mhurhangee/ep-ind-claims huggingface dataset:
A tire for motorcycles comprising: a carcass extending between bead cores of bead portions via a tread portion and sidewall portions, the carcass including at least one carcass ply comprising a main body (6a1) extending between the bead cores of the bead portions and turned up portions (6b1) extending from both ends of the main body (6a1) and each turned up around respective bead core, a belt layer arranged outside the carcass in a tire radial direction in the tread portion, and a tread rubber arranged radially outside the belt layer, the belt layer including at least one reinforcing cord coated with rubber and spirally wound, wherein in a meridian section passing through a tire rotational axis of the tire in a standard state in which the tire is mounted on a standard rim, inflated to a standard pressure, and loaded with no tire load, a width BW of the belt layer in a tire axial direction is in a range of from 60% to 80% of a tread width TW, and characterized in that the tread rubber has a thickness at a tire equator in a range of from 70% to 90% of thickness at tread edges, and a length (La) in the tire axial direction between each of outer ends of the belt layer and respectively adjacent one of the outer ends (6e1) of the carcass ply is in a range of from 3% to 8% of the tread width TW. a carcass extending between bead cores of bead portions via a tread portion and sidewall portions, the carcass including at least one carcass ply comprising a main body (6a1) extending between the bead cores of the bead portions and turned up portions (6b1) extending from both ends of the main body (6a1) and each turned up around respective bead core, a belt layer arranged outside the carcass in a tire radial direction in the tread portion, and a tread rubber arranged radially outside the belt layer, the belt layer including at least one reinforcing cord coated with rubber and spirally wound, in a meridian section passing through a tire rotational axis of the tire in a standard state in which the tire is mounted on a standard rim, inflated to a standard pressure, and loaded with no tire load, a width BW of the belt layer in a tire axial direction is in a range of from 60% to 80% of a tread width TW, and the tread rubber has a thickness at a tire equator in a range of from 70% to 90% of thickness at tread edges, and a length (La) in the tire axial direction between each of outer ends of the belt layer and respectively adjacent one of the outer ends (6e1) of the carcass ply is in a range of from 3% to 8% of the tread width TW.
Runner for a vehicle seat, defining a translation axis, able to be fixed to a vehicle floor by fixing means and comprising fixing zones cooperating with said fixing means, in which the fixing zones are sized and arranged so as to compensate, transversely to the translation axis of the runner, for the dimensional manufacturing tolerances of the seat and of said fixing means, and to allow cooperation of said fixing means with the runner, transversely to the translation axis of the runner, characterised in that the zones for fixing the runner are planar zones situated outside the profiled zones of the runner, and the fixing zones being at the same height as the bottom of the runner, and in that the part of the runner fixed to the vehicle is manufactured from a sheet-metal blank and the fixing zones being obtained directly from the sheet-metal blank used for manufacturing the part of the runner fixed to the vehicle.
A data acquisition system having a first resolution and comprising a digital to analog converter, wherein the DAC is configured to be used as a source for calibrating the DAQ system, characterized in that the DAC has a lower resolution than the first resolution and in that the DAQ system and the DAC are initially calibrated with a reference source having a higher resolution than the first resolution.
A method of purifying a terpenoid amino alcohol derivative represented by formula V', comprising: providing a crude terpenoid amino alcohol derivative represented by formula V' below: performing an acid/base crystallization process of the crude terpenoid amino alcohol derivative represented by formula V' to obtain an organic salt represented by formula V" below: and reacting the organic salt represented by formula V" with NaOH in at least one solvent selected from toluene, cyclopentyl methyl ether, diethyl ether, and dimethoxyethane to obtain a purified terpenoid amino alcohol derivative represented by formula V', wherein R, R 1, and R 2 are independently a substituted or unsubstituted C1-C6 alkyl. providing a crude terpenoid amino alcohol derivative represented by formula V' below: performing an acid/base crystallization process of the crude terpenoid amino alcohol derivative represented by formula V' to obtain an organic salt represented by formula V" below: and reacting the organic salt represented by formula V" with NaOH in at least one solvent selected from toluene, cyclopentyl methyl ether, diethyl ether, and dimethoxyethane to obtain a purified terpenoid amino alcohol derivative represented by formula V', wherein R, R 1, and R 2 are independently a substituted or unsubstituted C1-C6 alkyl.
