mhurhangee/ep-ind-claims huggingface dataset:
A steering wheel assembly for an automotive vehicle, comprising a steering wheel skeleton, a back cover element for lining a skeleton back which, in the assembled state of the steering wheel assembly, faces an instrument panel of the automotive vehicle, and a front panel for lining a skeleton front which, in the assembled state of the steering wheel assembly, faces away from the instrument panel of the automotive vehicle, the back cover element and the front panel abutting on each other and being connected to each other, wherein a compressed elastic biasing element which forces the back cover element and the front panel away from each other is arranged between the back cover element and the front panel so that the cover element and the panel form a biased connection, characterized in that the elastic biasing element is integrated as an elastic biasing portion in the back cover element and/or in the front panel. a steering wheel skeleton, a back cover element for lining a skeleton back which, in the assembled state of the steering wheel assembly, faces an instrument panel of the automotive vehicle, and a front panel for lining a skeleton front which, in the assembled state of the steering wheel assembly, faces away from the instrument panel of the automotive vehicle, the back cover element and the front panel abutting on each other and being connected to each other, wherein a compressed elastic biasing element which forces the back cover element and the front panel away from each other is arranged between the back cover element and the front panel so that the cover element and the panel form a biased connection, characterized in that the elastic biasing element is integrated as an elastic biasing portion in the back cover element and/or in the front panel.
A wind turbine blade, comprising: a blade body; a down conductor (24, 26) extending along a longitudinal direction of the blade body; and at least a pair of magnetic field sensors (30, 30A to 30H) disposed inside the blade body and at opposite positions across the down conductor (24, 26), a pair of magnetic field sensors (30, 30A to 30H) being configured to detect a local magnetic field at each of the positions, wherein at least the pair of magnetic field sensors (30, 30A to 30H) includes: a pair of first sensors (30C, 30D) which are disposed at opposite positions across the down conductor (24, 26) and on a first axis passing through an installation position of the down conductor (24, 26) in a cross section intersecting the longitudinal direction; and a pair of second sensors (30A, 30B) which are disposed at opposite positions across the down conductor (24, 26) and on a second axis passing through the installation position and is orthogonal to the first axis in the cross section. a blade body; a down conductor (24, 26) extending along a longitudinal direction of the blade body; and at least a pair of magnetic field sensors (30, 30A to 30H) disposed inside the blade body and at opposite positions across the down conductor (24, 26), a pair of magnetic field sensors (30, 30A to 30H) being configured to detect a local magnetic field at each of the positions, wherein at least the pair of magnetic field sensors (30, 30A to 30H) includes: a pair of first sensors (30C, 30D) which are disposed at opposite positions across the down conductor (24, 26) and on a first axis passing through an installation position of the down conductor (24, 26) in a cross section intersecting the longitudinal direction; and a pair of second sensors (30A, 30B) which are disposed at opposite positions across the down conductor (24, 26) and on a second axis passing through the installation position and is orthogonal to the first axis in the cross section. a pair of first sensors (30C, 30D) which are disposed at opposite positions across the down conductor (24, 26) and on a first axis passing through an installation position of the down conductor (24, 26) in a cross section intersecting the longitudinal direction; and a pair of second sensors (30A, 30B) which are disposed at opposite positions across the down conductor (24, 26) and on a second axis passing through the installation position and is orthogonal to the first axis in the cross section.
Device for cutting products in the form of sheets, plates, panels, bands or the like, in particular plates or panels made from foamed, woody or fibrous material, said device comprising on the one hand a base body providing a support surface for the product to be cut, on the other hand a guiding body which comes into movable engagement with the base body and extends above the product to be cut and lastly a cutting element comprising a blade and a manipulation handle, said product to be cut being arranged between the guiding body and the base body which together form a cutting bench and said cutting element being guided in a sliding manner by the base body and guiding body during a cutting operation of a product, the device being characterised in that the guiding body has an overall U shape on the one hand with a central elongated part designed to bear on a product to be cut resting itself on the support surface and on the other hand two opposite end strips designed to come into sliding engagement with corresponding sites (3") of the base body, so as hold products of different thicknesses in a sandwich-like manner by pinching between the base body and guiding body, the central part of the guiding body and the main part of the base body providing the support surface comprise slots (9 and 9') that are mutually aligned and coincide in the assembled state of two bodies (3 and 4), and the blade of the cutting element is sufficiently long to slide in a traversing manner into the two slots (9 and 9') during a cutting operation of a product.
