mhurhangee/ep-ind-claims huggingface dataset:
A coil spring modeling apparatus provided on a strut comprising a lower spring seat and an upper spring seat, the coil spring modeling apparatus comprising: a first attachment member disposed on the lower spring seat; a second attachment member disposed on the upper spring seat; an actuator unit which comprises a plurality of hydraulic cylinders (31 1 -31 6) arranged with their inclinations changed alternately between the first attachment member and the second attachment member, and configured to extend and retract, lower ends of the hydraulic cylinders (31 1 -31 6) being swingably connected to joint connection portions of the first attachment member, and upper ends of the hydraulic cylinders (31 1 -31 6) being swingably connected to joint connection portions of the second attachment member; a spring height detection mechanism configured to detect an amount of displacement with respect to a distance between the first attachment member and the second attachment member, the spring height detection mechanism comprising displacement gauges (40 1 -40 6) which are provided on the hydraulic cylinders (31 1 -31 6) and configured to detect amounts of displacement relative to reference lengths of the hydraulic cylinders (31 1 -31 6), respectively; and a controller configured to control the fluid pressure of each of the hydraulic cylinders (31 1 -31 6) of the actuator unit according to the amount of displacement of the hydraulic cylinders (31 1 -31 6), detected by each of the displacement gauges (40 1 -40 6) of the spring height detection mechanism. a first attachment member disposed on the lower spring seat; a second attachment member disposed on the upper spring seat; an actuator unit which comprises a plurality of hydraulic cylinders (31 1 -31 6) arranged with their inclinations changed alternately between the first attachment member and the second attachment member, and configured to extend and retract, lower ends of the hydraulic cylinders (31 1 -31 6) being swingably connected to joint connection portions of the first attachment member, and upper ends of the hydraulic cylinders (31 1 -31 6) being swingably connected to joint connection portions of the second attachment member; a spring height detection mechanism configured to detect an amount of displacement with respect to a distance between the first attachment member and the second attachment member, the spring height detection mechanism comprising displacement gauges (40 1 -40 6) which are provided on the hydraulic cylinders (31 1 -31 6) and configured to detect amounts of displacement relative to reference lengths of the hydraulic cylinders (31 1 -31 6), respectively; and a controller configured to control the fluid pressure of each of the hydraulic cylinders (31 1 -31 6) of the actuator unit according to the amount of displacement of the hydraulic cylinders (31 1 -31 6), detected by each of the displacement gauges (40 1 -40 6) of the spring height detection mechanism.
A method of determining if a sample obtained from an individual comprises nucleic acid which comprises a haplotype associated with susceptibility for developing a learning disability in humans, comprising assaying a sample that comprises nucleic acid from the individual for the presence in the DYX2 locus of the following haplotypes in the DCDC2 risk haplotype block comprising rs33914824, rs807694, rs707864, rs10456301, rs16889066 and rs9379651: (a) CGCGAG in a DCDC2 gene; or (b) GACGAG in a DCDC2 gene; or (c) both CGCGAG and GACGAG in a DCDC2 gene; wherein if the sample comprises at least one of (a) - (c), the sample comprises a haplotype associated with susceptibility for developing a learning disability in humans.
A method of image processing, comprising: identifying a pixel located on an edge in a first image, the edge having an associated set of edge characteristics, the associated set of edge characteristics comprising a gradient magnitude of the edge and an edge direction of the edge; determining the gradient magnitude; determining the edge direction after identifying the pixel located on the edge; assigning one of a few predetermined directions to the determined edge direction; assigning a confidence level to each of the plurality of pixels located on an edge, the confidence level corresponding to an accuracy of the edge direction that is detected, wherein a higher confidence level is assigned to pixels which have a higher accuracy of the determined edge direction; applying a low pass filter directionally to a pixel of an edge in the assigned predetermined direction to generate a second image based on the first image, wherein the edge in the first image is smoothed in the second image; and generating a third image based on the second image and the first image, wherein the third image is generated from blending a portion of the second image having the smoothed edge and a portion of the first image; wherein a multiplier for the blending of the second image and the first image is the product of the confidence level and the results of a comparison of the gradient magnitude to a dynamic range based magnitude threshold value. identifying a pixel located on an edge in a first image, the edge having an associated set of edge characteristics, the associated set of edge characteristics comprising a gradient magnitude of the edge and an edge direction of the edge; determining the gradient magnitude; determining the edge direction after identifying the pixel located on the edge; assigning one of a few predetermined directions to the determined edge direction; assigning a confidence level to each of the plurality of pixels located on an edge, the confidence level corresponding to an accuracy of the edge direction that is detected, wherein a higher confidence level is assigned to pixels which have a higher accuracy of the determined edge direction; applying a low pass filter directionally to a pixel of an edge in the assigned predetermined direction to generate a second image based on the first image, wherein the edge in the first image is smoothed in the second image; and generating a third image based on the second image and the first image, wherein the third image is generated from blending a portion of the second image having the smoothed edge and a portion of the first image; wherein a multiplier for the blending of the second image and the first image is the product of the confidence level and the results of a comparison of the gradient magnitude to a dynamic range based magnitude threshold value.
