mhurhangee/ep-ind-claims huggingface dataset:
Sealing arrangement, having a bearing bushing for a journal cross assembly of a universal joint, wherein the bearing bushing has a journal receptacle for receiving a journal of a journal cross, and a protective ring, which rests on an open end of the bearing bushing, comprising: an annular sleeve segment, formed concentrically to a longitudinal axis, an annular seat segment, extending at a rear axial end of the sleeve segment radially inwards, a plurality of webs arranged distributedly along the circumference projecting axially from the seat segment and arranged within the sleeve segment, wherein the bearing bushing is axially supported against the webs, and a circumferential end face facing axially away from the seat segment, which end face is arranged on the front axial end portion of the sleeve segment, characterised in, that the protective ring has at least one protrusion (39, 40), projecting at a front axial end portion of the sleeve segment radially inwards, that in the transition between the end face and the at least one protrusion (39, 40) a concave recess (46, 47) is arranged, that the at least one protrusion (39, 40) rests in an outer circumferential groove of the bearing bushing, and that a radial gap is formed between the bearing bushing and the sleeve segment of the protective ring. an annular sleeve segment, formed concentrically to a longitudinal axis, an annular seat segment, extending at a rear axial end of the sleeve segment radially inwards, a plurality of webs arranged distributedly along the circumference projecting axially from the seat segment and arranged within the sleeve segment, wherein the bearing bushing is axially supported against the webs, and a circumferential end face facing axially away from the seat segment, which end face is arranged on the front axial end portion of the sleeve segment, characterised in, that the protective ring has at least one protrusion (39, 40), projecting at a front axial end portion of the sleeve segment radially inwards, that in the transition between the end face and the at least one protrusion (39, 40) a concave recess (46, 47) is arranged, that the at least one protrusion (39, 40) rests in an outer circumferential groove of the bearing bushing, and that a radial gap is formed between the bearing bushing and the sleeve segment of the protective ring.
Method for forming an electrical contact, comprising: • grinding a silicon carbide surface using a grinding plate having an abrasive surface containing nickel or a nickel compound, in such a way that particles of the nickel or nickel compound from the grinding plate are embedded in the ground silicon carbide surface; and • annealing the ground silicon carbide surface by means of a laser, in such a way that at least some of the embedded nickel particles form a nickel silicide with silicon from the silicon carbide. • grinding a silicon carbide surface using a grinding plate having an abrasive surface containing nickel or a nickel compound, in such a way that particles of the nickel or nickel compound from the grinding plate are embedded in the ground silicon carbide surface; and • annealing the ground silicon carbide surface by means of a laser, in such a way that at least some of the embedded nickel particles form a nickel silicide with silicon from the silicon carbide.
Thermal conditioning system for a motor vehicle comprising: - an air-conditioning loop in which a refrigerant circulates and comprising a compressor, at least one evaporator making it possible to cool air intended to circulate toward the vehicle interior, and at least one expansion device, - a branch dedicated to the thermal treatment of a battery of the vehicle and comprising at least one exchanger of heat with the battery of the vehicle, and at least one expansion device, characterized in that it comprises a pressure regulation device making it possible to bring the refrigerant outgoing from the branch to a pressure value identical to that of the refrigerant outgoing from the evaporator of the air-conditioning loop, and in that the branch comprises a thermal treatment means arranged downstream of the heat exchanger and a thermal treatment means arranged upstream of the heat exchanger, according to the direction of flow of the refrigerant. - an air-conditioning loop in which a refrigerant circulates and comprising a compressor, at least one evaporator making it possible to cool air intended to circulate toward the vehicle interior, and at least one expansion device, - a branch dedicated to the thermal treatment of a battery of the vehicle and comprising at least one exchanger of heat with the battery of the vehicle, and at least one expansion device, characterized in that it comprises a pressure regulation device making it possible to bring the refrigerant outgoing from the branch to a pressure value identical to that of the refrigerant outgoing from the evaporator of the air-conditioning loop, and in that the branch comprises a thermal treatment means arranged downstream of the heat exchanger and a thermal treatment means arranged upstream of the heat exchanger, according to the direction of flow of the refrigerant.
