mhurhangee/ep-ind-claims huggingface dataset:
Profiled component of a fibre composite material for a vehicle, wherein the profiled component is in the form of a leaf spring, which comprises a main body (12a, 12b, 12c, 12d, 12e, 19a, 19b, 19c, 19d, 19e) that is produced by a pultrusion process and has a curved shape in the longitudinal direction (x) and a constant cross-sectional geometry in the vertical direction (z) and transverse direction (y), characterized in that the main body (12a, 12b, 12c, 12d, 12e, 19a, 19b, 19c, 19d, 19e) has a varying cross-sectional shape in the vertical direction (z) and in the transverse direction (y) on which at least one functional element (22, 26a, 26b, 26c) is disposed in penetration-free fashion by means of an integral bond and/or form fitting connection, wherein the at least one functional element (22, 26a, 26b, 26c) is disposed on the main body (12a, 12b, 12c, 12d, 12e, 19a, 19b, 19c, 19d, 19e) so as to bear against one of its side surfaces that is formed by the cross-sectional shape.
A QD material, comprising: at least two QD structural units arranged sequentially along a radial direction of the QD material including two types of QD structural units, wherein: each QD structural unit has a gradient alloy composition structure with a changing energy level width of the energy level difference between the valence band and the conduction band along the radial direction; characterized in that one type of QD structural unit has the gradient alloy composition structure with an energy level width increasing along the radial direction from a center to a surface of the QD material; another type of QD structural unit has the gradient alloy composition structure with an energy level width decreasing along the radial direction from the center to the surface of the QD material; and the two types of QD structural units are arranged alternately along the radial direction, and along the radial direction, energy levels of adjacent gradient alloy composition structures of the QD structural units are continuous. each QD structural unit has a gradient alloy composition structure with a changing energy level width of the energy level difference between the valence band and the conduction band along the radial direction; characterized in that one type of QD structural unit has the gradient alloy composition structure with an energy level width increasing along the radial direction from a center to a surface of the QD material; another type of QD structural unit has the gradient alloy composition structure with an energy level width decreasing along the radial direction from the center to the surface of the QD material; and the two types of QD structural units are arranged alternately along the radial direction, and along the radial direction, energy levels of adjacent gradient alloy composition structures of the QD structural units are continuous.
A method of maintaining an affective state in a subject comprising: - measuring one or more physiological parameters of the subject, - calculating, using the measured parameter(s), a value representing a relaxation state of the subject, - determining if the calculated value is below a lower threshold or above an upper threshold, wherein the lower threshold represents the lower limit that the subject is allowed to reach and at which the subject becomes too relaxed and wherein the upper threshold represents the maximum alertness that the subject is permitted and at which the subject becomes too aroused, and - generating an output to the subject for controlling the relaxation state by breathing guidance, comprising generating a first output for initiating to reduce relaxation if the calculated value is determined to be below the lower threshold and generating a second output for initiating to increase relaxation if the calculated value is determined to be above the upper threshold, the second output being different from the first output. - measuring one or more physiological parameters of the subject, - calculating, using the measured parameter(s), a value representing a relaxation state of the subject, - determining if the calculated value is below a lower threshold or above an upper threshold, wherein the lower threshold represents the lower limit that the subject is allowed to reach and at which the subject becomes too relaxed and wherein the upper threshold represents the maximum alertness that the subject is permitted and at which the subject becomes too aroused, and - generating an output to the subject for controlling the relaxation state by breathing guidance, comprising generating a first output for initiating to reduce relaxation if the calculated value is determined to be below the lower threshold and generating a second output for initiating to increase relaxation if the calculated value is determined to be above the upper threshold, the second output being different from the first output.
A computer-implemented method comprising: receiving a plurality of images captured by at least one user device, wherein each image is associated with one of a corresponding plurality of geographic locations; determining a path between the plurality of geographic locations; determining a confidence indicator representative of whether the determined path corresponds to a demarked path, wherein determining the confidence indicator comprises determining a time of capture of each of the plurality of images; identifying the path as corresponding to a demarked path, based on the confidence indicator; and marking the plurality of images for display as a demarked path. receiving a plurality of images captured by at least one user device, wherein each image is associated with one of a corresponding plurality of geographic locations; determining a path between the plurality of geographic locations; determining a confidence indicator representative of whether the determined path corresponds to a demarked path, wherein determining the confidence indicator comprises determining a time of capture of each of the plurality of images; identifying the path as corresponding to a demarked path, based on the confidence indicator; and marking the plurality of images for display as a demarked path.
