mhurhangee/ep-ind-claims huggingface dataset:
A thermally stable ceramic body comprising an emissive layer, wherein said emissive layer comprises a compound represented by the formula (A 1-x-z Gd x D z) 3 B 5 O 12, wherein: D is a first dopant selected from the group consisting of Nd, Er, Eu, Mn, Cr, Yb, Sm, Tb, Ce, Pr, Dy, Ho, Lu and combinations thereof; A is selected from the group consisting of Y, Lu, Ca, La, Tb, and combinations thereof; B is selected from the group consisting of Al, Mg, Si, Ga, In, and combinations thereof; x is in the range of about 0.20 to about 0.80; z is in the range of about 0.001 to about 0.10; and wherein the first dopant in the emissive layer has a first dopant concentration gradient along a thickness of the emissive layer. D is a first dopant selected from the group consisting of Nd, Er, Eu, Mn, Cr, Yb, Sm, Tb, Ce, Pr, Dy, Ho, Lu and combinations thereof; A is selected from the group consisting of Y, Lu, Ca, La, Tb, and combinations thereof; B is selected from the group consisting of Al, Mg, Si, Ga, In, and combinations thereof; x is in the range of about 0.20 to about 0.80; z is in the range of about 0.001 to about 0.10; and wherein the first dopant in the emissive layer has a first dopant concentration gradient along a thickness of the emissive layer.
A dry powder inhaler device comprising a dry powder formulation comprising a pharmaceutically active agent in the form of composite active particles, wherein upon actuation of the device, a dosing-efficiency at 5μm of at least 70% is achieved, wherein the composite active particles are prepared using a method comprising jet milling active particles in the presence of particles of additive material, wherein the additive material is a metal stearate and wherein the formulation additionally comprises carrier particles that also have additive material applied to their surfaces optionally by simple gentle blending or co- milling.
Nutritional composition comprising a protein component, a digestible carbohydrate component and a lipid component, wherein said lipid component comprises 10 to 50 wt.% vegetable lipids based on dry weight of the nutritional composition and 1.0 to 20 wt.% phospholipids based on total lipid, and wherein said lipid component comprises lipid globules with a core comprising said vegetable lipids and a coating comprising said phospholipids, for use in - blunting the peak of post-prandial fat absorption and/or plasma triglyceride levels, - prolonging the post-prandial fat absorption and/or plasma triglyceride levels, and/or - spreading of post-prandial bioavailability of fat in an infant, by administration of said nutritional composition for at least one week, preferably at least two weeks at a daily dose of at least 80 ml to said infant. - blunting the peak of post-prandial fat absorption and/or plasma triglyceride levels, - prolonging the post-prandial fat absorption and/or plasma triglyceride levels, and/or - spreading of post-prandial bioavailability of fat in an infant, by administration of said nutritional composition for at least one week, preferably at least two weeks at a daily dose of at least 80 ml to said infant.
A marking machine for marking articles, this machine comprising: - a marking head including a support and at least one punch fitted with a flat pattern plate; and - a positioning system configured to position the article with respect to the punch; characterized in that the punch has rotational mobility (R11; R12; R11, R12) about an axis of rotation that is fixed with respect to the support. - a marking head including a support and at least one punch fitted with a flat pattern plate; and - a positioning system configured to position the article with respect to the punch;
A capacitive coupled RF vacuum etching apparatus constructed for etch operating under predetermined conditions and comprising: • a vacuum recipient -also addressed as enclosure- • in said vacuum recipient a plasma space in operational contact solely with one electrode arrangement consisting of a first electrode arrangement and of a second electrode arrangement (45, 19c,9) facing said first electrode arrangement; • said first electrode arrangement (29,31,50) defining a first electrode surface (31i, 50i) exposed to said plasma space; • said second electrode arrangement defining a second electrode surface (9i, 19i) exposed to said plasma space, and comprising the surface of a workpiece carrier; • The first electrode surface being larger than the second electrode surface; • Said first electrode arrangement being electrically connected to an output arrangement of a RF generator arrangement via a match box arrangement, generating a plasma supply RF signal; characterized in that said first electrode arrangement (29,31,50) comprises a metal body with a surrounding surface freely exposed to and immersed in said plasma space, said surrounding surface being a part of said first electrode surface. • a vacuum recipient -also addressed as enclosure- • in said vacuum recipient a plasma space in operational contact solely with one electrode arrangement consisting of a first electrode arrangement and of a second electrode arrangement (45, 19c,9) facing said first electrode arrangement; • said first electrode arrangement (29,31,50) defining a first electrode surface (31i, 50i) exposed to said plasma space; • said second electrode arrangement defining a second electrode surface (9i, 19i) exposed to said plasma space, and comprising the surface of a workpiece carrier; • The first electrode surface being larger than the second electrode surface; • Said first electrode arrangement being electrically connected to an output arrangement of a RF generator arrangement via a match box arrangement, generating a plasma supply RF signal;