Agitator mill for treating flowable material to be milled, having a circular-cylindrical outer stator, an agitator which is mounted rotatably about a common central axis and has a circular-cylindrical rotor, wherein the rotor is arranged within the outer stator, and wherein a milling chamber is formed between the rotor and the outer stator, wherein a through-flow direction which extends from a feed channel to a discharge channel is defined in the milling chamber, wherein the milling chamber has a constant width between the outer stator and the rotor, wherein the milling chamber is at least partially filled with milling elements, wherein a plurality of rotor milling tools which extend in the direction of the outer stator are attached to the rotor, wherein a plurality of outer-stator milling tools (21, 211) which project radially by a length into the milling chamber are attached to the outer stator, and wherein the outer-stator milling tools (21, 211) are arranged adjacent to and spaced apart from one another in the circumferential direction and form rows, and these rows are arranged parallel to one another along the central axis on the outer stator, wherein the outer-stator milling tools of at least one row, preferably of three rows, of outer-stator milling tools on the side of the milling chamber facing away from the feed channel have a greater radial length than the remaining outer-stator milling tools, and wherein the outer-stator milling tools (21, 211) of each row have the same length in the circumferential direction. an agitator which is mounted rotatably about a common central axis and has a circular-cylindrical rotor, wherein the rotor is arranged within the outer stator, and wherein a milling chamber is formed between the rotor and the outer stator, wherein a through-flow direction which extends from a feed channel to a discharge channel is defined in the milling chamber, wherein the milling chamber has a constant width between the outer stator and the rotor, wherein the milling chamber is at least partially filled with milling elements, wherein a plurality of rotor milling tools which extend in the direction of the outer stator are attached to the rotor, wherein a plurality of outer-stator milling tools (21, 211) which project radially by a length into the milling chamber are attached to the outer stator, and wherein the outer-stator milling tools (21, 211) are arranged adjacent to and spaced apart from one another in the circumferential direction and form rows, and these rows are arranged parallel to one another along the central axis on the outer stator, wherein the outer-stator milling tools of at least one row, preferably of three rows, of outer-stator milling tools on the side of the milling chamber facing away from the feed channel have a greater radial length than the remaining outer-stator milling tools, and wherein the outer-stator milling tools (21, 211) of each row have the same length in the circumferential direction.
A method of a first server for controlling migration of a Quick User Datagram Protocol, UDP, Internet Connections, QUIC, connection between the first server and a second server, wherein the QUIC connection is identifiable by a connection identifier, CID, and is established to a migrating wireless device having a client IP-address, and wherein the first server and the second server comprise respective cache memories, are comprised in a content delivery network, CDN, and have a same server IP-address, the method comprising: - receiving, at the first server from the second server, static key information representative of the QUIC connection; - determining, at the first server, context transfer state information for the QUIC connection comprising a connection state and a tuple for the QUIC connection, which tuple comprises the CID, the client IP-address and the server IP-address; - generating, at the first server, a stateless reset token based on the determined context transfer state information for the QUIC connection; and characterized in that the method further comprises the step of: - controlling, at the first server, transmission of the generated stateless reset token to a monitoring function of the second server for use by the second server in generating a stateless reset packet for the QUIC connection to enable the migrating wireless device to reset the QUIC connection. - receiving, at the first server from the second server, static key information representative of the QUIC connection; - determining, at the first server, context transfer state information for the QUIC connection comprising a connection state and a tuple for the QUIC connection, which tuple comprises the CID, the client IP-address and the server IP-address; - generating, at the first server, a stateless reset token based on the determined context transfer state information for the QUIC connection; and characterized in that the method further comprises the step of: - controlling, at the first server, transmission of the generated stateless reset token to a monitoring function of the second server for use by the second server in generating a stateless reset packet for the QUIC connection to enable the migrating wireless device to reset the QUIC connection. - controlling, at the first server, transmission of the generated stateless reset token to a monitoring function of the second server for use by the second server in generating a stateless reset packet for the QUIC connection to enable the migrating wireless device to reset the QUIC connection.