A method of controlling access to a computer system, comprising: (a) receiving user identification information corresponding to a user; (b) retrieving a set of access policies corresponding to the user, the policies being derived from human readable access rules; (c) generating, responsive to authenticating the user, at least one specific access rule, based on the retrieved access policies associated with the user, for each of a plurality of security system sublayers, the specific access rules enabling the sublayers to provide filtering and deny access to prohibited resources and services; (d) distributing at least one of the generated specific access rules to at least one of the security system sublayers; (e) receiving, from the user, a request to access a computer system resource; and (f) determining whether the user is permitted to access at least a portion of the computer system resource based on the user identification information and each of the generated specific access rules that have been distributed to the sublayers. (a) receiving user identification information corresponding to a user; (b) retrieving a set of access policies corresponding to the user, the policies being derived from human readable access rules; (c) generating, responsive to authenticating the user, at least one specific access rule, based on the retrieved access policies associated with the user, for each of a plurality of security system sublayers, the specific access rules enabling the sublayers to provide filtering and deny access to prohibited resources and services; (d) distributing at least one of the generated specific access rules to at least one of the security system sublayers; (e) receiving, from the user, a request to access a computer system resource; and (f) determining whether the user is permitted to access at least a portion of the computer system resource based on the user identification information and each of the generated specific access rules that have been distributed to the sublayers.
A method for transmitting broadcast signals, the method comprising; encoding data of plural Physical Layer Pipes, PLPs, based on either Multi-input Single-Output, MISO, scheme or Multi-input Multi-Output, MIMO, scheme, wherein at least one of the PLPs are processed by the MISO scheme, and at least one of the other PLPs are processed by the MIMO scheme; building signal frames by mapping the encoded data of the PLPs; frequency interleaving data in the signal frames by interleaving paired consecutive input cells as an interleaving unit; and modulating the frequency interleaved data in the signal frames by Orthogonal Frequency Division Multiplexing, OFDM, scheme and transmitting broadcast signals having the modulated data by using two antennas, wherein the MIMO scheme includes: dividing data of the PLPs processed by the MIMO scheme into first and second PLP data, Quadrature Amplitude Modulation, QAM, mapping the first and second PLP data into first PLP symbols and second PLP symbols, respectively, MIMO processing the first PLP symbols and the second PLP symbols, wherein the first PLP symbols and the second PLP symbols are processed with a MIMO precoding matrix, said method characterised in that the MIMO precoding matrix is represented by 2 1 0 0 e j φ k β 0 0 1 − β cos ⁢ θ sin ⁢ θ sin ⁢ θ − cos ⁢ θ α 0 0 1 − α s 1 s 2 wherein the S 1 is the first PLP symbol and the S 2 is the second PLP symbol, the α is an input symbol power control factor the θ is a rotation angle, the Φ(k) is a value for phase hopping, and the β is an output symbol power control factor. dividing data of the PLPs processed by the MIMO scheme into first and second PLP data, Quadrature Amplitude Modulation, QAM, mapping the first and second PLP data into first PLP symbols and second PLP symbols, respectively, MIMO processing the first PLP symbols and the second PLP symbols, wherein the first PLP symbols and the second PLP symbols are processed with a MIMO precoding matrix, said method characterised in that the MIMO precoding matrix is represented by 2 1 0 0 e j φ k β 0 0 1 − β cos ⁢ θ sin ⁢ θ sin ⁢ θ − cos ⁢ θ α 0 0 1 − α s 1 s 2 wherein the S 1 is the first PLP symbol and the S 2 is the second PLP symbol, the α is an input symbol power control factor the θ is a rotation angle, the Φ(k) is a value for phase hopping, and the β is an output symbol power control factor.
A method performed by a user equipment device, UE, comprising: connecting to a base station, BS; establishing discontinuous reception, DRX, with the BS, wherein the DRX comprises a DRX cycle having a cycle length; transmitting a request for reference signal information to the BS, wherein the request for reference signal information indicates m slots prior to a DRX on duration and a duration of n slots; receiving the reference signal information from the BS in association with the DRX cycle length, wherein the reference signal information is transmitted m slots prior to the DRX on duration for a duration of n slots in response to the request for the reference signal information; performing tracking using the reference signal information. connecting to a base station, BS; establishing discontinuous reception, DRX, with the BS, wherein the DRX comprises a DRX cycle having a cycle length; transmitting a request for reference signal information to the BS, wherein the request for reference signal information indicates m slots prior to a DRX on duration and a duration of n slots; receiving the reference signal information from the BS in association with the DRX cycle length, wherein the reference signal information is transmitted m slots prior to the DRX on duration for a duration of n slots in response to the request for the reference signal information; performing tracking using the reference signal information.