An insect trap for trapping insects, the insect trap comprising: one or more serviceable parts; a mounting portion for mounting the insect trap; and a service portion which contains the serviceable parts, wherein the service portion is slidably connected to the mounting portion, the insect trap being movable between: a first configuration for trapping insects, and a second configuration for servicing of the one or more serviceable parts; wherein, when the insect trap moves from the first configuration to the second configuration, the service portion moves away from, and stays connected to, the mounting portion such that the position of the one or more serviceable parts in the first configuration differs from the position of the one or more serviceable parts in the second configuration. the insect trap comprising: one or more serviceable parts; a mounting portion for mounting the insect trap; and a service portion which contains the serviceable parts, wherein the service portion is slidably connected to the mounting portion, one or more serviceable parts; a mounting portion for mounting the insect trap; and a service portion which contains the serviceable parts, wherein the service portion is slidably connected to the mounting portion, the insect trap being movable between: a first configuration for trapping insects, and a second configuration for servicing of the one or more serviceable parts; wherein, when the insect trap moves from the first configuration to the second configuration, the service portion moves away from, and stays connected to, the mounting portion such that the position of the one or more serviceable parts in the first configuration differs from the position of the one or more serviceable parts in the second configuration. a first configuration for trapping insects, and a second configuration for servicing of the one or more serviceable parts; wherein, when the insect trap moves from the first configuration to the second configuration, the service portion moves away from, and stays connected to, the mounting portion such that the position of the one or more serviceable parts in the first configuration differs from the position of the one or more serviceable parts in the second configuration.
A method for the production of a restoration from a blank consisting of, or containing, a lithium silicate glass ceramic, wherein at least one starting lithium silicate glass is melted, the glass melt is cooled rapidly and is comminuted to a powder, wherein at least two layers (14, 24) of powders, which are produced from starting lithium silicate glasses of different compositions, are filled into a mold layer-by-layer, wherein after filling of a first layer its surface is smoothed and then structured in such a way that the first layer viewed across its surface varies in its height from one region to another in such a way, that elevations separated by depressions are formed and then as the second layer a layer with a composition that differs from that of the first layer is filled into the mold, or after introduction of the first layer a further layer of a powder is filled into the mold, the material of the further layer is the same as that of the second layer, that the material of the first layer is mixed with the material of the further layer to form an intermediate layer and that the second layer is then filled into the mold, and after introduction of the layers they are pressed and then sintered to form a blank, and the dental restoration is produced from the blank by mechanical working: and wherein the starting glass used has a composition which contains, or consists of, in percentage by weight: SiO 2 57.5 - 60.5 Li 2 O 13.5 - 20.5 ZrO 2 8.5 - 11.5 P 2 O 5 3.0 - 7.5 Al 2 O 3 0.5 - 6.0 K 2 O 0.5 - 3.5 CeO 2 0.5 - 2.5 B 2 O 3 0 - 3.0 Na 2 O 0 - 3.0 At least one additive 0 - 4. wherein at least two layers (14, 24) of powders, which are produced from starting lithium silicate glasses of different compositions, are filled into a mold layer-by-layer, wherein after filling of a first layer its surface is smoothed and then structured in such a way that the first layer viewed across its surface varies in its height from one region to another in such a way, that elevations separated by depressions are formed and then as the second layer a layer with a composition that differs from that of the first layer is filled into the mold, or after introduction of the first layer a further layer of a powder is filled into the mold, the material of the further layer is the same as that of the second layer, that the material of the first layer is mixed with the material of the further layer to form an intermediate layer and that the second layer is then filled into the mold, and after introduction of the layers they are pressed and then sintered to form a blank, and the dental restoration is produced from the blank by mechanical working: and wherein the starting glass used has a composition which contains, or consists of, in percentage by weight: SiO 2 57.5 - 60.5 Li 2 O 13.5 - 20.5 ZrO 2 8.5 - 11.5 P 2 O 5 3.0 - 7.5 Al 2 O 3 0.5 - 6.0 K 2 O 0.5 - 3.5 CeO 2 0.5 - 2.5 B 2 O 3 0 - 3.0 Na 2 O 0 - 3.0 At least one additive 0 - 4.