A method for producing an examination reagent, wherein a) a helper ligand, which can be exchanged with an examination peptide, is added to an unfolded MHC-class-I-protein in an initial solution, so that a pre-solution of the examination reagent with a folded MHC-class-I-protein is provided, which features the bonded helper ligand, and b) a ligand exchanger/ligand releaser is added to the folded MHC-class-I-protein featuring the bonded helper ligand, wherein the ligand exchanger/ligand releaser has a lesser affinity with the MHC-class-I-protein than the helper ligand and b1) is an amino acid, b2) is a modified amino acid or b3) is a peptide of 2 or 3 amino acids. a) a helper ligand, which can be exchanged with an examination peptide, is added to an unfolded MHC-class-I-protein in an initial solution, so that a pre-solution of the examination reagent with a folded MHC-class-I-protein is provided, which features the bonded helper ligand, and b) a ligand exchanger/ligand releaser is added to the folded MHC-class-I-protein featuring the bonded helper ligand, wherein the ligand exchanger/ligand releaser has a lesser affinity with the MHC-class-I-protein than the helper ligand and b1) is an amino acid, b2) is a modified amino acid or b3) is a peptide of 2 or 3 amino acids.
A small water heater, comprising: a storage tank having a volume of ≤ 20 litres, an electrically operable heating element, wherein the storage tank is configured as a plastic tank and includes a top and a bottom part (113, 114), wherein the bottom part of the storage tank includes an opening, and wherein a flanged immersion heater comprising the electrically operable heating element is introduced through the opening such that the flanged immersion heater projects into the tank volume and the electrically operable heating element heats the water located inside the tank volume, characterised in that at least one vacuum insulation panel is provided directly on the storage tank around the outer wall of the top half and the bottom half, and an EPS foam is provided directly on the outer side of the at least one vacuum insulation panel, wherein the EPS foam surrounds the entire outer side of the at least one vacuum insulation panel, wherein the top and the bottom part of the storage tank are welded together along a weld zone (113a, 114a), wherein the at least one vacuum insulation panel includes two sections with a sealing joint therebetween, wherein the sealing joint in the installed state covers the weld zone (113a, 114a). a storage tank having a volume of ≤ 20 litres, an electrically operable heating element, wherein the storage tank is configured as a plastic tank and includes a top and a bottom part (113, 114), wherein the bottom part of the storage tank includes an opening, and wherein a flanged immersion heater comprising the electrically operable heating element is introduced through the opening such that the flanged immersion heater projects into the tank volume and the electrically operable heating element heats the water located inside the tank volume, characterised in that at least one vacuum insulation panel is provided directly on the storage tank around the outer wall of the top half and the bottom half, and an EPS foam is provided directly on the outer side of the at least one vacuum insulation panel, wherein the EPS foam surrounds the entire outer side of the at least one vacuum insulation panel, wherein the top and the bottom part of the storage tank are welded together along a weld zone (113a, 114a), wherein the at least one vacuum insulation panel includes two sections with a sealing joint therebetween, wherein the sealing joint in the installed state covers the weld zone (113a, 114a).
A composition which is an epoxy curative comprising: a) a Lewis base, b) calcium nitrate, and c) a polyamine amide salt. a) a Lewis base, b) calcium nitrate, and c) a polyamine amide salt.
A method for separating C 20 -C 22 long chain monounsaturated fatty acids from C 20 -C 22 long chain polyunsaturated fatty acids, comprising the steps of: a) Mixing an oil composition comprising 5% by weight or more of C 20 -C 22 long chain polyunsaturated fatty acids and at least 15% by weight of C 20 -C 22 long chain monounsaturated fatty acids with (i) an organic solvent selected from the group consisting of C 1 -C 5 alcohols and ketones of the formula R 1 (C=0)R 2 wherein R 1 and R 2 are each independently C 1 -C 5 alkyl; and (ii) a lithium salt to form a mixed composition comprising the lithium salts of long chain monounsaturated fatty acids and the lithium salts of the long chain polyunsaturated fatty acids at 15°C to 80 °C; b) Reducing the temperature of the mixed composition formed in step a) such that the lithium salts of the long chain monounsaturated fatty acids form a precipitate; and c) Separating the precipitate from a solution to obtain an enriched composition of long chain monounsaturated fatty acids comprising at least 70% by weight of C 20 -C 22 long chain monounsaturated fatty acids from the precipitate, and a solution of long chain polyunsaturated fatty acids from the solution, the solution of long chain polyunsaturated fatty acids is further purified to recover C 20 -C 22 long chain polyunsaturated fatty acids in concentrations of 80% by weight or higher. a) Mixing an oil composition comprising 5% by weight or more of C 20 -C 22 long chain polyunsaturated fatty acids and at least 15% by weight of C 20 -C 22 long chain monounsaturated fatty acids with (i) an organic solvent selected from the group consisting of C 1 -C 5 alcohols and ketones of the formula R 1 (C=0)R 2 wherein R 1 and R 2 are each independently C 1 -C 5 alkyl; and (ii) a lithium salt to form a mixed composition comprising the lithium salts of long chain monounsaturated fatty acids and the lithium salts of the long chain polyunsaturated fatty acids at 15°C to 80 °C; b) Reducing the temperature of the mixed composition formed in step a) such that the lithium salts of the long chain monounsaturated fatty acids form a precipitate; and c) Separating the precipitate from a solution to obtain an enriched composition of long chain monounsaturated fatty acids comprising at least 70% by weight of C 20 -C 22 long chain monounsaturated fatty acids from the precipitate, and a solution of long chain polyunsaturated fatty acids from the solution, the solution of long chain polyunsaturated fatty acids is further purified to recover C 20 -C 22 long chain polyunsaturated fatty acids in concentrations of 80% by weight or higher.
