mhurhangee/patent-ind-claim-en huggingface dataset:
A method implemented in an access gateway of a network, the method comprising: obtaining channel state information for both fixed-line and radio interfaces from a premises equipment coupled to the network by both fixed and radio interfaces, wherein a fixed-line path between the access gateway and the premises equipment includes the fixed-line interface coupled to one or more metal or optical fiber lines and a radio path between the access gateway and the premises equipment includes one or more radio interfaces utilizing one or more radio bearers to reach the premises equipment; and scheduling transmission of packets of one or more data flows utilizing the fixed-line and radio paths toward the premises equipment based on at least the channel state information. obtaining channel state information for both fixed-line and radio interfaces from a premises equipment coupled to the network by both fixed and radio interfaces, wherein a fixed-line path between the access gateway and the premises equipment includes the fixed-line interface coupled to one or more metal or optical fiber lines and a radio path between the access gateway and the premises equipment includes one or more radio interfaces utilizing one or more radio bearers to reach the premises equipment; and scheduling transmission of packets of one or more data flows utilizing the fixed-line and radio paths toward the premises equipment based on at least the channel state information.
A nonaqueous electrolytic solution having an electrolyte salt dissolved in a nonaqueous solvent, the electrolyte salt comprising at least one first lithium salt (I) selected from LiPF 6 , LiBF 4 , LiN(SO 2 F) 2 , LiN(SO 2 CF 3 ) 2 , and LiN(SO 2 C 2 F 5 ) 2 , and a second lithium salt (II) being composed of one or more lithium salts (IIa) having an oxalate structure, and one or more lithium salts (IIb) selected from a lithium salt having a phosphate structure and from a lithium salt having an S=O group, the electrolyte salt containing four or more kinds of lithium salts in total.
Method for recognizing and determining the dimensions and the position in a 3D space of geometric shapes comprising the following steps: a) Acquiring one single image or a plurality of images in a time sequence, of a geometric shape, in the 3D space, using at least one camera, b) recognizing at least one image space quadrilateral (abed), if present, inside the one or more images acquired, said image space quadrilateral being the projection of a 3D space quadrilateral (ABCD), c) determining four pairs of coordinates representing the vertices of said at least one image space quadrilateral detected, d) determining a length measurement of one of the sides of said 3D space quadrilateral detected or the distance between one of the vertices of said 3D space quadrilateral detected and said at least one camera, e) establishing a system of coordinates in the 3D space, f) determining the direction, with respect to the origin of the system of coordinates in the 3D space, of the vertices of the 3D space quadrilateral, g) imposing the constraint that the 3D space quadrilateral is a parallelogram, h) determining the vectorial equations of the vertices of the parallelogram in the 3D space, i) calculating the position of the vertices of the parallelogram in the 3D space by solving said vectorial equations, j) determining the geometric quantities and dimensions of the parallelogram in the 3D space, a) Acquiring one single image or a plurality of images in a time sequence, of a geometric shape, in the 3D space, using at least one camera, b) recognizing at least one image space quadrilateral (abed), if present, inside the one or more images acquired, said image space quadrilateral being the projection of a 3D space quadrilateral (ABCD), c) determining four pairs of coordinates representing the vertices of said at least one image space quadrilateral detected, d) determining a length measurement of one of the sides of said 3D space quadrilateral detected or the distance between one of the vertices of said 3D space quadrilateral detected and said at least one camera, e) establishing a system of coordinates in the 3D space, f) determining the direction, with respect to the origin of the system of coordinates in the 3D space, of the vertices of the 3D space quadrilateral, g) imposing the constraint that the 3D space quadrilateral is a parallelogram, h) determining the vectorial equations of the vertices of the parallelogram in the 3D space, i) calculating the position of the vertices of the parallelogram in the 3D space by solving said vectorial equations, j) determining the geometric quantities and dimensions of the parallelogram in the 3D space,
A method for exfoliating a laminar material to form an exfoliated material, said laminar material being selected from graphite, tungsten sulfide, and talc, and said method comprising ultrasonicating said laminar material at a power of 10 to 1000W at a frequency of 2 to 200kHz, in an aqueous solution of a surfactant for sufficient time to form said exfoliated material, said time being between 0.5 and 60 minutes, wherein at all times during the ultrasonication the concentration of the surfactant in the solution is maintained sufficient to form a complete monolayer on the surfaces of the laminar material and the exfoliated material in the solution and at all times during the ultrasonication the concentration is sufficient to achieve a surface tension of 35 to 45mJ·m -2 , wherein the method comprises continuously adding the surfactant to the solution during the ultrasonicating so as to maintain the sufficient concentration, said laminar material comprising particles comprising aggregated laminae and said exfoliated material comprising particles of the deaggregated laminae.