Connecting device for fixing and/or connecting components (102, 104) or objects, wherein at least one connecting element of the connecting device is fixable in or to a component (102, 104) and comprises the following: a main body and one or more securing elements, wherein the one or the plurality of securing elements are formed in one piece with the main body in an initial position of the connecting device, wherein the one or the plurality of securing elements are detachable from the main body by destroying a predetermined break-away region between the main body and the one or the plurality of securing elements and wherein the one or the plurality of securing elements are moveable from the initial position into a securing position for the purposes of fixing the main body in or to the component (102, 104), characterized in that the one or the plurality of securing elements project out of one or more through openings of the main body in mutually different directions in the initial position on the one hand and in the securing position on the other. a main body and one or more securing elements, wherein the one or the plurality of securing elements are formed in one piece with the main body in an initial position of the connecting device, wherein the one or the plurality of securing elements are detachable from the main body by destroying a predetermined break-away region between the main body and the one or the plurality of securing elements and wherein the one or the plurality of securing elements are moveable from the initial position into a securing position for the purposes of fixing the main body in or to the component (102, 104),
A wind turbine generator comprising: ice detecting means for detecting an amount of icing on a wind turbine blade, characterized in that in a case where an icing amount (Wi) detected by the ice detecting means exceeds a first predetermined value, an operation mode is switched to a no-load operation mode with no power being generated, and an icing amount is detected by the ice detecting means in a state where the wind turbine generator is operated in the no-load operation mode, wherein, in a case where an icing amount (Wi) exceeding a second predetermined value which is larger than the first predetermined value is detected by the ice detecting means in the state where the wind turbine generator is operated in the no-load operation mode, an operation is stopped. ice detecting means for detecting an amount of icing on a wind turbine blade, characterized in that in a case where an icing amount (Wi) detected by the ice detecting means exceeds a first predetermined value, an operation mode is switched to a no-load operation mode with no power being generated, and an icing amount is detected by the ice detecting means in a state where the wind turbine generator is operated in the no-load operation mode, wherein, in a case where an icing amount (Wi) exceeding a second predetermined value which is larger than the first predetermined value is detected by the ice detecting means in the state where the wind turbine generator is operated in the no-load operation mode, an operation is stopped.
An aqueous dispersion of microcapsules wherein the microcapsules comprise: at least one hydrophobic substance; and a. an interface layer around the at least one hydrophobic substance wherein the interface layer comprises: i. protein aggregates obtained by heat treating a protein solution; and ii. a negatively charged polymer having blockwise charge distribution, wherein the protein aggregates comprise denatured globular protein that is at least 50 wt.% denatured. at least one hydrophobic substance; and a. an interface layer around the at least one hydrophobic substance wherein the interface layer comprises: i. protein aggregates obtained by heat treating a protein solution; and a. an interface layer around the at least one hydrophobic substance wherein the interface layer comprises: i. protein aggregates obtained by heat treating a protein solution; and i. protein aggregates obtained by heat treating a protein solution; and ii. a negatively charged polymer having blockwise charge distribution,
An exciter system for use with an aircraft engine, comprising: a low-energy charging circuit having an input and an output, said charging circuit being operable to utilize operating power received on said input to supply a high voltage, low current charging signal on said output; and a high-energy discharge circuit including at least an input, an igniter, and a number of electrical components, said discharge circuit input being connected to said charging circuit output to receive said charging signal, said electrical components including an energy storage device for storing electrical energy received from said charging signal in an amount sufficient to create a spark across the igniter, and a switching device for supplying said stored energy to said igniter, the exciter system being partitioned such that the low energy charging circuit and the high energy discharge circuit are remote from one another such that the charging circuit is not subject to all of the same temperature, electromagnetic, and/or other environmental conditions as the discharge circuit, the exciter system being characterized in that the charging circuit output is connected to the discharge circuit input by a low-energy electrical cable and in that the exciter system comprises a housing containing all the components of discharge circuit except the igniter, the housing being connected to said low-energy electrical cable and having at least one opening through which said discharge circuit is connected to said igniter. a low-energy charging circuit having an input and an output, said charging circuit being operable to utilize operating power received on said input to supply a high voltage, low current charging signal on said output; and a high-energy discharge circuit including at least an input, an igniter, and a number of electrical components, said discharge circuit input being connected to said charging circuit output to receive said charging signal, said electrical components including an energy storage device for storing electrical energy received from said charging signal in an amount sufficient to create a spark across the igniter, and a switching device for supplying said stored energy to said igniter, the exciter system being partitioned such that the low energy charging circuit and the high energy discharge circuit are remote from one another such that the charging circuit is not subject to all of the same temperature, electromagnetic, and/or other environmental conditions as the discharge circuit, the exciter system being characterized in that the charging circuit output is connected to the discharge circuit input by a low-energy electrical cable and in that the exciter system comprises a housing containing all the components of discharge circuit except the igniter, the housing being connected to said low-energy electrical cable and having at least one opening through which said discharge circuit is connected to said igniter.
