mhurhangee/ep-ind-claims huggingface dataset:
A microwave resonator for an EPR (="electron paramagnetic resonance") probehead comprising: a metal cavity body supporting an electromagnetic microwave resonance mode, the microwave mode having an even number of local maxima of microwave electric field energy, at least one opening for inserting a sample tube to a center position of the resonator, the center of the opening and the center position of the resonator defining an x-axis, at least one opening for transmitting microwave radiation into the resonator, at least two identical dielectric elements (4a, 4b) located symmetrically to the plane known as "E-field nodal plane" which contains the x-axis and a z-axis which is perpendicular to the x-axis, characterized in that each dielectric element (4a, 4b) is geometrically formed and positioned such that it provides an equal overlap with a local maximum of the microwave electric field energy, and that the resonator has a flat structure having a smallest internal extension along the z-axis equal to the thickness of the opening for inserting the sample tube or of the dielectric elements (4a, 4b), whichever is greater. a metal cavity body supporting an electromagnetic microwave resonance mode, the microwave mode having an even number of local maxima of microwave electric field energy, at least one opening for inserting a sample tube to a center position of the resonator, the center of the opening and the center position of the resonator defining an x-axis, at least one opening for transmitting microwave radiation into the resonator, at least two identical dielectric elements (4a, 4b) located symmetrically to the plane known as "E-field nodal plane" which contains the x-axis and a z-axis which is perpendicular to the x-axis, characterized in that each dielectric element (4a, 4b) is geometrically formed and positioned such that it provides an equal overlap with a local maximum of the microwave electric field energy, and that the resonator has a flat structure having a smallest internal extension along the z-axis equal to the thickness of the opening for inserting the sample tube or of the dielectric elements (4a, 4b), whichever is greater.
A gypsum board comprising a gypsum core with at least one side covered by a fibrous mat comprising at least one ply of a non-woven fabric and a binder composition, wherein: - said binder composition represents from 10 to 40 wt% of the total weight of the mat; and - said binder composition comprises a copolymer comprising a co-monomer unit of a vinyl ester of an alpha branched aliphatic monocarboxylic acid, said copolymer being present in an amount from 25 to 100 wt% of the binder composition weight. - said binder composition represents from 10 to 40 wt% of the total weight of the mat; and - said binder composition comprises a copolymer comprising a co-monomer unit of a vinyl ester of an alpha branched aliphatic monocarboxylic acid, said copolymer being present in an amount from 25 to 100 wt% of the binder composition weight.
Module housing having a housing component for the fastening of an electronic assembly and having a plug-in connector for the electrical connection to the assembly, wherein the plug-in connector comprises a basic body with a plurality of receiving means for electric plug-in contacts and with a plug-in frame which extends around the receiving means, wherein - the module housing comprises a locking arrangement for mechanically fastening the plug-in connector on the housing part, wherein the locking arrangement comprises a locking element of the plug-in connector and a locking element of the housing component, wherein the locking element of the plug-in connector comprises a hook element and the locking element of the housing component comprises a corresponding recess, and wherein the locking element of the plug-in connector and the locking element of the housing component are realized for the purpose of interacting mechanically with one another for locking the plug-in connector on the housing component by means of receiving the hook element in the recess, characterized in that the basic body has two end portions which are arranged on ends of the basic plate which are situated opposite one another in the transverse direction, - wherein the end portions extend in a plug-in direction (y) of the plug-in connector proceeding from a base plate of the basic body which comprises the receiving means such that the base plate forms a U-shape, which is open in the plug-in direction, with the end portions, and the hook element is formed by a projection of one of the end portions of the basic body, wherein the projection projects in a joining direction toward the locking element of the housing component. - the module housing comprises a locking arrangement for mechanically fastening the plug-in connector on the housing part, wherein the locking arrangement comprises a locking element of the plug-in connector and a locking element of the housing component, wherein the locking element of the plug-in connector comprises a hook element and the locking element of the housing component comprises a corresponding recess, and wherein the locking element of the plug-in connector and the locking element of the housing component are realized for the purpose of interacting mechanically with one another for locking the plug-in connector on the housing component by means of receiving the hook element in the recess, characterized in that the basic body has two end portions which are arranged on ends of the basic plate which are situated opposite one another in the transverse direction, - wherein the end portions extend in a plug-in direction (y) of the plug-in connector proceeding from a base plate of the basic body which comprises the receiving means such that the base plate forms a U-shape, which is open in the plug-in direction, with the end portions, and the hook element is formed by a projection of one of the end portions of the basic body, wherein the projection projects in a joining direction toward the locking element of the housing component.
