mhurhangee/ep-ind-claims huggingface dataset:
Process for the in-situ production of a load-bearing fixing element (5, 8, 12) comprising a) provision of one or more substrates, b) arrangement of a single- or multipart casting mould (1, 7, 9, 13) on the substrate or on the substrates, c) charging of a liquid adhesive to the casting mould (1, 7, 9, 13) through an aperture, and d) hardening of the adhesive on the substrate(s), where in c), a quick-hardening two-component adhesive based on polyurea, which hardens to give a thermoset, is charged to the casting mould (1, 7, 9, 13) where the two-component adhesive comprises an isocyanate-containing component A and an amine-containing component B, where - component A comprises an isocyanate-terminated prepolymer with isocyanate functionality ≥ 1.7; and - component B comprises at least one di- and/or polyamine, and where the stoichiometric ratio of isocyanate groups in component A to amine groups in component B is 0.5 to 1.2. a) provision of one or more substrates, b) arrangement of a single- or multipart casting mould (1, 7, 9, 13) on the substrate or on the substrates, c) charging of a liquid adhesive to the casting mould (1, 7, 9, 13) through an aperture, and d) hardening of the adhesive on the substrate(s), - component A comprises an isocyanate-terminated prepolymer with isocyanate functionality ≥ 1.7; and - component B comprises at least one di- and/or polyamine,
A method, comprising: receiving a packet data convergence protocol, PDCP, protocol data unit, PDU; determining that the received PDCP PDU is outside of a reordering window and that header compression is not configured by upper layers for the received PDCP PDU; and in response to said determining, discarding the received PDCP PDU without performing deciphering or header decompression for the received PDCP PDU. receiving a packet data convergence protocol, PDCP, protocol data unit, PDU; determining that the received PDCP PDU is outside of a reordering window and that header compression is not configured by upper layers for the received PDCP PDU; and in response to said determining, discarding the received PDCP PDU without performing deciphering or header decompression for the received PDCP PDU.
Vehicle for conveyance of passengers, in particular rail-bound vehicle for conveyance of passengers through tunnels, such as passenger trains, underground railways or other means of public transport, comprising an evacuation light, in particular for handrails or grab rails leading downwards and outwards on carriage doors on the carriage interior, for the marking of escape routes that is reliable and found to be intuitive comprising a handrail or a grab rail, wherein the handrail or respectively the grab rail is embodied as a tube provided with at least one longitudinal slot extending along the latter, behind which the evacuation light is arranged, wherein the evacuation light is embodied as green or preferably green-red switchable illumination in the form of interconnected light-emitting diodes or LED strips, which extends longitudinally in the handrail or respectively in the grab rail and is integrated therein, wherein the light-emitting diodes or LED strips are connected to a switchable decentralized power supply, wherein the light-emitting diodes or LED strips are remotely controllable, specifically in such a way that the light-emitting diodes or the LED strips of a respective vehicle side are switchable separately, wherein the evacuation light consists of a see-through or transparent plastic tube or a particularly fracture-resistant glass tube, which is insertable into the handrails or grab rails and in which the interconnected light-emitting diodes or LED strips are arranged, wherein the plastic or glass tube has such an external diameter that allows the plastic or glass tube to be inserted into the handrail or into the grab rail virtually without play, and wherein the handrail or respectively the grab rail is longitudinally divisble at least at an end region of a straight part of the handrail or the grab rail for insertion of the plastic or glass tube by means of a plug, screw or bayonet connection.