Dental material, which comprises at least one compound of formula I, in which R 1 is an m-valent, linear, branched or cyclic aliphatic C 1 -C 30 hydrocarbon radical or an aromatic C 6 -C 30 hydrocarbon radical, wherein the aliphatic or aromatic hydrocarbon radical can be substituted or unsubstituted and wherein aliphatic hydrocarbon radicals can be interrupted by one or more urethane groups, ester groups, oxygen atoms and/or sulfur atoms, X,Y,Z independently of each other in each case are -COOR 2, -CON(R 3 R 4), an aromatic C 6 -C 10 hydrocarbon radical or -CN, wherein R 2,R 3,R 4 in each case independently of each other are hydrogen, a linear, branched or cyclic aliphatic C 1 -C 30 hydrocarbon radical or an aromatic C 6 -C 30 hydrocarbon radical, wherein the aliphatic or aromatic hydrocarbon radical can be substituted or unsubstituted and wherein aliphatic hydrocarbon radicals can be interrupted by one or more oxygen atoms, and m is 2 or 3. R 1 is an m-valent, linear, branched or cyclic aliphatic C 1 -C 30 hydrocarbon radical or an aromatic C 6 -C 30 hydrocarbon radical, wherein the aliphatic or aromatic hydrocarbon radical can be substituted or unsubstituted and wherein aliphatic hydrocarbon radicals can be interrupted by one or more urethane groups, ester groups, oxygen atoms and/or sulfur atoms, X,Y,Z independently of each other in each case are -COOR 2, -CON(R 3 R 4), an aromatic C 6 -C 10 hydrocarbon radical or -CN, wherein R 2,R 3,R 4 in each case independently of each other are hydrogen, a linear, branched or cyclic aliphatic C 1 -C 30 hydrocarbon radical or an aromatic C 6 -C 30 hydrocarbon radical, wherein the aliphatic or aromatic hydrocarbon radical can be substituted or unsubstituted and wherein aliphatic hydrocarbon radicals can be interrupted by one or more oxygen atoms, and m is 2 or 3.
A support element having an upper belt, a lower belt and an intermediate element connecting the upper belt to the lower belt, wherein the intermediate element is formed by a metal sheet having elevations and depressions, in particular a trapezoidal metal sheet, wherein the intermediate element rests at least in certain areas against the upper belt and lower belt and the metal sheet is connected to the upper belt and lower belt by screws, wherein screw heads of the screws are arranged on the outside of the upper belt or lower belt and the screws are screwed into press nuts attached to the intermediate element, wherein the upper belt and/or the lower belt are formed by hollow profiles, in particular square profiles, preferably square tubes, which have lug openings in which lugs of the intermediate element are positioned, wherein, at least in certain areas, the intermediate element rests between the lugs, which are positioned in the upper belt or in the lower belt, against an outer side of the upper belt or of the lower belt.