A system for carbonaceous substance powder gasification, comprising: a) a carbonaceous substance reaction device comprising a gasification reaction section, an upper gas outlet, and a bottom gas outlet, b) a gas return device adapted for mixing i) crude synthesis gas which descends from said reaction section, is cooled and preliminarily purified, flows out from the bottom gas outlet and is increased in pressure, with ii) high temperature crude synthesis gas which ascends from the gasification reaction section through an upper outlet of the gasification reaction section, and c) a cooling reaction section, which is set on the upper-middle part of the device, and its inlet is connected with the upper outlet of the gasification reaction section, wherein the inlet of the cooling reaction section includes a primary cooling device disposed at the inlet of the cooling reaction section and the upper outlet of the gasification reaction section, so that low-temperature moist crude synthesis gas, the pressure of which has been raised by one or more aerostatic press machines of the gas return device, can be sprayed into and mixed with the ascending high temperature crude synthesis gas. a) a carbonaceous substance reaction device comprising a gasification reaction section, an upper gas outlet, and a bottom gas outlet, b) a gas return device adapted for mixing i) crude synthesis gas which descends from said reaction section, is cooled and preliminarily purified, flows out from the bottom gas outlet and is increased in pressure, with ii) high temperature crude synthesis gas which ascends from the gasification reaction section through an upper outlet of the gasification reaction section, and c) a cooling reaction section, which is set on the upper-middle part of the device, and its inlet is connected with the upper outlet of the gasification reaction section, wherein the inlet of the cooling reaction section includes a primary cooling device disposed at the inlet of the cooling reaction section and the upper outlet of the gasification reaction section, so that low-temperature moist crude synthesis gas, the pressure of which has been raised by one or more aerostatic press machines of the gas return device, can be sprayed into and mixed with the ascending high temperature crude synthesis gas.
A robotic machining tool comprising a power transmission mechanism having a power transmission roller and a power transmission shaft, a circular machining belt, a tightening mechanism and a contact mechanism for tool contact with an object to be machined and having a contact roller and a contact roller shaft; whereby the circular machining belt is looped between the contact roller and the power transmission roller for causing the circular machining belt to move between the contact roller and the power transmission roller in response to the rotation of the power transmission mechanism for machining the object, characterised in that the power transmission mechanism of the machining tool is configured to have a mechanical connection through a connection part with a rotational power source; the contact mechanism and the power transmission mechanism have a desired distance therebetween such that the contact roller of the contact mechanism and the power transmission roller of the power transmission mechanism have a contact arm of a desired length therebetween, a length of the contact arm needing no change for tightening; and the tightening mechanism comprises at least one spring structure and at least one spring roller for pressing sections of the circular machining belt between the contact mechanism and power transmission mechanism towards each other for tensioning the machining belt.
A method for controlling the torque of an asynchronous machine, characterized in that a stator flux step ( δψ S ( n +1)), that is to be applied during the next scanning step (n+1) in order to achieve a setpoint torque, as well as a rotor flux ψ R ( n +1) and stator flux ( ψ S ( n +1)) for the next scanning step (n+1) are calculated in stator-fixed coordinates (α, β) on the basis of a flux leakage vector ( Δψ _( n +1)) that is to be applied during the next scanning step (n+1), a measured mechanical angular frequency (ω m) and a current rotor flux ( ψ R ( n)) and stator flux ( ψ S ( n)).
A compound of formula namely, 5-(4-cyclopropyl-1H-imidazol-1-yl)-N-(6-(4-isopropyl-4H-1,2,4-triazol-3-yl)pyridin-2-yl)-2-fluoro-4-methylbenzamide, or a pharmaceutically acceptable salt thereof
Assembly of clips for fixing tubes or cables to a carrying structure, the clips being juxtaposed and connected together, each clip having a U-shape comprising two generally parallel legs (22, 24), each clip having a front face and an opposing rear face which are to come into contact with the faces (AV, AR) of each adjacent clip, characterised in that each leg (22, 24) of each clip comprises at least one cooperation pin having at least one projecting portion (212, 214) which projects at least partially (d1, d2) from the front face and/or from the rear face of the clip, in that each clip comprises at least one free space (E1, E2) situated in the region of the front face and/or of the rear face of the clip so that, when the faces (AV, AR) of a first clip of the assembly are in contact with the faces (AV, AR) of two adjacent clips, each projecting portion (212, 214) of the first clip is housed at least partially in one of the free spaces (E1, E2) formed in one of the adjacent clips, and in that each projecting portion (212, 214) comprises at least one contact zone (12, 14, 16) so that, when the faces (AV, AR) of a first clip of the assembly are in contact with the faces (AV, AR) of two adjacent clips, the contact zone (12, 14, 16) of the first clip is in contact with a support zone (12, 14, 202) of one of the adjacent clips.