An oil-in-water emulsion, containing a) at least one alkyl-substituted and/or alkoxy-substituted dibenzoylmethane derivative, b) at least one water-soluble UV filter selected from phenylbenzimidazole sulfonic acid and phenyl dibenzimidazole tetrasulfonic acid and the physiologically acceptable salts and/or esters thereof, c) at least one additional UV filter, selected from i) polysilicones-15 ii) s-triazine derivatives, iii) at least one inorganic UV-protection pigment, d) at least one primary, linear, saturated fatty alcohol having a chain length of from 20 to 40 carbon atoms, characterized in that the emulsion comprises lamellar liquid-crystal structures and is free of salicylic acid esters. a) at least one alkyl-substituted and/or alkoxy-substituted dibenzoylmethane derivative, b) at least one water-soluble UV filter selected from phenylbenzimidazole sulfonic acid and phenyl dibenzimidazole tetrasulfonic acid and the physiologically acceptable salts and/or esters thereof, c) at least one additional UV filter, selected from i) polysilicones-15 ii) s-triazine derivatives, iii) at least one inorganic UV-protection pigment, i) polysilicones-15 ii) s-triazine derivatives, iii) at least one inorganic UV-protection pigment, d) at least one primary, linear, saturated fatty alcohol having a chain length of from 20 to 40 carbon atoms,
A process for treating kernels of cereals and/or pulses, comprising the following steps: a) Steeping of the kernels while germination of the kernels is avoided and the kernels are un-milled and the kernels are, without water immersions, soaked in a volume of water that is from 0.8 to 10 times the weight of the kernels, the steeping is performed at a temperature of from 50 to 70°C during a period of from 8 to 72 hours and during the steeping pH is from 3.5 to 6.5, b) Optionally draining excess of water, c) Drying the steeped kernels at a temperature of from 50 to 120°C; wherein the process involves only one steeping step. a) Steeping of the kernels while germination of the kernels is avoided and the kernels are un-milled and the kernels are, without water immersions, soaked in a volume of water that is from 0.8 to 10 times the weight of the kernels, the steeping is performed at a temperature of from 50 to 70°C during a period of from 8 to 72 hours and during the steeping pH is from 3.5 to 6.5, b) Optionally draining excess of water, c) Drying the steeped kernels at a temperature of from 50 to 120°C;
Transmission arrangement for a motor vehicle having a transmission housing, a first pinion shaft and a second pinion shaft arranged coaxially to the first pinion shaft as well as with a first transmission output shaft and a second transmission output shaft, wherein the first pinion shaft is mounted by means of a first bearing and the second pinion shaft is mounted by means of a second bearing on the transmission housing and wherein on the first pinion shaft is arranged non-rotationally a first pinion meshing with a first crown gear arranged on the first transmission output shaft and on the second pinion shaft is arranged non-rotationally a second pinion meshing with a second crown gear arranged on the second transmission output shaft, characterised in that the first bearing or the second bearing is connected via a thermal expansion compensation element with the transmission housing and is displaced by the thermal expansion compensation element in axial direction with respect to a rotational axis of the pinion shafts (3, 4), and that the two pinion shafts (3, 4) are supported on one another by means of at least one axial bearing (18, 19), wherein the at least one axial bearing (18, 19) is spring-pre-loaded by means of a spring element which exerts a spring craft in axial direction which pushes the two pinions (5, 6) away from one another, such that the bearings (14, 15) are pre-loaded outwardly in axial direction.
A combine harvester comprising a cutting and feed device (1, 3) for crop material, a threshing device (4, 5, 6) for separating grain from the crop material, a sieve arrangement (10, 11) arranged in the longitudinal direction of the combine harvester, and a blower arrangement which is arranged upstream of the sieve arrangement (10, 11) transversely relative to the longitudinal direction of the combine harvester and comprising at least two blowers, wherein the blowers are actuable independently of each other, characterised in that the blowers are controllable in dependence on a layer thickness distribution of the flow of crop material.
