alternating signal when a tag molecule is threaded in the nanopore of the sequencing cell, the tag molecule corresponding to a particular nucleotide; and normalizing the third set of one or more signal values using the normalization factor to obtain one or more normalized signal values.
A method for recycling 3-carbamoymethyl-5-methylhexanoic acid from 3-carbamoymethyl-5-methylhexanoic acid chiral resolving mother liquor, comprising following steps: (a) distilling the 3-carbamoymethyl-5-methylhexanoic acid chiral resolving mother liquor, then adding aromatic hydrocarbon, heating to dissolve, keeping the temperature and stirring; (b) after completing reaction in the above step (a), cooling reaction solution to 30-60°C, then adding alkali liquor dropwise, keeping the temperature and reacting; wherein the alkali liquor is an aqueous solution of alkali metal hydroxide and/or aqueous solution of alkali metal carbonate; and (c) after completing reaction in the above step (b), cooling to 20-30°C, layering, adjusting the pH of the separated water layer to 1-2, extracting with organic solvent, distilling the organic phase under reduced pressure, and then crystallizing at a temperature of 0±5°C to obtain 3-carbamoymethyl-5-methylhexanoic acid. (a) distilling the 3-carbamoymethyl-5-methylhexanoic acid chiral resolving mother liquor, then adding aromatic hydrocarbon, heating to dissolve, keeping the temperature and stirring; (b) after completing reaction in the above step (a), cooling reaction solution to 30-60°C, then adding alkali liquor dropwise, keeping the temperature and reacting; wherein the alkali liquor is an aqueous solution of alkali metal hydroxide and/or aqueous solution of alkali metal carbonate; and (c) after completing reaction in the above step (b), cooling to 20-30°C, layering, adjusting the pH of the separated water layer to 1-2, extracting with organic solvent, distilling the organic phase under reduced pressure, and then crystallizing at a temperature of 0±5°C to obtain 3-carbamoymethyl-5-methylhexanoic acid.
A stainless steel sheet containing a minimum of 10.5% by weight of Cr and a maximum of 1.2% by weight of C, the microstructure of which is martensitic or austeno-martensitic and comprises at least 2% by volume of martensite, characterizing in that it comprises at least one local portion of lesser mechanical resistance, having a martensite content at least 10% lower than that of the remainder of said sheet, said local portion being at least partly with a thickness equal to that of said sheet.
A compound of formula I wherein R 1 is hydrogen, lower alkyl, lower alkyl substituted by halogen, halogen, lower alkoxy or lower alkoxy substituted by halogen; and R 1 may be different if n is 2 or 3; R 2 is hydrogen, lower alkyl, lower alkyl substituted by halogen, halogen, CN, lower alkoxy or lower alkoxy substituted by halogen; X is CH or N; m is 1, 2 or 3; -() m is -(CH 2) m -; n is 1, 2 or 3; Ar is a five membered heteroaryl group, selected from or wherein R 3 is hydrogen, methyl or chloro; R 4 is hydrogen or methyl; R 5 is F, Cl, CRF 2 or CF 3; or a pharmaceutically active acid addition salt thereof. R 1 is hydrogen, lower alkyl, lower alkyl substituted by halogen, halogen, lower alkoxy or lower alkoxy substituted by halogen; and R 1 may be different if n is 2 or 3; R 2 is hydrogen, lower alkyl, lower alkyl substituted by halogen, halogen, CN, lower alkoxy or lower alkoxy substituted by halogen; X is CH or N; m is 1, 2 or 3; -() m is -(CH 2) m -; n is 1, 2 or 3; Ar is a five membered heteroaryl group, selected from R 3 is hydrogen, methyl or chloro; R 4 is hydrogen or methyl; R 5 is F, Cl, CRF 2 or CF 3;
A gas turbine blade comprising: a turbine blade provided in a turbine; and film cooling elements provided to realize film cooling of the turbine blade, each comprising a cooling channel for cooling of the turbine blade, an outlet through which cooling air is discharged, and a plurality of ribs, wherein the outlet extends from an end of the cooling channel to an outer surface of the turbine blade and has a width increased from the end of the cooling channel to the outer surface of the turbine blade, and the ribs face each other on inner walls of the outlet and wherein the outlet has a divergence angle (α) characterized in that the outlet expands elliptically in a transverse direction thereof from the end of the cooling channel. a turbine blade provided in a turbine; and film cooling elements provided to realize film cooling of the turbine blade, each comprising a cooling channel for cooling of the turbine blade, an outlet through which cooling air is discharged, and a plurality of ribs, wherein the outlet extends from an end of the cooling channel to an outer surface of the turbine blade and has a width increased from the end of the cooling channel to the outer surface of the turbine blade, and the ribs face each other on inner walls of the outlet and wherein the outlet has a divergence angle (α) characterized in that the outlet expands elliptically in a transverse direction thereof from the end of the cooling channel.
A structural guide vane, comprising: a first root; a second root, the second root positioned radially outward from the first root; a truss extending between the first and second root (70,72), the truss made of a first material, the truss including at least one void extending through the truss; and an overmold, the overmold made of a second material, the overmold surrounding the truss to form an airfoil, and the overmold defining a leading edge, a trailing edge, a first side extending between the leading edge and the trailing edge, and a second side extending between the leading edge and the trailing edge; wherein the second material is less dense than the first material; characterised in that the second material is polymer;and in that the overmold is applied to the truss via one of injection molding or casting. a first root; a second root, the second root positioned radially outward from the first root; a truss extending between the first and second root (70,72), the truss made of a first material, the truss including at least one void extending through the truss; and an overmold, the overmold made of a second material, the overmold surrounding the truss to form an airfoil, and the overmold defining a leading edge, a trailing edge, a first side extending between the leading edge and the trailing edge, and a second side extending between the leading edge and the trailing edge; wherein the second material is less dense than the first material; characterised in that the second material is polymer;and in that the overmold is applied to the truss via one of injection molding or casting.