A handover method, comprising: sending, by a source base station, a handover request to a target base station, wherein the handover request comprises a context of a current serving small node, a context of user equipment, UE, and an indication for using the current serving small node as a user plane serving node after the UE is handed over, and using the target base station as a control plane serving node after the UE is handed over; receiving, by the source base station, a handover request acknowledgement from the target base station, wherein the handover request acknowledgement comprises radio resource control, RRC, reconfiguration information of the UE and configuration information of the current serving small node; and sending, by the source base station, the configuration information of the current serving small node to the current serving small node, and sending, by the source base station, the RRC reconfiguration information of the UE to the UE. sending, by a source base station, a handover request to a target base station, wherein the handover request comprises a context of a current serving small node, a context of user equipment, UE, and an indication for using the current serving small node as a user plane serving node after the UE is handed over, and using the target base station as a control plane serving node after the UE is handed over; receiving, by the source base station, a handover request acknowledgement from the target base station, wherein the handover request acknowledgement comprises radio resource control, RRC, reconfiguration information of the UE and configuration information of the current serving small node; and sending, by the source base station, the configuration information of the current serving small node to the current serving small node, and sending, by the source base station, the RRC reconfiguration information of the UE to the UE.
A manufacturing method of a non-oriented electrical steel sheet, comprising: on a slab having a steel composition consisting of, in mass%, C: 0.005% or less, Si: 0.1% to 1.6%, Mn: 0.05% to 0.6%, P: 0.100% or less, Al: 0.03% to 0.5%, N: 40 ppm or less, at least one of Sn and Sb of 0.05% to 0.15%, optionally B of 0.0005% to 0.0030%, and a balance being composed of Fe and inevitable impurities, performing hot rolling to obtain a hot-rolled steel sheet; performing hot rolling annealing on the hot-rolled steel sheet to obtain a hot-rolled annealed steel sheet; pickling the hot-rolled annealed steel sheet; performing cold rolling on the pickled hot-rolled annealed steel sheet to obtain a cold-rolled steel sheet; and performing finish annealing on the cold-rolled steel sheet, wherein in the hot rolling, a heating temperature of the slab is set to 1050°C to 1250°C, a finish rolling finishing temperature is set to 800°C to an Ar1 transformation point + 20°C, and a coil winding temperature is set to 500°C to 700°C, and an annealing temperature in the hot rolling annealing is set to 750°C to an Ac1 transformation point for a maintaining time period of 1 to 120 minutes and an annealing temperature in the finish annealing is set to 800°C to the Ac1 transformation point. on a slab having a steel composition consisting of, in mass%, C: 0.005% or less, Si: 0.1% to 1.6%, Mn: 0.05% to 0.6%, P: 0.100% or less, Al: 0.03% to 0.5%, N: 40 ppm or less, at least one of Sn and Sb of 0.05% to 0.15%, optionally B of 0.0005% to 0.0030%, and a balance being composed of Fe and inevitable impurities, performing hot rolling to obtain a hot-rolled steel sheet; performing hot rolling annealing on the hot-rolled steel sheet to obtain a hot-rolled annealed steel sheet; pickling the hot-rolled annealed steel sheet; performing cold rolling on the pickled hot-rolled annealed steel sheet to obtain a cold-rolled steel sheet; and performing finish annealing on the cold-rolled steel sheet, wherein in the hot rolling, a heating temperature of the slab is set to 1050°C to 1250°C, a finish rolling finishing temperature is set to 800°C to an Ar1 transformation point + 20°C, and a coil winding temperature is set to 500°C to 700°C, and an annealing temperature in the hot rolling annealing is set to 750°C to an Ac1 transformation point for a maintaining time period of 1 to 120 minutes and an annealing temperature in the finish annealing is set to 800°C to the Ac1 transformation point.
Micromechanical rate-of-rotation sensor having a substrate, which has an anchoring device provided on the substrate and a gyrating mass, which is connected to the anchoring device by flexible spring devices connected to the gyrating mass in such a way that the gyrating mass can be deflected resiliently out of its rest position about an axis of rotation lying perpendicular to the substrate surface and is capable of a rotational oscillation, two flexible spring devices being provided beside each other with mirror-symmetry along their greatest extent and together forming a flexible spring, and two flexible springs being arranged in a V shape in such a way that the legs are spread apart towards the gyrating mass at an opening angle, the flexible spring devices each being connected by one end to the anchoring device and each having a curve in the region of the one end, characterized in that the curve is formed in such a way that the distance between the two flexible spring devices in the region of the one end increases in the direction of the anchoring device.