Use of Factor VIIa, or a Factor VIIa polypeptide that exhibits at least 70% of the specific biological activity of FVIIa, for the manufacture of a medicament for preventing or attenuating multiple organ failure or acute respiratory distress syndrome (ARDS) in trauma patients that have received transfusions of less than 10 units of packed red blood cells (PRBC), and wherein said transfusions are made between the time of patient's traumatic injury and the time of administration of Factor VIIa or Factor VIIa equivalent.
A flowable or spoonable medicament, food, food ingredient or food supplement comprising (a) one or more mono-, and/or disaccharides and (b) a methylcellulose, wherein the methylcellulose has anhydroglucose units joined by 1-4 linkages wherein hydroxy groups of anhydroglucose units are substituted with methyl groups such that s23/s26 is from 0.17 to 0.36, wherein s23 is the molar fraction of anhydroglucose units wherein only the two hydroxy groups in the 2- and 3-positions of the anhydroglucose unit are substituted with methyl groups and wherein s26 is the molar fraction of anhydroglucose units wherein only the two hydroxy groups in the 2- and 6-positions of the anhydroglucose unit are substituted with methyl groups, wherein the methylcellulose has a viscosity of from 200 to 10000 mPa•s, measured as 2 wt.% aqueous solution at 5 °C at a shear rate of 10 s -1 and wherein the weight ratio of (a) the total of one or more mono- and/or disaccharides and (b) the methylcellulose is from 2.0: 1.0 to 20: 1.0.
A method for producing a synthetic polyisoprene latex, comprising: a step of mixing a latex of synthetic polyisoprene synthesized by use of a Ziegler type catalyst and a latex of synthetic polyisoprene synthesized by use of an organic alkali metal catalyst at a weight ratio of "synthetic polyisoprene: synthetic polyisoprene = 10:90 to 90:10".
Device for supporting the vaginal wall comprising a bell-shaped body provided with a reinforcement ring placed at the open end of the bell-shaped body, the bell-shaped body being constrained to gripping means placed at the closed end of the bell-shaped body, said device being characterized in that, at the closed end, the bell-shaped body comprises a plurality of outflow through holes for vaginal secretions obtained in the thickness of the bell-shaped body.
A light fixture (2,102) comprising: • at least one light source (16,110); • a power unit (22,124) connected to said light source, said power unit (22,124) comprises an electronic ballast; • at least one thermo switch (8, 132, 134, 136) adapted to supervising said light source, said thermo switch protecting said light source (16,110) at increasing temperature by disconnecting said power unit (22,124) from said light source (16,110); characterized in that said light fixture comprises a low voltage safety loop (4,130) comprising: • said at least one thermo switch (8,132,134,136); • a current source (6,138) connected to said safety loop and generating a current in said safety loop (4, 130); • a current measuring device (10,2,140,142) adapted to supervising said safety loop; said current measuring device is further connected to said power unit (22,124) such that said power unit (22, 124) is disconnected from said light source (16,110) if the current in said safety loop (4, 130) is interrupted. • at least one light source (16,110); • a power unit (22,124) connected to said light source, said power unit (22,124) comprises an electronic ballast; • at least one thermo switch (8, 132, 134, 136) adapted to supervising said light source, said thermo switch protecting said light source (16,110) at increasing temperature by disconnecting said power unit (22,124) from said light source (16,110); • said at least one thermo switch (8,132,134,136); • a current source (6,138) connected to said safety loop and generating a current in said safety loop (4, 130); • a current measuring device (10,2,140,142) adapted to supervising said safety loop; said current measuring device is further connected to said power unit (22,124) such that said power unit (22, 124) is disconnected from said light source (16,110) if the current in said safety loop (4, 130) is interrupted.
A transgenic fungus useful in fermentation of at least one product, comprising at least one gene encoding a malonyl-CoA synthetase under control of at least one regulatory sequence and genes encoding a functional polyunsaturated fatty acid biosynthetic pathway wherein the malonyl-CoA synthetase has an amino acid sequence as set forth in SEQ ID NO:2 or an amino acid sequence that is at least 95% identical thereto; wherein the transgenic fungus produces a reduced amount of malonates as a fermentation byproduct compared with the amount of malonates produced by the same fungus, whether transgenic or not transgenic, provided that the fungus: a) does not comprise a gene encoding malonyl-CoA synthetase; or, b) comprises a gene encoding malonyl-CoA synthetase that is not expressed, and wherein the transgenic fungus further comprises at least one genetic mutation, wherein the at least one genetic mutation is a disruption in at least one native peroxisome biogenesis factor protein. a) does not comprise a gene encoding malonyl-CoA synthetase; or, b) comprises a gene encoding malonyl-CoA synthetase that is not expressed,
A method for processing large files in a telecommunication network comprising: segmenting a data file into K source packets (15, 17, 19) of equal length; obtaining a subset of source packets B i by obtaining a degree d i and randomly selecting d i source packets forming the subset of source packets B i; generating a plurality of batches X i (21, 23, 25) of coded packets from the source packets, each one of the plurality of batches X i (21, 23, 25) comprising a set of M coded packets, wherein the set of M coded packets is generated using M possible different linear combinations of the same subset of source packets B i according to X i = B i G i, wherein G i is a generator matrix of the ith batch X i. segmenting a data file into K source packets (15, 17, 19) of equal length; obtaining a subset of source packets B i by obtaining a degree d i and randomly selecting d i source packets forming the subset of source packets B i; generating a plurality of batches X i (21, 23, 25) of coded packets from the source packets, each one of the plurality of batches X i (21, 23, 25) comprising a set of M coded packets, wherein the set of M coded packets is generated using M possible different linear combinations of the same subset of source packets B i according to X i = B i G i, wherein G i is a generator matrix of the ith batch X i.