Panel comprising a structured lacquer surface, including a base panel, a melamine resin layer, an adhesion promoter layer and a lacquer-containing top coat, wherein the melamine resin layer is disposed on a surface of the base panel, the adhesion promoter layer is disposed on the melamine resin layer and the lacquer-containing top coat is disposed on the adhesion promoter layer, wherein the lacquer-containing top coat comprises is structured, wherein the adhesion promoter layer comprises a cured aminoplast as adhesion promoter composition, preferably a urea resin, a melamine resin and/or a melamine urea resin, as well as that the adhesion promoter layer comprises a cured acrylate-based adhesion promoter composition, in particular a polyurethane-modified acrylate-based adhesion promoter composition.
A distributed optical fibre sensor for measuring vibration, as a concurrent function of position along each of a plurality of sensing optical fibres (10a - 10d), from properties of probe light backscattered within the sensing optical fibres, the sensor comprising: a probe light source arranged to generate pulses of probe light for transmission to the sensing optical fibres; a detector arranged to receive and detect probe light backscattered within the sensing optical fibres; an optical switch arranged to switch between the sensing optical fibres, so as to direct each generated probe light pulse to a currently selected one of the sensing optical fibres, and to direct backscattered probe light from a currently selected one of the sensing optical fibres to the detector, the sensor being arranged to control the optical switch such that all of the sensing optical fibres can be used concurrently to detect acoustic vibration; and an analyser arranged to determine acoustic vibration, as a concurrent function of position along each of the sensing optical fibres, from the detected backscattered probe light. a probe light source arranged to generate pulses of probe light for transmission to the sensing optical fibres; a detector arranged to receive and detect probe light backscattered within the sensing optical fibres; an optical switch arranged to switch between the sensing optical fibres, so as to direct each generated probe light pulse to a currently selected one of the sensing optical fibres, and to direct backscattered probe light from a currently selected one of the sensing optical fibres to the detector, the sensor being arranged to control the optical switch such that all of the sensing optical fibres can be used concurrently to detect acoustic vibration; and an analyser arranged to determine acoustic vibration, as a concurrent function of position along each of the sensing optical fibres, from the detected backscattered probe light.
Device for the waste gas purification of a burner (B1, B2, B3), having a mixing apparatus in which a liquid additive, in particular a urea-water solution, can be injected into the waste gas, wherein the outlet of the mixing apparatus is coupled to a catalytic converter for the NOx reduction by means of SCR, wherein the mixing apparatus comprises a mixing tube with an inlet and with an outlet, which comprises an inlet preferably arranged laterally for supplying the additive and for supplying cooling air, characterized in that a lateral flange is provided, which comprises a central inlet for supplying the additive, preferentially at an angle of 90°, and a connection for supplying cooling air, in that on the flange an annular gap arranged concentrically to the nozzle is provided, via which cooling air from the outside can be supplied into the waste gas flow, and in that a blower is provided, from which the cooling air under pressure can be supplied into the waste gas flow, wherein the annular gap is dimensioned in such a way, and the cooling air from the housing can be supplied with such a pressure, that during the operation an outlet velocity of the cooling air of 20 m/s to 60 m/s is obtained.