Method for controlling the current of a multiphase machine which is operated with block commutation and has phase windings and a high-side switch and a lowside switch for each phase, characterized in that , in order to control the current, the switches (S1-S10) are driven by means of a drive scheme, as a result of which the block commutation angle is adapted in a stepped manner by using a drive scheme with a parallel connection of stator windings (1-5) or with a series connection of stator windings (1-5) depending on the respective operating point, wherein the number of phases of the multiphase machine is greater than 3.
Polyethylene composition having the following features: 1) density from 0.945 to 0.955 g/cm 3 , determined according to ISO 1183 at 23°C; 2) ratio MIF/MIP from more than 30 to 45, in particular from 31 to 45, where MIF is the melt flow index at 190°C with a load of 21.60 kg, and MIP is the melt flow index at 190°C with a load of 5 kg, both determined according to ISO 1133; 3) SIC Index from 1.0 to 2.5; 4) Long Chain Branching index equal to or greater than 0.85, in particular equal to or greater than 0.9; wherein the SIC Index is the Shear-Induced Crystallization Index, determined according to the following relation: SIC Index = t onset , SIC @ 1000 × t onset , quiescent / HLMI where t onset,SIC @1000 is measured in seconds and is the time required for crystallization onset under shear rate of 1000 s -1 , the t onset, quiescent is measured in seconds and is the crystallization onset time at temperature of 125°C under no shear, determined in isothermal mode by differential scanning calorimetry; HLMI is the melt flow index determined at 190°C with a load of 21.6 kg, according to ISO 1133. 1) density from 0.945 to 0.955 g/cm 3 , determined according to ISO 1183 at 23°C; 2) ratio MIF/MIP from more than 30 to 45, in particular from 31 to 45, where MIF is the melt flow index at 190°C with a load of 21.60 kg, and MIP is the melt flow index at 190°C with a load of 5 kg, both determined according to ISO 1133; 3) SIC Index from 1.0 to 2.5; 4) Long Chain Branching index equal to or greater than 0.85, in particular equal to or greater than 0.9;
A solid-state thin film battery comprising: a) a substrate having a first surface; b) a first current collector on the first surface of the substrate; c) a second current collector having a first surface and a perimeter, wherein one of the first and second current collector is an anode current collector and the other is a cathode current collector; d) a cathode material having a perimeter, the cathode material being located on the cathode current collector; e) a solid electrolyte layer having a perimeter, the electrolyte separating the cathode material from the anode current collector; f) an insulation layer having a perimeter, the insulation layer together with the electrolyte layer separating the anode current collector from the cathode material and the cathode current collector; g) a first passivation layer generally overlying at least the perimeter of the cathode material, the perimeter of the electrolyte, and the perimeter of the insulation layer, the first passivation layer being electrically coupled to the first current collector and forming a continuous metal to metal seal around a defined area of the first current collector, the first passivation layer having a via opening , and h) a second passivation layer electrically coupled to the second current collector through the via opening of the first passivation layer. a) a substrate having a first surface; b) a first current collector on the first surface of the substrate; c) a second current collector having a first surface and a perimeter, wherein one of the first and second current collector is an anode current collector and the other is a cathode current collector; d) a cathode material having a perimeter, the cathode material being located on the cathode current collector; e) a solid electrolyte layer having a perimeter, the electrolyte separating the cathode material from the anode current collector; f) an insulation layer having a perimeter, the insulation layer together with the electrolyte layer separating the anode current collector from the cathode material and the cathode current collector; g) a first passivation layer generally overlying at least the perimeter of the cathode material, the perimeter of the electrolyte, and the perimeter of the insulation layer, the first passivation layer being electrically coupled to the first current collector and forming a continuous metal to metal seal around a defined area of the first current collector, the first passivation layer having a via opening , and h) a second passivation layer electrically coupled to the second current collector through the via opening of the first passivation layer.
Connecting rod for an internal combustion engine with variable compression, comprising a crankpin bearing eye for the attachment of the connecting rod to a crankshaft of the internal combustion engine, a connecting-rod bearing eye for the attachment of the connecting rod to a cylinder piston of the internal combustion engine, an eccentric adjustment device for the adjustment of an effective connecting rod length , wherein the eccentric adjustment device has an eccentric which interacts with an eccentric lever and in which a piston pin of the cylinder piston can be intentionally received, wherein the eccentric adjustment device has at least one cylinder with a piston which is guided displaceably in a cylinder bore and which is connected to a support rod , wherein the eccentric lever has two eccentric lever segments which are connected by means of at least one connecting pin to which the support rod is articulatedly connected, wherein the at least one connecting pin is formed as a cylinder roller which, with end regions , projects out at outer surfaces of the eccentric lever segments and which is of heat-treated form at least in said end regions .