A magnetic field sensor comprising: a first magnetic field sensing element comprising a magnetoresistance or giant-magnetoresistance element, configured to produce a first signal representing an external magnetic field by detecting the external magnetic field; a Hall element configured to produce a second signal representing the external magnetic field by detecting the external magnetic field; and an error compensation circuit, characterized in that the first signal comprises a first angle error resulting from spin-flop errors that are caused by the amplitude of the detected magnetic field, the Hall element is a circular vertical Hall element, and the magnetic field sensor further comprises a detecting circuit operable to identify an amplitude of the second signal and to generate a third signal indicative of the amplitude of the second signal, wherein the third signal is also indicative of an amplitude of the external magnetic field, wherein the error compensation circuit is configured to receive the first and third signals, and wherein the error compensation circuit is operable, based on the received third signal, to compensate for the first angle error to generate an output signal representing an angle of the external magnetic field. a first magnetic field sensing element comprising a magnetoresistance or giant-magnetoresistance element, configured to produce a first signal representing an external magnetic field by detecting the external magnetic field; a Hall element configured to produce a second signal representing the external magnetic field by detecting the external magnetic field; and an error compensation circuit, characterized in that the first signal comprises a first angle error resulting from spin-flop errors that are caused by the amplitude of the detected magnetic field, the Hall element is a circular vertical Hall element, and the magnetic field sensor further comprises a detecting circuit operable to identify an amplitude of the second signal and to generate a third signal indicative of the amplitude of the second signal, wherein the third signal is also indicative of an amplitude of the external magnetic field, wherein the error compensation circuit is configured to receive the first and third signals, and wherein the error compensation circuit is operable, based on the received third signal, to compensate for the first angle error to generate an output signal representing an angle of the external magnetic field.
A compound of formula I or a pharmaceutically acceptable salt thereof, wherein wherein R 1, R 2, R 3 and R 4 are independently H or C 1-6 alkyl, provided that when R 1, R 2, and R 3 are H, R 4 is C 1-6 alkyl, and when R 1, R 2, and R 4 are H, R 3 is C 1-6 alkyl, and when R 1, R 3, and R 4 are H, R 2 is C 1-6 alkyl, and when R 2, R 3, and R 4 are H, R 1 is C 1-6 alkyl; A is and B is R 1, R 2, R 3 and R 4 are independently H or C 1-6 alkyl, provided that when R 1, R 2, and R 3 are H, R 4 is C 1-6 alkyl, and when R 1, R 2, and R 4 are H, R 3 is C 1-6 alkyl, and when R 1, R 3, and R 4 are H, R 2 is C 1-6 alkyl, and when R 2, R 3, and R 4 are H, R 1 is C 1-6 alkyl; A is and B is
A method for producing a heat transfer element, in particular a solar thermal collector, comprising the steps: - providing a first film material comprising a first plastic film, - providing a second film material comprising a second plastic film, - joining the first film material to the second film material, forming at least one fluid line between the first and the second film material (10, 11), wherein the first plastic film and the second plastic film are partially joined to one another by material bonding and/or mechanically, in particular by sewing, in joining regions, so that at least one cavity, which forms the at least one fluid line, is formed between the joining regions, characterized in that a composite film is used as the first and/or as the second film material (10, 11), comprising the first or second plastic film (13, 16), a reinforcing layer connected thereto for improving the rigidity and strength, in particular at temperatures above room temperature up to the sealing temperature, and a metal film connected to the reinforcing layer or a metallized further plastic film connected to the reinforcing layer, wherein the metallization is arranged between the reinforcing layer and the further plastic film. - providing a first film material comprising a first plastic film, - providing a second film material comprising a second plastic film, - joining the first film material to the second film material, forming at least one fluid line between the first and the second film material (10, 11), wherein the first plastic film and the second plastic film are partially joined to one another by material bonding and/or mechanically, in particular by sewing, in joining regions, so that at least one cavity, which forms the at least one fluid line, is formed between the joining regions,
Apparatus comprising: a shaft mounted vertically in a support providing for axial rotation of the vertically mounted shaft; and a plurality of vertically oriented elongate turbine blades mounted upon the vertical shaft by radial arms, each turbine blade having a length between opposite free ends, and a length-wise warp which extends along at least a substantial part of the length of the turbine blade between the opposite free ends; wherein each turbine blade has a warp width between a leading edge and a trailing edge forming a turbine blade surface capable of creating a pressure differential in an air flow over the turbine blade surface; the apparatus further comprising a plurality of linear actuators, each actuator arranged between a turbine blade and the vertical shaft to provide controlled positioning of the turbine blades; and characterised in that the apparatus further comprises a system controller adapted to selectively control individual actuators to balance the turbine blades as they advance about the vertical shaft; and a control flap extends from the trailing edge of each turbine blade to assist wind capture during rotation of the turbine blades. a shaft mounted vertically in a support providing for axial rotation of the vertically mounted shaft; and a plurality of vertically oriented elongate turbine blades mounted upon the vertical shaft by radial arms, each turbine blade having a length between opposite free ends, and a length-wise warp which extends along at least a substantial part of the length of the turbine blade between the opposite free ends; wherein each turbine blade has a warp width between a leading edge and a trailing edge forming a turbine blade surface capable of creating a pressure differential in an air flow over the turbine blade surface; the apparatus further comprising a plurality of linear actuators, each actuator arranged between a turbine blade and the vertical shaft to provide controlled positioning of the turbine blades; and characterised in that the apparatus further comprises a system controller adapted to selectively control individual actuators to balance the turbine blades as they advance about the vertical shaft; and a control flap extends from the trailing edge of each turbine blade to assist wind capture during rotation of the turbine blades.