An electronic panel for digital signs comprising: a backlight assembly comprising a plurality of light sources and of electronic devices for driving them; a display assembly comprising a plurality of layers configured to display images; a containment structure in which is contained said backlight assembly and comprising a front opening for housing said display assembly; said display assembly being movable between an operating condition wherein it faces said backlight assembly and closes said front opening of the containment structure, and a non-operating condition wherein it is moved away from said backlight assembly and it opens said front opening of the containment structure, characterized in that said backlight assembly being mounted on a first heatsink on a front surface thereof facing towards said front opening of said containment structure and said plurality of light sources and of electronic devices for driving them being mounted on said front surface of the first heatsink. a backlight assembly comprising a plurality of light sources and of electronic devices for driving them; a display assembly comprising a plurality of layers configured to display images; a containment structure in which is contained said backlight assembly and comprising a front opening for housing said display assembly; said display assembly being movable between an operating condition wherein it faces said backlight assembly and closes said front opening of the containment structure, and a non-operating condition wherein it is moved away from said backlight assembly and it opens said front opening of the containment structure, characterized in that said backlight assembly being mounted on a first heatsink on a front surface thereof facing towards said front opening of said containment structure and said plurality of light sources and of electronic devices for driving them being mounted on said front surface of the first heatsink.
A composition of matter comprising an antibody-toxin conjugate and an alkylglycoside having a CMC value of 1.0 mM or greater in water at 25°C, wherein the alkylglycoside is present in the composition of matter at a concentration that is lower than the CMC value of the alkylglycoside in water at 25°C.
An intermediate intake-type diaphragm in which an introduction flow channel, an intermediate suction flow channel, and a curved flow channel are defined, the introduction flow channel extending from a radially outer side of an axial line to a radially inner side to guide a first fluid toward an impeller rotating about the axial line, the intermediate suction flow channel being adjacent to the introduction flow channel and extending from the radially outer side of the axial line to the radially inner side to guide a second fluid toward the impeller, the curved flow channel being connected to downstream sides of the introduction flow channel and the intermediate suction flow channel and extending so that an inner surface is curved from a position of connection with the introduction flow channel toward one side in the direction of the axial line, and the curved flow channel guides the first fluid and the second fluid toward the impeller, the intermediate intake-type diaphragm comprising: a flow-regulating vane that is provided in the introduction flow channel to regulate the first fluid to flow along the radial direction; a guide vane that is provided in the intermediate suction flow channel and configured to regulate the second fluid to flow along the radial direction, and a partition wall that partitions the introduction flow channel and the intermediate suction flow channel in the direction of the axial line, wherein a radially inner end portion of the partition wall is located further on a radially inner side than a radially outer end portion of the flow-regulating vane and further on a radially outer side than a boundary between the introduction flow channel and the curved flow channel, wherein a radially inner end portion of the flow-regulating vane is located further on the radially outer side than the radially inner end portion of the partition wall, and wherein a position in the radial direction of a radially inner end portion of the guide vane is the same as a position in the radial direction of the radially inner end portion of the flow-regulating vane. a flow-regulating vane that is provided in the introduction flow channel to regulate the first fluid to flow along the radial direction; a guide vane that is provided in the intermediate suction flow channel and configured to regulate the second fluid to flow along the radial direction, and a partition wall that partitions the introduction flow channel and the intermediate suction flow channel in the direction of the axial line, wherein a radially inner end portion of the partition wall is located further on a radially inner side than a radially outer end portion of the flow-regulating vane and further on a radially outer side than a boundary between the introduction flow channel and the curved flow channel, wherein a radially inner end portion of the flow-regulating vane is located further on the radially outer side than the radially inner end portion of the partition wall, and wherein a position in the radial direction of a radially inner end portion of the guide vane is the same as a position in the radial direction of the radially inner end portion of the flow-regulating vane.