An electrochemical double-layer capacitor, comprising: a cathode; an anode; a separator; an electrolyte comprising an ionic species, a stabilizer and a solvent, wherein the ionic species is a quaternary ammonium salt, the stabilizer is benzonitrile, and the solvent is acetonitrile; and an additive which is an alkyl halide or an aryl halide; wherein a concentration of the additive in the electrolyte of the electrochemical double-layer capacitor is about 0.1 vol% to about 10 vol%. a cathode; an anode; a separator; an electrolyte comprising an ionic species, a stabilizer and a solvent, wherein the ionic species is a quaternary ammonium salt, the stabilizer is benzonitrile, and the solvent is acetonitrile; and an additive which is an alkyl halide or an aryl halide; wherein a concentration of the additive in the electrolyte of the electrochemical double-layer capacitor is about 0.1 vol% to about 10 vol%.
Electric welding coupler for the welding of pipes made of thermoplastic material or other weldable plastics comprising a cylindrical body made of thermoplastic material or other weldable plastics, containing at least one welding element , wherein the welding element is arranged close to the inner diameter of the cylindrical body , wherein the welding element forms at least two welding zones , a contact for feeding the electric current and at least one cavity , wherein the cavity is arranged in the cylindrical body , characterized in that a reinforcing ring is arranged around the outer circumference respectively outer diameter of the cylindrical body .
A thermally-insulating composite elevation panel, characterised in that it comprises an elevation board and a frame for supporting and attaching the panel to a building wall, preferably a metal one, which are permanently connected to each other through an insulating layer between them, the insulating layer being constituted by a plastic foam which, during its foaming process, permanently connects the elevation panel with the frame , wherein the plastic foam is composed of a polystyrene polyurethane foam, PSUR, wherein PSUR is a composite material composed of a mixture of two plastic materials: rigid polyurethane foam (PUR) and expanded polystyrene (EPS).
A toric ophthalmic lens comprising an optical element, the optical element having meridians associated therewith, including a first radially modulated high power meridian (H) and a low power meridian (L) orthogonal to the high power meridian, the optical element having a second radially modulated meridian along which power monotonically varies with increasing radial position, wherein power along the second radially modulated meridian monotonically varies in a stepwise manner with increasing radial position and, wherein along the first radially modulated high power meridian: between an originating position and a respective first radial position, power equals a respective nominal power; between the respective first radial position and a respective second radial position, power is greater than the respective nominal power; and between the respective second radial position and a respective third radial position, power is less than the respective nominal power, wherein the nominal power corresponds to the power of a conventional standard toric lens at the same meridian, and the nominal power varies between the power at the high power meridian and the power at the low power meridian. between an originating position and a respective first radial position, power equals a respective nominal power; between the respective first radial position and a respective second radial position, power is greater than the respective nominal power; and between the respective second radial position and a respective third radial position, power is less than the respective nominal power, wherein the nominal power corresponds to the power of a conventional standard toric lens at the same meridian, and the nominal power varies between the power at the high power meridian and the power at the low power meridian.
A method for controlling a light intensity of an outdoor light in a first spatial direction , the method being performed by an electronic control device , the method comprising: at a first time, determining that precipitation starts and, in response to the precipitation starting, controlling the light intensity such that the light intensity is reduced from a first light intensity value at the first time to a second light intensity value at a second time with a first delay; and characterized in that the method further comprises: determining a first ambient temperature; and determining a value of the first delay as a function of the first ambient temperature. at a first time, determining that precipitation starts and, in response to the precipitation starting, controlling the light intensity such that the light intensity is reduced from a first light intensity value at the first time to a second light intensity value at a second time with a first delay; and characterized in that the method further comprises: determining a first ambient temperature; and determining a value of the first delay as a function of the first ambient temperature. determining a first ambient temperature; and determining a value of the first delay as a function of the first ambient temperature.