A network service management method, comprising: receiving, by a second network functions virtualization orchestrator NFVO, a first request sent by a first NFVO, wherein the first request is used to request to create a nested network service instance in a composite network service instance and carries information about a service access point instance associated with the nested network service instance; and establishing, by the second NFVO, a connection between the nested network service instance and the composite network service instance based on the service access point instance and the information about the service access point instance and a connection between the nested network service instance and a member instance in the composite network service instance based on the service access point instance and the information about the service access point instance, and establishing a network connection between the nested network service instance and a member instance in the nested network service instance based on the service access point instance and the information about the service access point instance. receiving, by a second network functions virtualization orchestrator NFVO, a first request sent by a first NFVO, wherein the first request is used to request to create a nested network service instance in a composite network service instance and carries information about a service access point instance associated with the nested network service instance; and establishing, by the second NFVO, a connection between the nested network service instance and the composite network service instance based on the service access point instance and the information about the service access point instance and a connection between the nested network service instance and a member instance in the composite network service instance based on the service access point instance and the information about the service access point instance, and establishing a network connection between the nested network service instance and a member instance in the nested network service instance based on the service access point instance and the information about the service access point instance.
An assay device comprising a lid and a base, said base comprising, a sample addition zone, a reaction zone and an absorbing zone, said components being in fluid connection and being part of a fluid passage leading from the sample addition zone to the absorbing zone, wherein: a. a sample addition well is integrated in the lid, b. the fluid passage is formed by substantially perpendicular projections, c. the absorbing zone consists of an area on an non-porous substrate, having substantially perpendicular projections, said projections defining a volume, which together with the volume of the fluid passage defines the sample volume subjected to the assay, d. the sample addition zone comprises projections substantially vertical to said base, e. at least one filter is between the sample addition well and the sample addition zone, wherein said filter is a hydrophilic polymeric membrane capable of separating red blood cells from plasma, and wherein said filter is in contact with substantially perpendicular projections in the sample addition zone, f. the projections have a height, diameter and distance (t1, t2) between the projections such that lateral capillary flow of said fluid in the absorbing zone is achieved, and g. in the area of the absorbing zone having substantially perpendicular projections a foil is arranged on the projections accurately defining a volume between the projections limited on one side by the substrate surface and on the other side by said foil. a. a sample addition well is integrated in the lid, b. the fluid passage is formed by substantially perpendicular projections, c. the absorbing zone consists of an area on an non-porous substrate, having substantially perpendicular projections, said projections defining a volume, which together with the volume of the fluid passage defines the sample volume subjected to the assay, d. the sample addition zone comprises projections substantially vertical to said base, e. at least one filter is between the sample addition well and the sample addition zone, wherein said filter is a hydrophilic polymeric membrane capable of separating red blood cells from plasma, and wherein said filter is in contact with substantially perpendicular projections in the sample addition zone, f. the projections have a height, diameter and distance (t1, t2) between the projections such that lateral capillary flow of said fluid in the absorbing zone is achieved, and g. in the area of the absorbing zone having substantially perpendicular projections a foil is arranged on the projections accurately defining a volume between the projections limited on one side by the substrate surface and on the other side by said foil.
A dispensing device for a multi component cartridge including a housing in which a reception element for receiving a cartridge end of the multicomponent cartridge is arranged, wherein the cartridge end is located at the inlet side of a first and second storage container filled with a filling mass and respectively sealed in a fluid tight manner at the cartridge end by a respective piston, wherein a plunger arrangement and a drive arrangement for moving the plunger arrangement are arranged in the housing, wherein a movement of the plunger arrangement in a dispensing direction can be carried out by the drive arrangement for dispensing the filling mass from the storage containers of the multicomponent cartridge, wherein the reception element has an axis of rotation which is substantially arranged in parallel to the dispensing direction, characterized in that the cartridge end pushed into the reception element can be transferred from an assembly position into a dispensing position by a rotation about the axis of rotation.