A curable composition, comprising: an organopolysiloxane containing at least two silicon-bonded aliphatically unsaturated groups per molecule; an organohydrogensiloxane containing at least two silicon-bonded hydrogen atoms per molecule; a hydrosilylation-reaction catalyst comprising platinum; a hydrosilylation-reaction inhibitor; and a catalyst different from component and capable of deactivating the hydrosilylation-reaction inhibitor at an elevated temperature of from 50 to 120 °C such that components and react in the presence of at least component at the elevated temperature; wherein component comprises said metal-ligand complex, having general formula (i) [YML 1 L 2 L 3] + - or (ii) [YML 3 L 2 L 1 L 1 L 2 L 3 MY] 2+ 2- where Y is a substituted or unsubstituted cyclopentadienyl group of formula C 5 R 10 R 11 R 13 R 13 R 14, where each of R 10 -R 14 is independently selected from H, substituted or unsubstituted hydrocarbyl groups, silyl groups, siloxy groups, and alkoxy groups; M is a metal selected from Rh, Pt, Fe, Co, Ni, Ti, Y, Pd, Au and Ru; each of L 1 -L 3 is an independently selected ligand; and X is an anion; and wherein in general formula (ii), two or more ligands may form a single bridge complexed with each M. an organopolysiloxane containing at least two silicon-bonded aliphatically unsaturated groups per molecule; an organohydrogensiloxane containing at least two silicon-bonded hydrogen atoms per molecule; a hydrosilylation-reaction catalyst comprising platinum; a hydrosilylation-reaction inhibitor; and a catalyst different from component and capable of deactivating the hydrosilylation-reaction inhibitor at an elevated temperature of from 50 to 120 °C such that components and react in the presence of at least component at the elevated temperature;
A cooking system, comprising: a food cooking unit; and a particle detection system for detecting particles, comprising: a particle sensing unit, for determining particle concentrations in at least two size ranges; and a controller for processing the particle concentrations, wherein the controller is adapted: to determine one or more ratios between the particle concentrations in the at least two size ranges; and in response to the determined one or more ratios, to provide an output for controlling the food cooking unit. a food cooking unit; and a particle detection system for detecting particles, comprising: a particle sensing unit, for determining particle concentrations in at least two size ranges; and a controller for processing the particle concentrations, wherein the controller is adapted: to determine one or more ratios between the particle concentrations in the at least two size ranges; and in response to the determined one or more ratios, to provide an output for controlling the food cooking unit. a particle sensing unit, for determining particle concentrations in at least two size ranges; and a controller for processing the particle concentrations, wherein the controller is adapted: to determine one or more ratios between the particle concentrations in the at least two size ranges; and in response to the determined one or more ratios, to provide an output for controlling the food cooking unit. to determine one or more ratios between the particle concentrations in the at least two size ranges; and in response to the determined one or more ratios, to provide an output for controlling the food cooking unit.
An N-terminal peptide useful in trafficking proteins to the cell surface comprising an amino acid sequence having at least 90% identity to SEQ ID NO:3, and further comprising: (i) a Flag tag and optionally further comprising a Rho tag, optionally further comprising a linker between the Flag tag and the Rho tag; or (ii) a Rho tag. (i) a Flag tag and optionally further comprising a Rho tag, optionally further comprising a linker between the Flag tag and the Rho tag; or (ii) a Rho tag.
A pneumatic tire comprising a tread portion provided with a pair of shoulder main grooves and a center main groove extending continuously in the tire circumferential direction so as to define a pair of shoulder land regions between the shoulder main grooves and the tread edges (Te), and a pair of crown land regions between the shoulder main grooves and the center main groove, wherein each said shoulder land region is circumferentially divided by shoulder lateral grooves into shoulder blocks, each said crown land region is circumferentially divided by crown lateral grooves into crown blocks, each said crown block is circumferentially divided by a crown sipe into a pair of block pieces which are a first block piece whose axially outer edge abutting on the shoulder main groove is chamfered to define an axially outer crown chamfer, and a second block piece whose axially outer edge abutting on the shoulder main groove is not chamfered or less chamfered than the axially outer crown chamfer, each said shoulder block is provided with a shoulder sipe extending axially outwardly from the shoulder main groove to circumferentially divide at least an axially inner part of the shoulder block into a pair of block pieces which are a first block piece whose axially inner edge abutting on the shoulder main groove is chamfered to define an axially inner shoulder chamfer, and a second block piece whose axially inner edge abutting on the shoulder main groove is not chamfered or less chamfered than the axially inner shoulder chamfer, on both sides of each of the shoulder main grooves, each of the axially inner shoulder chamfers has an overlap with one of the axially outer crown chamfers in the tire circumferential direction, and each said shoulder block is provided with a narrow longitudinal shoulder groove extending between the circumferentially adjacent shoulder lateral grooves, characterized in that the shoulder sipe terminates without reaching to the narrow longitudinal shoulder groove.
An apparatus for measuring concentration of a gas in a sterilization chamber surrounded by a vessel comprising: (a) at east one light source which emits light at least a first portion of which is directed along a path that does not intersect the sterilization chamber and a second portion of which is directed along a path that passes through at least a portion of the sterilization chamber, (b) a first detector which receives at least some light of the first portion; (c) a second detector positioned to receive at least some of the light from the second portion after the second portion has passed through the sterilization chamber and (d) a controller which is configured to: (i) receive signals from at least the first and second detectors, (ii) process the signals to determine charges in the output of the said at least one light source, light loss and absorption due to components of the apparatus, and the concentration of the gas in the sterilization chamber, (iii) compare expected operating ranges created on the basis of stored historical data with signals received from at least one of the detectors to identify problems, and (iv) generate output signals based upon the concentration of the gas in the sterilization chamber. (a) at east one light source which emits light at least a first portion of which is directed along a path that does not intersect the sterilization chamber and a second portion of which is directed along a path that passes through at least a portion of the sterilization chamber, (b) a first detector which receives at least some light of the first portion; (c) a second detector positioned to receive at least some of the light from the second portion after the second portion has passed through the sterilization chamber and (d) a controller which is configured to: (i) receive signals from at least the first and second detectors, (ii) process the signals to determine charges in the output of the said at least one light source, light loss and absorption due to components of the apparatus, and the concentration of the gas in the sterilization chamber, (iii) compare expected operating ranges created on the basis of stored historical data with signals received from at least one of the detectors to identify problems, and (iv) generate output signals based upon the concentration of the gas in the sterilization chamber.