A method for operating a base station in a wireless radio network, wherein the base station comprises a plurality of antennas for transmitting information in a frame structure between the base station and a user equipment, and wherein the user equipment transmits training signals to the base station, the method comprising the steps: - receiving at each antenna of a subset of the plurality of antennas of the base station the same training signals sent by the user equipment, and - determining a corresponding antenna configuration parameter for each antenna of the subset of the plurality of antennas based on a combination of the training signals received in a plurality of different frames at the corresponding antenna for a subsequent transmission of payload information (22, 23) between the base station and the user equipment using the determined antenna configuration parameter for the corresponding antenna, characterized in that the step of determining a corresponding antenna configuration parameter comprises weighting the training signals received at the corresponding antenna in the plurality of different frames with individual weighting factors to determine the antenna configuration parameter based on a combination of the training signals weighted with the weighting factors, wherein the weighting factors are chosen such that a training signal of a most recently received frame is weighted higher than a training signal of a frame that is received earlier than the most recently received frame. - receiving at each antenna of a subset of the plurality of antennas of the base station the same training signals sent by the user equipment, and - determining a corresponding antenna configuration parameter for each antenna of the subset of the plurality of antennas based on a combination of the training signals received in a plurality of different frames at the corresponding antenna for a subsequent transmission of payload information (22, 23) between the base station and the user equipment using the determined antenna configuration parameter for the corresponding antenna,
An imaging device (200, 300) comprising: a wheeled base comprising a housing, a base extension, a vertical lift and an elongate track, the base extension extending between the housing and the vertical lift, and the elongate track extending from the housing to the vertical lift and being supported by the vertical lift and the housing as the elongate track is raised and lowered relative to the base extension by a lift mechanism between a maximum height and a minimum height; the lift mechanism, configured to selectively raise and lower the elongate track; a trolley (224, 304) comprising a base portion (228, 308) slidably connected to the elongate track and an upper portion (232, 316) rotatably connected to the base portion, the trolley (224, 304) slidable along the elongate track a distance of at least 40 cm; a C-shaped arm defining a semi-circle about a C-shaped arm axis, the C-shaped arm rotatably supported by the upper portion (232, 316) of the trolley (224, 304); a source fixedly secured to the C-shaped arm; and a detector fixedly secured to the C-shaped arm opposite the source. a wheeled base comprising a housing, a base extension, a vertical lift and an elongate track, the base extension extending between the housing and the vertical lift, and the elongate track extending from the housing to the vertical lift and being supported by the vertical lift and the housing as the elongate track is raised and lowered relative to the base extension by a lift mechanism between a maximum height and a minimum height; the lift mechanism, configured to selectively raise and lower the elongate track; a trolley (224, 304) comprising a base portion (228, 308) slidably connected to the elongate track and an upper portion (232, 316) rotatably connected to the base portion, the trolley (224, 304) slidable along the elongate track a distance of at least 40 cm; a C-shaped arm defining a semi-circle about a C-shaped arm axis, the C-shaped arm rotatably supported by the upper portion (232, 316) of the trolley (224, 304); a source fixedly secured to the C-shaped arm; and a detector fixedly secured to the C-shaped arm opposite the source.
A needleless valve system comprising: a cannula co-axial with a longitudinal axis of said needleless valve system, wherein said cannula comprises: a port disposed along a radius of said cannula; and a valve configured for sealing said port; wherein said valve comprises a protrusion; wherein: the cannula comprises a cannula tip; the valve comprises a valve tip, wherein said valve is disposed around said cannula, and a housing comprising a housing tip; the system being characterized in that: the housing tip has a flat surface, wherein, when said needleless valve system is in a sealed position, said cannula tip, said valve tip, and said housing tip are co-planar and form a flat surface; and said protrusion is configured for sealing said port by sitting within said port. a port disposed along a radius of said cannula; and a valve configured for sealing said port; wherein said valve comprises a protrusion; wherein: the cannula comprises a cannula tip; the valve comprises a valve tip, wherein said valve is disposed around said cannula, and a housing comprising a housing tip; the system being characterized in that: the housing tip has a flat surface, wherein, when said needleless valve system is in a sealed position, said cannula tip, said valve tip, and said housing tip are co-planar and form a flat surface; and said protrusion is configured for sealing said port by sitting within said port. the housing tip has a flat surface, wherein, when said needleless valve system is in a sealed position, said cannula tip, said valve tip, and said housing tip are co-planar and form a flat surface; and said protrusion is configured for sealing said port by sitting within said port.