A method of wireless communication performed by a wireless communication device, the method comprising: applying an open-loop multiple-input multiple-output, MIMO, scheme among a plurality of antenna groups associated with a plurality of antennas, wherein phase coherence cannot be maintained between the plurality of antenna groups; and applying a closed-loop MIMO scheme among antennas within each antenna group of the plurality of antenna groups, wherein phase coherence can be maintained between antennas included in each antenna group of the plurality of antenna groups. applying an open-loop multiple-input multiple-output, MIMO, scheme among a plurality of antenna groups associated with a plurality of antennas, wherein phase coherence cannot be maintained between the plurality of antenna groups; and applying a closed-loop MIMO scheme among antennas within each antenna group of the plurality of antenna groups, wherein phase coherence can be maintained between antennas included in each antenna group of the plurality of antenna groups.
A tarnish and firestain resistant silver alloy consisting of at least 95.00 wt% silver, from 0.70 to 1.65 wt% germanium, from 1.30 to 1.80 wt% indium, from 0.000 to 0.015 wt% boron, not more than 1.0 wt% palladium and not more than 200 ppm copper and incidental impurities.
A screening device for a window, said screening device comprising a drive unit including guide means and a transversal profile arranged to run along said guide means extending transversally at the longitudinal ends of said transversal profile, wherein said transversal profile comprises an electrical motor arranged to move said transversal profile along said guide means by means of engaging means arranged to engage said guide means, said transversal profile further comprising position means arranged for detecting at least a motorized change of the position of said transversal profile in relation to said guide means and at least one end position sensor for detecting an end position of said guide means, screening means comprising a first end being connected to said transversal profile and a second end including connection means for being fixed at an end of said guide means, release means arranged to selectively engage or disengage said electric motor from said guide means to enable both manual and motorized displacement of said transversal profile in relation to said guide means, and control means arranged for controlling the operation of said electrical motor in accordance with input from said position means and said end position sensor.
A method of constructing a fuel metering valve (200, 300) having a calibrated differential pressure sensor, wherein the differential pressure sensor is part of the fuel metering valve (200, 300), the fuel metering valve comprising a valve body housing a valve element (204, 304) in an interior chamber between an inlet port and an outlet port, the valve element regulating a flow of fuel through the valve body, an actuator coupled to move the valve element relative to the valve body, a controller configured to regulate the position of the valve body via the actuator based on differential and absolute pressure measurements to achieve a target mass flow rate of the fuel through the valve body, and differential and absolute pressure sensors arranged to provide the pressure measurements; characterized in that the method comprises calibrating the differential pressure sensor for accuracy only across a limited scale range based on a predetermined maximum subsonic differential pressure. a valve body housing a valve element (204, 304) in an interior chamber between an inlet port and an outlet port, the valve element regulating a flow of fuel through the valve body, an actuator coupled to move the valve element relative to the valve body, a controller configured to regulate the position of the valve body via the actuator based on differential and absolute pressure measurements to achieve a target mass flow rate of the fuel through the valve body, and differential and absolute pressure sensors arranged to provide the pressure measurements; characterized in that the method comprises calibrating the differential pressure sensor for accuracy only across a limited scale range based on a predetermined maximum subsonic differential pressure.
A method for controlling a hydronic heating/cooling system in which liquid is led along a main supply pipe to a supply manifold and distributed in the manifold into heating loops, the heating loops returning to a return manifold, and at least one of the manifolds (2,4) having actuators for controlling the flow in the heating loops, characterised by using said actuators which have operating times of less than 10 seconds, detecting the endings of duty cycles (8a, 8b), detecting if two or more duty cycles (8a, 8b) end substantially simultaneously and if this is the case, adding a delay to at least one duty cycle to prevent the simultaneous closure of actuator valves in different heating loops.
3D printer, which is configured to build up a three-dimensional component, for example a casting mold or a foundry core, in layers by forming layers of particulate construction material, for example containing sand particles, lying one upon the other and by selectively solidifying a partial region of the respective construction material layer, and which is configured to build up one or more first three-dimensional components in a first construction space which is arranged in the 3D printer, and simultaneously one or more second three-dimensional components in a second construction space which is arranged adjacent to the first construction space at a horizontal distance therefrom in the 3D printer, having a coating device arrangement which is displaceable across the first and the second construction space (B1, B2) in a first horizontal direction (H 1), to supply the first and the second construction space with construction material in the form of a respectively uniform construction material layer of the construction material to be solidified, wherein the first construction space and the second construction space have two long sides and two short sides in top view, and wherein the first and the second construction space (B1, B2) are arranged adjacent to each other along a respective short side, characterized in that the first horizontal direction (H 1) is perpendicular to the long sides and/or parallel to the short sides, and by a common printing device which is displaceable across the first and the second construction space (B1, B2) in a second horizontal direction (H 2), to selectively solidify a partial region of a previously applied construction material layer of the respective construction space by a controlled output of a flowable treatment agent, wherein the second horizontal direction (H 2) is perpendicular to the first horizontal direction (H 1) and/or perpendicular to the short sides and/or parallel to the long sides, wherein the common printing device comprises a common printing head having one or more printing nozzles, which is configured to serve both the first construction space and the second construction space, and wherein the coating device arrangement comprises a first coating device which is assigned to the first construction space and a second coating device separate therefrom, which is assigned to the second construction space.