A method for configuring a first user equipment, UE, to exchange sidelink packets with at least a second UE, the method comprising: receiving, at the first UE, via radio resource control, RRC, signaling, through a first interface, a first sidelink configuration from a first cell during a handover procedure to a second cell, wherein the first sidelink configuration is configured by the second cell partly based on a second sidelink configuration stored at the first UE and received from the first cell and partly decided by the second cell; and exchanging, through a second interface, one or more sidelink packets with the second UE based on the first sidelink configuration received from the first cell during the handover procedure, wherein: the first interface is configurable to be one of a long term evolution, LTE, Uu interface and a new radio, NR, Uu interface, and the second interface is configurable to be one of an LTE PC5 interface and an NR PC5 interface. receiving, at the first UE, via radio resource control, RRC, signaling, through a first interface, a first sidelink configuration from a first cell during a handover procedure to a second cell, wherein the first sidelink configuration is configured by the second cell partly based on a second sidelink configuration stored at the first UE and received from the first cell and partly decided by the second cell; and exchanging, through a second interface, one or more sidelink packets with the second UE based on the first sidelink configuration received from the first cell during the handover procedure, wherein: the first interface is configurable to be one of a long term evolution, LTE, Uu interface and a new radio, NR, Uu interface, and the second interface is configurable to be one of an LTE PC5 interface and an NR PC5 interface. the first interface is configurable to be one of a long term evolution, LTE, Uu interface and a new radio, NR, Uu interface, and the second interface is configurable to be one of an LTE PC5 interface and an NR PC5 interface.
An apparatus, comprising: a sensor cable; and seismic sensors distributed throughout a volume of the sensor cable and along all three axes of the sensor cable, wherein the seismic sensors are assigned to sampling groups (56, 58, 60, 62) that are reconfigurable and not hardwired; and a computer system configured to determine directional derivatives in all three axes of the sensor cable using contributions from two or more of the seismic sensors that are not located in line with a direction of the directional derivatives, wherein the two or more of the seismic sensors are distributed in the sensor cable at different x-, y-, and/or z-positions; characterized in that the seismic sensors are spaced regularly or irregularly on two or more sensor strips and in that the sensor strips are arranged in helical patterns along the sensor cable. a sensor cable; and seismic sensors distributed throughout a volume of the sensor cable and along all three axes of the sensor cable, wherein the seismic sensors are assigned to sampling groups (56, 58, 60, 62) that are reconfigurable and not hardwired; and a computer system configured to determine directional derivatives in all three axes of the sensor cable using contributions from two or more of the seismic sensors that are not located in line with a direction of the directional derivatives, wherein the two or more of the seismic sensors are distributed in the sensor cable at different x-, y-, and/or z-positions; characterized in that the seismic sensors are spaced regularly or irregularly on two or more sensor strips and in that the sensor strips are arranged in helical patterns along the sensor cable.
A method for producing a three-dimensional high-strength fiber composite component with an isotropic fiber distribution with a load-dependent material distribution made of stiff high-modulus fibers and a plastic matrix, comprising the steps of: - fiber preparation (1, 2, 3) by opening the fibers by releasing the same from fiber bundles, bales or textile structures; - mixing of the fibers after the opening with at least one binding fiber, wherein the mass proportion of the binding fibers in the entire fiber mass after the mixing is 5% by weight or less than 5% by weight; - interactively controlled sucking and/or blowing of the opened fibers onto a three-dimensional air-permeable half mold with the contour of this side of the component; - preliminarily solidifying the obtained fiber preform in a flockbox; - transferring the fiber preform to a pressing mold in the form of the contour of the air-permeable half mold of the component; - contacting with at least one liquid plastic material; and - solidifying the fiber preform by pressing into a component. - fiber preparation (1, 2, 3) by opening the fibers by releasing the same from fiber bundles, bales or textile structures; - mixing of the fibers after the opening with at least one binding fiber, wherein the mass proportion of the binding fibers in the entire fiber mass after the mixing is 5% by weight or less than 5% by weight; - interactively controlled sucking and/or blowing of the opened fibers onto a three-dimensional air-permeable half mold with the contour of this side of the component; - preliminarily solidifying the obtained fiber preform in a flockbox; - transferring the fiber preform to a pressing mold in the form of the contour of the air-permeable half mold of the component; - contacting with at least one liquid plastic material; and - solidifying the fiber preform by pressing into a component.