A surface treatment method for providing a compound α on a substrate by coating a solution containing the compound α onto the substrate or by evaporation of the compound α: wherein the compound α comprises at least a compound represented by the following General Formula or General Formula, wherein in the formulae, A, B, C, and D are the following groups: A = -N(R a)R b -Si(R c) n (OR d) 3-n, or -N{R b -Si(R c) n (OR d) 3-n} 2; B = -N(R e)R f (NH 2) m, or -N{R f (NH 2) m} 2; C = A, B, or -N(R g)R h; and D=R i; wherein each of R a, R e, and R g is H or a hydrocarbon group; R b, R c, R d, R f, R h, and R i are hydrocarbon groups; n is 0, 1, or 2; and m is 1 or 2, wherein the hydrocarbon group consists of H and C atoms. wherein in the formulae, A, B, C, and D are the following groups: A = -N(R a)R b -Si(R c) n (OR d) 3-n, or -N{R b -Si(R c) n (OR d) 3-n} 2; B = -N(R e)R f (NH 2) m, or -N{R f (NH 2) m} 2; C = A, B, or -N(R g)R h; and D=R i; A = -N(R a)R b -Si(R c) n (OR d) 3-n, or -N{R b -Si(R c) n (OR d) 3-n} 2; B = -N(R e)R f (NH 2) m, or -N{R f (NH 2) m} 2; C = A, B, or -N(R g)R h; and D=R i; wherein each of R a, R e, and R g is H or a hydrocarbon group; R b, R c, R d, R f, R h, and R i are hydrocarbon groups; n is 0, 1, or 2; and m is 1 or 2, wherein the hydrocarbon group consists of H and C atoms.
Method for engaging a starter pinion of a starter device in a ring gear of an internal combustion engine, wherein the internal combustion engine comprises a drive shaft and the starter device comprises a starter motor, wherein the drive shaft has a variable rotational speed (n), and in a method step the internal combustion engine is switched off and thereafter in a method step the starter pinion, which is not rotationally driven by the starter motor, is moved forward by a toe-in actuator by means of a toe-in force in the direction of the gear rim and thereafter in a further method step an engagement force is selectively applied to the starter pinion, in order to engage the starter pinion in a tooth gap of the ring gear during a period of time (tE), characterized in that a point of time (tD1, tD2) of a zero crossing (D N1, D N2) of the rotational speed of the internal combustion engine is determined and, on the basis of this point of time (tD1, tD2), the time (tE) needed for engaging, the time (tA) needed for laying on and the time (tV) needed for toe-in is calculated back to determine a point of time, wherein, starting from this point of time, the starter pinion is moved forward by means of the toe-in force in the direction of the ring gear until it contacts said ring gear, then, starting from a point of time, is laid on to the ring gear during a period of time (tA), wherein a differential angle of rotation between pinion and ring gear is swept during lay on, which corresponds to at least one tooth pitch, wherein the engagement of the starter pinion takes place at the point of time (tD1, tD2) at which the drive shaft of the internal combustion engine has a rotational speed (n) which is zero after the internal combustion engine has been switched off, and the zero crossing occurs at the rotational speed (n) of the drive shaft during the period of time (tE) of the engagement. a point of time (tD1, tD2) of a zero crossing (D N1, D N2) of the rotational speed of the internal combustion engine is determined and, on the basis of this point of time (tD1, tD2), the time (tE) needed for engaging, the time (tA) needed for laying on and the time (tV) needed for toe-in is calculated back to determine a point of time, wherein, starting from this point of time, the starter pinion is moved forward by means of the toe-in force in the direction of the ring gear until it contacts said ring gear, then, starting from a point of time, is laid on to the ring gear during a period of time (tA), wherein a differential angle of rotation between pinion and ring gear is swept during lay on, which corresponds to at least one tooth pitch, wherein the engagement of the starter pinion takes place at the point of time (tD1, tD2) at which the drive shaft of the internal combustion engine has a rotational speed (n) which is zero after the internal combustion engine has been switched off, and the zero crossing occurs at the rotational speed (n) of the drive shaft during the period of time (tE) of the engagement.