Tracked piste grooming vehicle having a clearing blade arranged at the front and comprising a middle part and two side parts swivellably movable relative to said middle part, and having setting means for adjusting the middle part and/or the side parts, and having at least one manually operable actuating element (2, 3) arranged inside a cab for operating said setting means, wherein an electronic control unit is connected between the actuating element (2, 3) and the setting means and can be activated by the actuating element (2, 3), characterized in that the electronic control unit is configured, after activation, to operate the setting means with a timed sequence of control commands for achieving at least one control function programmed in the electronic control unit for the side parts and/or the middle part from an initial position to an end position preset by the control function, wherein the control unit is configured to regulate the setting means using the at least one control function depending on recorded travel and/or angle signals from travel and/or angle sensors (7, 8), and wherein at least one setting means is assigned a travel sensor unit to record setting data of said setting means and transmit it to the control unit, and/or at least one side part is assigned an angle sensor unit to record angle data and transmit it to the control unit.
An exhaust gas treatment assembly for an exhaust system of an internal combustion engine, comprising a housing having a circumferential wall which is elongate in the direction of a housing longitudinal axis, and at least one base wall (18, 20) which in an external circumferential region is connected to the circumferential wall, wherein in a housing interior space, which is defined by the circumferential wall and the at least one base wall (18, 20), at least one exhaust gas treatment unit (22, 26) is positioned so as to be removable from the housing; wherein at least one base wall is an interchangeable base wall which by means of a connection assembly is releasably connected to the circumferential wall; wherein the connection assembly on the circumferential wall comprises a first connection portion which extends substantially in the direction of the housing longitudinal axis, and a first axial support portion which in terms of the first connection portion extends radially inward, and on the interchangeable base wall comprises a second connection portion which, radially adjacent to the first connection portion, extends substantially in the direction of the housing longitudinal axis and by means of at least one connection member is releasably connected to the first connection portion, and a second axial support portion which in relation to the second connection portion extends radially inward and is supported on the first axial support portion in the direction of the housing longitudinal axis, wherein a plurality of first connection-member penetration openings which are disposed so as to be mutually spaced apart in the circumferential direction about the housing longitudinal axis or/and in the direction of the housing longitudinal axis are provided in the first connection portion; wherein a plurality of second connection-member penetration openings which are disposed so as to be mutually spaced apart in the circumferential direction about the housing longitudinal axis or/and in the direction of the housing longitudinal axis are provided in the second connection portion; and wherein in the case of an interchangeable base wall that is connected to the circumferential wall a plurality of pairs of in each case one first connection-member penetration opening and one second connection-member penetration opening are in each case penetrated by one connection member.
An oral care composition comprising: a) calcium phosphate polyionic clusters; b) glycerin; wherein the calcium phosphate polyionic clusters are obtained by a process comprising the steps of: i) dissolving a water soluble calcium source in ethanol to produce an ethanol solution A having a calcium ion concentration from 5 to 60 mmol/L; ii) dissolving phosphoric acid and triethylamine in ethanol to produce an ethanol solution B having a phosphoric acid concentration from 10 to 120 mmol/L and a triethylamine concentration from 1000 to 3900 mmol/L; iii) mixing the solution A and the solution B and standing the mixture to obtain a calcium phosphate polyionic cluster solution; iv) centrifuging the calcium phosphate polyionic cluster solution to obtain the calcium phosphate polyionic clusters wherein the water soluble calcium source is a calcium source that dissolves in water to give a concentration of at least 0.1 moles per litre at 25°C and atmospheric pressure. a) calcium phosphate polyionic clusters; b) glycerin; i) dissolving a water soluble calcium source in ethanol to produce an ethanol solution A having a calcium ion concentration from 5 to 60 mmol/L; ii) dissolving phosphoric acid and triethylamine in ethanol to produce an ethanol solution B having a phosphoric acid concentration from 10 to 120 mmol/L and a triethylamine concentration from 1000 to 3900 mmol/L; iii) mixing the solution A and the solution B and standing the mixture to obtain a calcium phosphate polyionic cluster solution; iv) centrifuging the calcium phosphate polyionic cluster solution to obtain the calcium phosphate polyionic clusters