A method for dielectrically insulating an electrical active part wherein the electrical active part is arranged in a gas-tight housing comprising an insulating medium consisting of, consisting essentially of, or comprising a compound of general formula: F-N(C n H m F (2n+1)-m)(C n' H m' F (2n'+1)-m') wherein n is 1, 2, 3, 4, or 5 and m is an integer between 0 and 2n and wherein n' is 2, 3, 4, or 5 and m' is an integer between 0 and 2n'.
A snow plow comprising a travel frame having a travel device, an auger housing having an auger and capable of being raised and lowered relative to the travel frame, a raising/lowering drive mechanism for raising and lowering the auger housing, and a control unit for controlling the raising/lowering drive mechanism so as to raise the auger housing to a predetermined upper limit angle ( β hu) when the travel device is reversing, characterized in that the snow plow further includes an acceleration sensor for detecting acceleration ( α h) produced in the auger housing, the control unit is adapted to determine an angle of inclination ( θ h) of the auger housing on the basis of the acceleration ( α h) detected by the acceleration sensor, and when a condition is satisfied that the travel device starts moving forward after having temporarily moved in reverse, the control unit: sets an intermediate lowering target angle of inclination ( θ m), which is in a lowering path of the auger housing from the upper limit angle ( β hu) to a pre-reversing angle of inclination ( θ min), in accordance with a forward acceleration ( α h), controls the raising/lowering drive mechanism so that the auger housing is lowered at a given lowering speed (Sc) from the upper limit angle ( β hu) to the intermediate lowering target angle of inclination ( θ m); and controls the raising/lowering drive mechanism so that the auger housing is lowered at a gradually decreasing lowering speed (Sv) from the intermediate lowering target angle of inclination ( θ m) to the pre-reversing angle of inclination ( θ min). sets an intermediate lowering target angle of inclination ( θ m), which is in a lowering path of the auger housing from the upper limit angle ( β hu) to a pre-reversing angle of inclination ( θ min), in accordance with a forward acceleration ( α h), controls the raising/lowering drive mechanism so that the auger housing is lowered at a given lowering speed (Sc) from the upper limit angle ( β hu) to the intermediate lowering target angle of inclination ( θ m); and controls the raising/lowering drive mechanism so that the auger housing is lowered at a gradually decreasing lowering speed (Sv) from the intermediate lowering target angle of inclination ( θ m) to the pre-reversing angle of inclination ( θ min).
Method for operating a hearing device, - wherein the hearing device comprises a microphone by means of which ambient sound is picked up and converted into an input signal comprising a useful component and an interference component, - wherein a stationarity (st_I) of the input signal is determined, stationarity (st_I) being understood to mean a measure of the variability of a signal over time, a signal that changes little over time having higher stationarity than a signal that changes more sharply in comparison, - wherein an input level of the input signal is measured, - wherein an estimated interference component (N_est) of the input signal is determined and is multiplied by a scaling factor (sc), resulting in a scaled, estimated interference component (sc*N_est), - wherein the scaling factor (sc) is determined according to stationarity, specifically on the basis of a function that indicates the scaling factor (sc) according to the stationarity (st_I) of the input signal, - wherein a signal-to-noise ratio of the input signal is calculated by calculating a difference between the input level and the scaled, estimated interference component (sc*N_est) and by calculating the signal-to-noise ratio as a ratio of the difference in relation to the scaled, estimated interference component (sc*N_est) or merely in relation to the estimated interference component (N_est), - wherein the signal-to-noise ratio is taken as a basis for setting an operating parameter of the hearing device. - wherein the hearing device comprises a microphone by means of which ambient sound is picked up and converted into an input signal comprising a useful component and an interference component, - wherein a stationarity (st_I) of the input signal is determined, stationarity (st_I) being understood to mean a measure of the variability of a signal over time, a signal that changes little over time having higher stationarity than a signal that changes more sharply in comparison, - wherein an input level of the input signal is measured, - wherein an estimated interference component (N_est) of the input signal is determined and is multiplied by a scaling factor (sc), resulting in a scaled, estimated interference component (sc*N_est), - wherein the scaling factor (sc) is determined according to stationarity, specifically on the basis of a function that indicates the scaling factor (sc) according to the stationarity (st_I) of the input signal, - wherein a signal-to-noise ratio of the input signal is calculated by calculating a difference between the input level and the scaled, estimated interference component (sc*N_est) and by calculating the signal-to-noise ratio as a ratio of the difference in relation to the scaled, estimated interference component (sc*N_est) or merely in relation to the estimated interference component (N_est), - wherein the signal-to-noise ratio is taken as a basis for setting an operating parameter of the hearing device.