An offshore wind turbine on α floating support structure comprising in combination: - a main floater comprising a part of substantially cylindrical shape, - a concrete circular element of diameter Dd greater than diameter Dc of main floater, making up both a stationary mass at the base of the floater and damping means, - supplementary permanent ballast means arranged at the base of the main floater, - dynamic ballast boxes included in the main floater and ringwise distributed on the periphery of said floater. - a main floater comprising a part of substantially cylindrical shape, - a concrete circular element of diameter Dd greater than diameter Dc of main floater, making up both a stationary mass at the base of the floater and damping means, - supplementary permanent ballast means arranged at the base of the main floater, - dynamic ballast boxes included in the main floater and ringwise distributed on the periphery of said floater. - dynamic ballast boxes included in the main floater and ringwise distributed on the periphery of said floater.
Two- or multi-component composition, comprising a) at least one (meth)acrylate; b) at least one compound of formula where n stands for a value from 1 to 20, in particular 1, 2, 3, 4, 5 or 6; R 1 stands for an n-valent organic residue; R 2 stands for an optionally substituted alkyl group, cycloalkyl group, aryl group, aralkyl group or together with R 3 closes a ring, which optionally comprises heteroatoms in or on the ring, or for a residue OR 4, where R 4 stands for an optionally substituted alkyl group, cycloalkyl group, aryl group or aralkyl group, or together with R 3 closes a ring, which optionally comprises heteroatoms in or on the ring, and where R 3 stands for an optionally substituted alkyl group, cycloalkyl group, aryl group, aralkyl group or together with R 2 closes a ring, which optionally comprises heteroatoms in or on the ring; c) at least one iron salt or iron complex compound; d) at least one peroxide and/or at least one perester and/or at least one hydroperoxide; e) at least one weak acid with a pKa value of 0.9 or more and 11.5 or less; wherein the first component K1 comprises at least the ingredient c), the second component K2 comprises at least the ingredient d), wherein the ingredients c) and d) are not part of the same component, and wherein the weight ratio a)/[a)+b)+c)+d)+e)] is greater than 0.7. a) at least one (meth)acrylate; b) at least one compound of formula where n stands for a value from 1 to 20, in particular 1, 2, 3, 4, 5 or 6; R 1 stands for an n-valent organic residue; R 2 stands for an optionally substituted alkyl group, cycloalkyl group, aryl group, aralkyl group or together with R 3 closes a ring, which optionally comprises heteroatoms in or on the ring, or for a residue OR 4, where R 4 stands for an optionally substituted alkyl group, cycloalkyl group, aryl group or aralkyl group, or together with R 3 closes a ring, which optionally comprises heteroatoms in or on the ring, and where R 3 stands for an optionally substituted alkyl group, cycloalkyl group, aryl group, aralkyl group or together with R 2 closes a ring, which optionally comprises heteroatoms in or on the ring; where n stands for a value from 1 to 20, in particular 1, 2, 3, 4, 5 or 6; R 1 stands for an n-valent organic residue; R 2 stands for an optionally substituted alkyl group, cycloalkyl group, aryl group, aralkyl group or together with R 3 closes a ring, which optionally comprises heteroatoms in or on the ring, or for a residue OR 4, where R 4 stands for an optionally substituted alkyl group, cycloalkyl group, aryl group or aralkyl group, or together with R 3 closes a ring, which optionally comprises heteroatoms in or on the ring, and where R 3 stands for an optionally substituted alkyl group, cycloalkyl group, aryl group, aralkyl group or together with R 2 closes a ring, which optionally comprises heteroatoms in or on the ring; c) at least one iron salt or iron complex compound; d) at least one peroxide and/or at least one perester and/or at least one hydroperoxide; e) at least one weak acid with a pKa value of 0.9 or more and 11.5 or less;