A method in a user equipment UE for determining an allocated physical uplink control channel PUCCH resource, the method comprising: receiving, at the UE, an indication carried in a control channel, the indication related to specification of an allocated PUCCH resource region from among a plurality of PUCCH resource regions, the allocated PUCCH resource region including a plurality of PUCCH resources; and selecting, at the UE, a first one of the plurality of PUCCH resources within the allocated PUCCH resource region to be the allocated PUCCH resource, wherein the selecting further comprises: determining a position of the control channel carrying the indication; and mapping the position of the control channel carrying the indication to a resource index in the allocated PUCCH resource region that corresponds to the first PUCCH resource. receiving, at the UE, an indication carried in a control channel, the indication related to specification of an allocated PUCCH resource region from among a plurality of PUCCH resource regions, the allocated PUCCH resource region including a plurality of PUCCH resources; and selecting, at the UE, a first one of the plurality of PUCCH resources within the allocated PUCCH resource region to be the allocated PUCCH resource, wherein the selecting further comprises: determining a position of the control channel carrying the indication; and mapping the position of the control channel carrying the indication to a resource index in the allocated PUCCH resource region that corresponds to the first PUCCH resource. determining a position of the control channel carrying the indication; and mapping the position of the control channel carrying the indication to a resource index in the allocated PUCCH resource region that corresponds to the first PUCCH resource.
A quantum dot light-emitting diode, comprising: a cathode and an anode which are oppositely arranged; a quantum dot light-emitting layer arranged between the cathode and the anode; and a stacked layer arranged between the cathode and the quantum dot light-emitting layer; wherein a stacked layer comprises: a first metal oxide nanoparticle layer, and a mixed material layer arranged on a surface of the first metal oxide nanoparticle layer far away from the quantum dot light-emitting layer; the mixed material layer comprises: first metal oxide nanoparticles, and a second metal oxide dispersed among gaps of the first metal oxide nanoparticles; first metal oxide nanoparticles in the first metal oxide nanoparticle layer serve as an electron transport material; and a content of the second metal oxide in the mixed material layer gradually increases in a direction from the quantum dot light-emitting layer to the cathode. a cathode and an anode which are oppositely arranged; a quantum dot light-emitting layer arranged between the cathode and the anode; and a stacked layer arranged between the cathode and the quantum dot light-emitting layer; wherein a stacked layer comprises: a first metal oxide nanoparticle layer, and a mixed material layer arranged on a surface of the first metal oxide nanoparticle layer far away from the quantum dot light-emitting layer; the mixed material layer comprises: first metal oxide nanoparticles, and a second metal oxide dispersed among gaps of the first metal oxide nanoparticles; first metal oxide nanoparticles in the first metal oxide nanoparticle layer serve as an electron transport material; and a content of the second metal oxide in the mixed material layer gradually increases in a direction from the quantum dot light-emitting layer to the cathode.
A thermal interface material composition comprising: a) a non-reactive polyurethane prepolymer, which i) is a reaction product of at least one polyisocyanate and at least one hydroxy group containing compound, and ii) contains less than 0.8 wt% of residual isocyanate groups; b) 70-95 wt% of aluminum trihydroxide; c) 0.15-1.5 wt% of at least one silane terminated urethane prepolymer; and d) 1-20 wt% of at least one plasticizer, with the total weight of the thermal interface material totaling to 100 wt%. a) a non-reactive polyurethane prepolymer, which i) is a reaction product of at least one polyisocyanate and at least one hydroxy group containing compound, and ii) contains less than 0.8 wt% of residual isocyanate groups; b) 70-95 wt% of aluminum trihydroxide; c) 0.15-1.5 wt% of at least one silane terminated urethane prepolymer; and d) 1-20 wt% of at least one plasticizer,
Driver assistance method for a vehicle , having the following method steps • detecting a start input, and • capturing/measuring a sequence of camera images and/or distances between the vehicle and objects in surroundings of the vehicle , • loading a stored travel corridor , the travel corridor having been determined by way of a training method, • ascertaining at least one assisted trajectory on the basis of the vehicle geometry, on the basis of the captured sequence of camera images and/or the measured distances and on the basis of the loaded travel corridor , • controlling the vehicle on the basis of the ascertained assisted trajectory, at least one drive motor and/or a steering motor of the vehicle being controlled, characterized in that the following method step is performed • the start input is automatically detected on the basis of a time statement assigned to the loaded travel corridor . • detecting a start input, and • capturing/measuring a sequence of camera images and/or distances between the vehicle and objects in surroundings of the vehicle , • loading a stored travel corridor , the travel corridor having been determined by way of a training method, • ascertaining at least one assisted trajectory on the basis of the vehicle geometry, on the basis of the captured sequence of camera images and/or the measured distances and on the basis of the loaded travel corridor , • controlling the vehicle on the basis of the ascertained assisted trajectory, at least one drive motor and/or a steering motor of the vehicle being controlled, characterized in that the following method step is performed • the start input is automatically detected on the basis of a time statement assigned to the loaded travel corridor .