Cosmetic use of at least one compound of general formula: in which: - R1 represents ethyl radical; - R2 represents a hydrogen atom; - R3 represents a linear C1-C6 alkyl radical; and - X represents =O, as an agent for reducing and/or delaying the signs of skin ageing. - R1 represents ethyl radical; - R2 represents a hydrogen atom; - R3 represents a linear C1-C6 alkyl radical; and - X represents =O,
A method for obtaining a magnesium fluoride (MgF 2) sol solution, comprising the steps of a. providing magnesium carboxylate in a non-aqueous solvent in a first volume and b. adding, in a second volume, 1.85 to 2.05 molar equivalents of anhydrous hydrogen fluoride per mole magnesium carboxylate to said first volume, wherein at least one metal additive, selected from the group of lithium, calcium, antimony, tin, magnesium, strontium, aluminium, silicium, zirconium, titanium or zinc, is added before, during or after step b), wherein the amount of said metal additive, in relation to the amount of magnesium, is 1: 100 to 1: 5, as measured in molar equivalent of said metal additive to magnesium, wherein an additional amount of hydrogen fluoride (n adHF) is present in step b computed according to the formula n adHF = n M * X additive * Ox * A, wherein - n M is the molar amount of magnesium, - X additive is the molar percentage of said metal additive in relation to n M, - X additive is in the range of 1 % to 20 %, - Ox is the number characterizing the oxidation state of said metal additive, and - A is selected from 0 ≤ A ≤ 1, and wherein, the water content of the sol solution is equal to or lower than 2.5 molar equivalents in relation to the molar magnesium content of the solution. a. providing magnesium carboxylate in a non-aqueous solvent in a first volume and b. adding, in a second volume, 1.85 to 2.05 molar equivalents of anhydrous hydrogen fluoride per mole magnesium carboxylate to said first volume, wherein - n M is the molar amount of magnesium, - X additive is the molar percentage of said metal additive in relation to n M, - X additive is in the range of 1 % to 20 %, - Ox is the number characterizing the oxidation state of said metal additive, and - A is selected from 0 ≤ A ≤ 1, and wherein,
A plated steel sheet, comprising an Al-containing Zn-based plating layer on at least a part of a surface of a steel sheet, wherein: an average chemical composition of the plating layer and an intermetallic compound layer between the plating layer and the steel sheet is represented by, in terms of mass%, Al: 10% to 40%, Si: 0.05% to 4%, Mg: 0% to 5%, and the balance: Zn and impurities; the plating layer includes: a first structure constituted from Al phases containing Zn in solid solution and Zn phases dispersed in the Al phases and having an average chemical composition represented by, in terms of mass%, Al: 25% to 50%, Zn: 50% to 75%, and impurities: less than 2%; and a eutectoid structure constituted from Al phases and Zn phases and having an average chemical composition represented by, in terms of mass%, Al: 10% to 24%, Zn: 76% to 90%, and impurities: less than 2%; in a cross section of the plating layer, an area fraction of the first structure is 5% to 40%, and a total area fraction of the first structure and the eutectoid structure is 50% or more; an area fraction of Zn phases which are structures containing 90% or more of Zn, contained in the plating layer is 25% or less; a total area fraction of intermetallic compound phases contained in the plating layer is 9% or less; and a thickness of the intermetallic compound layer is 2 μ m or less. an average chemical composition of the plating layer and an intermetallic compound layer between the plating layer and the steel sheet is represented by, in terms of mass%, Al: 10% to 40%, Si: 0.05% to 4%, Mg: 0% to 5%, and the balance: Zn and impurities; the plating layer includes: a first structure constituted from Al phases containing Zn in solid solution and Zn phases dispersed in the Al phases and having an average chemical composition represented by, in terms of mass%, Al: 25% to 50%, Zn: 50% to 75%, and impurities: less than 2%; and a eutectoid structure constituted from Al phases and Zn phases and having an