A solid catalyst component for the (co)polymerization of olefins CH 2 =CHR, in which R is hydrogen or a hydrocarbyl radical with 1-12 carbon atoms, comprising Ti, Mg, and Cl, and an electron donor compound selected from the group consisting of alkyl and aryl esters of optionally substituted aromatic polycarboxylic acids, esters of malonic acids, esters of glutaric acids, esters of maleic acids, esters of succinic acids, diol derivatives chosen among dicarbamates, monoesters monocarbamates and monoesters monocarbonates, and 1,3 diethers of the formula: wherein R, R I, R II, R III, R IV and R V equal or different to each other, are hydrogen or hydrocarbon radicals having from 1 to 18 carbon atoms, and R VI and R VII, equal or different from each other, have the same meaning of R-R V except that they cannot be hydrogen; one or more of the R-R VII groups can be linked to form a cycle, or mixtures thereof, said catalyst component being characterized by the fact that it contains from 0.1 to 50%wt of Bi with respect to the total weight of said solid catalyst component.
A gate system for an amusement park attraction, comprising: a loading platform configured to rotate about a central vertical axis of the loading platform; a gate positioned on the loading platform, wherein the gate is configured to transition between a closed position and an open position; a gate actuation system coupled to the loading platform, wherein the gate actuation system is configured to actuate the gate between the closed position and the open position, based on feedback indicative of a position of a ride vehicle relative to the gate, to enable a guest to enter or exit the ride vehicle. a loading platform configured to rotate about a central vertical axis of the loading platform; a gate positioned on the loading platform, wherein the gate is configured to transition between a closed position and an open position; a gate actuation system coupled to the loading platform, wherein the gate actuation system is configured to actuate the gate between the closed position and the open position, based on feedback indicative of a position of a ride vehicle relative to the gate, to enable a guest to enter or exit the ride vehicle.
An optical layered body having a structure comprising: a substrate having a thickness of 125 um or less; and one or two or more functional layers having a thickness of 0.1 to 100 μm on at least one surface of the substrate, characterized in that a sesamol-type benzotriazole monomer is incorporated in the one or more functional layers, the optical layered body having a spectral transmittance at a wavelength of 380 nm of lower than 1%, a spectral transmittance at a wavelength of 410 nm of lower than 10%, and a spectral transmittance at a wavelength of 440 nm of 70% or higher. a substrate having a thickness of 125 um or less; and one or two or more functional layers having a thickness of 0.1 to 100 μm on at least one surface of the substrate, characterized in that a sesamol-type benzotriazole monomer is incorporated in the one or more functional layers, the optical layered body having a spectral transmittance at a wavelength of 380 nm of lower than 1%, a spectral transmittance at a wavelength of 410 nm of lower than 10%, and a spectral transmittance at a wavelength of 440 nm of 70% or higher.
A method for mechanically producing a wood structure with a decorational pattern, wherein partial patterns are processed onto a working face of the wood structure by moving at least one milling cutter of the processing head of a device for patterning transversely to the wood structure with the axis of rotation of the milling cutter at an inclined angle relative to the plane of said working face in such a way that grooves forming a partial pattern are formed onto the working face, each of the grooves having two planes set at an angle relative to each other while the depth of the groove changes in the transverse direction of the groove, and in the method, the wood structure is formed of at least two or more pieces of wood placed side by side, each of which has two edges, forming several grooves successively onto the working face of at least two pieces of wood, each groove with a single processing movement, of which each single processing movement starts or ends at the edge of the piece of wood so that the partial patterns together form the pattern of the wood structure.
A pocket comprising a first wall and a second wall, wherein the first wall and the second wall are connected, the first wall comprises at least two layers (130, 131) and two of the layers are connected at at least a portion of the periphery of the two layers and an unconnected portion of the periphery of the layers forms an opening, and each of the layers comprises at least one major surface (137a, 138a, 139a, 137b, 138b, 138c, 139c) wherein in a first configuration of the surfaces of the first wall an interior surface is formed by a first major surface, an exterior surface is formed by a second major surface, characterized in that at least two concealed surfaces are formed by the other major surfaces, and the major surfaces are movable through the opening to interchange the configuration of the surfaces of the first wall.