A computer-implemented method for at least partially replicating a primary application cache in a secondary application cache, the computer-implemented method being performed by one or more processors executing computer executable instructions for the computer-implemented method, and the computer-implemented method comprising: identifying at least some cache portion identifiers (411, 412, 413) for cache portions (401, 402, 403) that are within a primary application cache of a primary application operating at a first network node, wherein each of the at least some cache portion identifiers is associated with one cache portion of the cache portions; transferring (312, 321) the identified cache portion identifiers (411, 412, 413) to a secondary application cache of a secondary application operating at a second network node; and retrieving from a storage node into the secondary application cache at least one of the cache portions (401, 402, 403) identified by the transferred cache portion identifiers (411, 412, 413), characterized in that: an average frequency of transferring (312, 321) the identified cache portion identifiers (411, 412, 413) is greater than an average frequency of retrieving into the secondary application cache at least one of the cache portions (401, 402, 403) by at least twice. identifying at least some cache portion identifiers (411, 412, 413) for cache portions (401, 402, 403) that are within a primary application cache of a primary application operating at a first network node, wherein each of the at least some cache portion identifiers is associated with one cache portion of the cache portions; transferring (312, 321) the identified cache portion identifiers (411, 412, 413) to a secondary application cache of a secondary application operating at a second network node; and retrieving from a storage node into the secondary application cache at least one of the cache portions (401, 402, 403) identified by the transferred cache portion identifiers (411, 412, 413),
A device for vaporizing organic materials onto a surface of a substrate, to form a film, comprising: (a) means for providing organic material in a fluidized powdered form; (b) a permeable first member; (c) means for metering the fluidized powdered organic material and directing a stream of such fluidized powder through a nozzle onto the permeable first member; (d) means for heating the permeable first member so that as the stream of fluidized powder passes through it vaporizes; (e) a manifold in communication with the vaporized material exiting the permeable first member, wherein said manifold collects the vaporized organic material; and (f) a second member formed with a plurality of apertures which is part of or attached to the manifold that permits the vaporized organic material to be directed through the apertures from the manifold onto the surface of a substrate (85/120) to form a film; and wherein said nozzle projects into said manifold and the device is configured to heat the nozzle to maintain its outer surface at a temperature above the condensation temperature of the vapor, while the interior of the nozzle is maintained at a temperature below the vaporization or melting point of the powdered organic material. (a) means for providing organic material in a fluidized powdered form; (b) a permeable first member; (c) means for metering the fluidized powdered organic material and directing a stream of such fluidized powder through a nozzle onto the permeable first member; (d) means for heating the permeable first member so that as the stream of fluidized powder passes through it vaporizes; (e) a manifold in communication with the vaporized material exiting the permeable first member, wherein said manifold collects the vaporized organic material; and (f) a second member formed with a plurality of apertures which is part of or attached to the manifold that permits the vaporized organic material to be directed through the apertures from the manifold onto the surface of a substrate (85/120) to form a film; and
Belt module for use in a conveyor installation, wherein the belt module has a support, which extends in a longitudinal direction and on two opposite longitudinal end sides (31; 32) of which is arranged a respective deflecting subassembly with a deflecting wheel, wherein an endless conveyor belt is provided and wraps around the two deflecting wheels, as a result of which a forward belt portion and a return belt portion are defined, wherein the forward belt portion is supported on the outside of the support, wherein at least one deflecting subassembly has a main body with a bearing holder, wherein the deflecting wheel surrounds the bearing holder, and wherein it is supported on the bearing holder such that it can be rotated in relation to an axis of rotation, characterized in that the main body has at least one stub (61; 62), which extends in the longitudinal direction and engages in the support, wherein the at least one stub (61; 62) and the bearing holder are formed in one piece with a side panel of the main body.
Cooling device for a vehicle battery, having a cooling plate comprising a first plate part for facing towards the battery and has a first wall thickness (d 1), comprising a second plate part which has a second wall thickness (d 2), and comprising a multiplicity of depressions formed in the second plate part, wherein the cooling plate has a multiplicity of refrigerant ducts with a first duct cross section, said refrigerant ducts being formed between the first and second plate parts (24, 30) in the depressions of the second plate part, wherein the cooling plate has a distributor portion and a collector portion which each have at least one connection (46, 48) for a refrigerant feed line and a refrigerant return line, and wherein the wall of the distributor portion and/or of the collector portion is formed at least in portions by a component additional to the first and second plate parts (24, 30), wherein the distributor portion and/or the collector portion are arranged together with the second plate part on one side of the first plate part wherein the connections and are situated on the same side of the cooling plate and closely adjacent to one another, the collector portion is formed as a common depression corresponding to the distributor portion wherein the distributor portion and/or the collector portion are formed at least in portions by the second plate part, and the additional component is provided, which reinforces the second plate part in the region of the distributor portion and/or of the collector portion. wherein the cooling plate has a multiplicity of refrigerant ducts with a first duct cross section, said refrigerant ducts being formed between the first and second plate parts (24, 30) in the depressions of the second plate part, wherein the cooling plate has a distributor portion and a collector portion which each have at least one connection (46, 48) for a refrigerant feed line and a refrigerant return line, and wherein the wall of the distributor portion and/or of the collector portion is formed at least in portions by a component additional to the first and second plate parts (24, 30), wherein the distributor portion and/or the collector portion are arranged together with the second plate part on one side of the first plate part wherein the connections and are situated on the same side of the cooling plate and closely adjacent to one another, the collector portion is formed as a common depression corresponding to the distributor portion wherein the distributor portion and/or the collector portion are formed at least in portions by the second plate part, and the additional component is provided, which reinforces the second plate part in the region of the distributor portion and/or of the collector portion.