average chemical composition represented by, in terms of mass%, Al: 10% to 24%, Zn: 76% to 90%, and impurities: less than 2%; a first structure constituted from Al phases containing Zn in solid solution and Zn phases dispersed in the Al phases and having an average chemical composition represented by, in terms of mass%, Al: 25% to 50%, Zn: 50% to 75%, and impurities: less than 2%; and a eutectoid structure constituted from Al phases and Zn phases and having an average chemical composition represented by, in terms of mass%, Al: 10% to 24%, Zn: 76% to 90%, and impurities: less than 2%; in a cross section of the plating layer, an area fraction of the first structure is 5% to 40%, and a total area fraction of the first structure and the eutectoid structure is 50% or more; an area fraction of Zn phases which are structures containing 90% or more of Zn, contained in the plating layer is 25% or less; a total area fraction of intermetallic compound phases contained in the plating layer is 9% or less; and a thickness of the intermetallic compound layer is 2 μ m or less.
A method for mapping visual display screens to touch screens, the method comprising: presenting, on a content player, at least one screen image that includes at least one active region; determining active region information of the at least one active region including at least position information and color information; transmitting the determined active region information to at least one touch screen device via at least one touch screen device communication component, utilizing, by at least one touch screen device processing unit, the active region information to present a simulated version of the screen image on the touch screen; receiving, by the touch screen device processing unit, manipulation information for the active region via the touch screen and transmitting, by the touch screen device processing unit, the manipulation information to the content player via the touch screen device communication component, wherein the method comprises: generating, by the processing unit, the screen image by modifying at least one of a plurality of screen templates stored in a tangible medium, wherein the active region information identifies the screen templates and modification information; and utilizing, by the touch screen device processing unit, the identified screen templates and modification information to present the simulated version of the screen image on the touch screen. presenting, on a content player, at least one screen image that includes at least one active region; determining active region information of the at least one active region including at least position information and color information; transmitting the determined active region information to at least one touch screen device via at least one touch screen device communication component, utilizing, by at least one touch screen device processing unit, the active region information to present a simulated version of the screen image on the touch screen; receiving, by the touch screen device processing unit, manipulation information for the active region via the touch screen and transmitting, by the touch screen device processing unit, the manipulation information to the content player via the touch screen device communication component, wherein the method comprises: generating, by the processing unit, the screen image by modifying at least one of a plurality of screen templates stored in a tangible medium, wherein the active region information identifies the screen templates and modification information; and utilizing, by the touch screen device processing unit, the identified screen templates and modification information to present the simulated version of the screen image on the touch screen. generating, by the processing unit, the screen image by modifying at least one of a plurality of screen templates stored in a tangible medium, wherein the active region information identifies the screen templates and modification information; and utilizing, by the touch screen device processing unit, the identified screen templates and modification information to present the simulated version of the screen image on the touch screen.