A minimum quantity lubrication system for supplying air and lubrication to a tool on a tool holder assembly, the MQL system comprising: an air supply line configured to fluidly couple to the tool; an air supply valve fluidly coupled to the air supply line and controlling a volumetric flow rate of air through the air supply line; at least one volumetric flow pump fluidly coupled to the lubricant supply line and supplying a supply of lubricant at a lubricant flow rate through the lubricant supply line; and a controller operably coupled to the air supply valve and the volumetric flow pump; characterized by a lubricant supply line configured to fluidly couple to the tool holder assembly independent of the air supply line and fluidly coupled to the air supply line within the tool holder assembly; wherein the controller operates the volumetric flow pump to supply a continuous flow of the supply of lubricant at a known and constant lubricant flow rate to the air supplied from the air supply line to atomize the lubricant within the supplied air internally of the tool holder assembly and fed internally through the tool. an air supply line configured to fluidly couple to the tool; an air supply valve fluidly coupled to the air supply line and controlling a volumetric flow rate of air through the air supply line; at least one volumetric flow pump fluidly coupled to the lubricant supply line and supplying a supply of lubricant at a lubricant flow rate through the lubricant supply line; and a controller operably coupled to the air supply valve and the volumetric flow pump; characterized by a lubricant supply line configured to fluidly couple to the tool holder assembly independent of the air supply line and fluidly coupled to the air supply line within the tool holder assembly; wherein the controller operates the volumetric flow pump to supply a continuous flow of the supply of lubricant at a known and constant lubricant flow rate to the air supplied from the air supply line to atomize the lubricant within the supplied air internally of the tool holder assembly and fed internally through the tool.
Cabin of an aircraft comprising a plurality of seats and at least one main calculator, wherein at least one seat of said plurality of seats is paired with a passenger terminal, said seat and said paired passenger terminal communicating with each other wirelessly in order to transmit digital data concerning the capacities for adjusting said seat from a management unit from said seat to the passenger terminal and in order to transmit digital data concerning instructions for adjusting said seat from the passenger terminal to the management unit of the seat, with the passenger terminal comprising a screen and an application software that interprets the data received from the management unit of the seat in order to display on a screen of the passenger terminal a representation of the possible adjustments for said seat and interpreting actions of an operator on buttons of the passenger terminal as instructions for adjusting the seat, and characterised in that at least one seat of the plurality of seats is identified in the cabin by a unique identifier comprising a graphic code affixed on the seat and decoded by the passenger terminal, and in that the main calculator is configured to build a table of passengers who are effectively on board from the personal data of a passenger, identified as a holder of a passenger terminal, said personal data being transmitted to the main calculator by each passenger terminal paired to a seat in the cabin.
A two-step process to produce oil or gas from a subterranean formation wherein in a first step the subterranean formation is treated with an aqueous composition containing a chelating agent selected from the group of glutamic acid N,N-diacetic acid or a salt thereof (GLDA), aspartic acid N,N-diacetic acid or a salt thereof (ASDA), methylglycine N,N-diacetic acid or a salt thereof (MGDA), and N-hydroxyethyl ethylenediamine N,N',N'-triacetic acid or a salt thereof (HEDTA) wherein the composition has a pH of between 3 and 6 and wherein, in a next step, in the outlet streams from the subterranean formation containing an aqueous phase containing the acidic chelating agent and/or the spent chelating agent and a non-aqueous phase the aqueous phase is separated from the non-aqueous phase, where the separation step comprises one or more steps chosen from-the group of (i) adding a chemical demulsifier, (ii) increasing the temperature of the emulsion, (iii) applying electrostatic fields that promote coalescence, and (iv) reducing the flow velocity that allows gravitational separation of oil or gas and water.
Method of characterizing a wet paint layer stack of a painted body, comprising at least two wet paint layers (4a, 4b), by individual wet paint layer parameters, based on fitting to a physical model, the method being carried out by a sensor system in a non-contact manner, the sensor system comprising an emitter system for emitting THz radiation, a detector system for detecting THz radiation, and a processing unit operationally coupled to the emitter system and the detector system, the method comprising: - Emitting, by the emitter system, a THz radiation signal towards the painted body such that the THz radiation interacts with the wet paint layer stack, - Detecting, by the detector system, a response signal being the THz radiation signal having interacted with the wet paint layer stack; - Determining model parameters of the physical model by optimizing the model parameters such that a predicted response signal of the physical model, which approximates the interaction of the THz radiation signal with the wet paint layer stack, is fitted to the detected response signal, wherein at least some of the model parameters are indicative of individual optical properties of the wet paint layers and of a wet paint layer thickness; and - Determining, from the determined model parameters, the individual paint layer parameters of at least one of the wet paint layers, including at least one predicted dry paint layer thickness. - Emitting, by the emitter system, a THz radiation signal towards the painted body such that the THz radiation interacts with the wet paint layer stack, - Detecting, by the detector system, a response signal being the THz radiation signal having interacted with the wet paint layer stack; - Determining model parameters of the physical model by optimizing the model parameters such that a predicted response signal of the physical model, which approximates the interaction of the THz radiation signal with the wet paint layer stack, is fitted to the detected response signal, wherein at least some of the model parameters are indicative of individual optical properties of the wet paint layers and of a wet paint layer thickness; and - Determining, from the determined model parameters, the individual paint layer parameters of at least one of the wet paint layers, including at least one predicted dry paint layer thickness.