mhurhangee/ep-ind-claims huggingface dataset:
A method for crowd-sourcing of location information by a fleet of vehicles, collectively generating and updating maps representing the location, comprising the following steps: obtaining (1, 2), from passages of at least two respective road vehicles at the location, vehicle registered data on the surrounding environment from environment sensors and positioning data from consumer-grade satellite positioning arrangements and from at least one of an inertial measurement unit and a wheel speed sensor; smoothing the positioning data to establish continuous trajectories for the respective vehicles; creating individual surrounding environment maps using the data on the surrounding environment and, as ground truth, the smoothed positioning data from each respective vehicle passage at the location; identifying, from the individual surrounding environment maps, submaps sharing area segments; cross-correlating pairs of submaps sharing area segments; using the information from the pairwise cross-correlation of submaps for optimizing each submaps offset relative a full map of the surrounding environment; merging the submaps into the full map of the surrounding environment. obtaining (1, 2), from passages of at least two respective road vehicles at the location, vehicle registered data on the surrounding environment from environment sensors and positioning data from consumer-grade satellite positioning arrangements and from at least one of an inertial measurement unit and a wheel speed sensor; smoothing the positioning data to establish continuous trajectories for the respective vehicles; creating individual surrounding environment maps using the data on the surrounding environment and, as ground truth, the smoothed positioning data from each respective vehicle passage at the location; identifying, from the individual surrounding environment maps, submaps sharing area segments; cross-correlating pairs of submaps sharing area segments; using the information from the pairwise cross-correlation of submaps for optimizing each submaps offset relative a full map of the surrounding environment; merging the submaps into the full map of the surrounding environment.
A computer-implemented method, comprising: establishing, at a first client device (102-1, 102-2), a wireless communication link with a second client device (102-2, 102-1); receiving, at the first client device, and in response to a detection that the second client device is within a predefined proximity of the first client device, application information associated with a first application executing at the second client device, the second client device having a user interface state of the first application, at least a portion of the application information being received via the wireless communication link; and executing, at the first client device, a second application corresponding to the first application, the second application having an initial user interface state corresponding to the user interface state of the first application at the second client device; wherein executing the second application includes transitioning from a system state in which the second application is not executing as a foreground application to a system state in which the second application is executing as the foreground application. establishing, at a first client device (102-1, 102-2), a wireless communication link with a second client device (102-2, 102-1); receiving, at the first client device, and in response to a detection that the second client device is within a predefined proximity of the first client device, application information associated with a first application executing at the second client device, the second client device having a user interface state of the first application, at least a portion of the application information being received via the wireless communication link; and executing, at the first client device, a second application corresponding to the first application, the second application having an initial user interface state corresponding to the user interface state of the first application at the second client device; wherein executing the second application includes transitioning from a system state in which the second application is not executing as a foreground application to a system state in which the second application is executing as the foreground application.
Glazed panel including: two glazings, an internal glazing and an external glazing, disposed opposite one another, a spacer, placed between the two glazings, and extending peripherally, at a distance from the edges of the glazed panel, and an external sealing gasket, filling a space between the spacer and the edges of the glazed panel, characterised in that the glazed panel includes a plurality of inserts disposed in the external sealing gasket and each intended to receive a fastening element for the assembly of the glazed panel on a support structure, each insert includes: - a longitudinal and hollow body, remote from the internal glazing and including a longitudinal opening flush with an edge of the glazed panel, - at least one foot positioned on an inner face of the internal glazing, characterised in that one foot includes an orifice, open-through or not. - a longitudinal and hollow body, remote from the internal glazing and including a longitudinal opening flush with an edge of the glazed panel, - at least one foot positioned on an inner face of the internal glazing,
A power conversion device (100, 100A) comprising: a rectifier circuit configured to rectify an AC voltage to a DC voltage; an inverter circuit configured to convert, into an AC voltage, the DC voltage rectified by the rectifier circuit and output the converted AC voltage to a motor; a DC link capacitor connected between the rectifier circuit and the inverter circuit; a generator configured to generate a signal for controlling the inverter circuit to output, from the inverter circuit, an AC voltage corresponding to a designated phase; an estimator configured to estimate a first phase of a rotor of the motor based on a current flowing through the motor; and a beat suppression controller (10, 10A) configured to output a second phase to the generator as the designated phase so as to suppress a beat component superimposed on the current flowing through the motor, the second phase being obtained by adjusting the first phase, characterized in that the beat suppression controller includes a switch configured to switch between a first mode and a second mode, the first mode being a mode in which the second phase is output to the generator as the designated phase, the second mode being a mode in which the first phase is output to the generator as the designated phase. a rectifier circuit configured to rectify an AC voltage to a DC voltage; an inverter circuit configured to convert, into an AC voltage, the DC voltage rectified by the rectifier circuit and output the converted AC voltage to a motor; a DC link capacitor connected between the rectifier circuit and the inverter circuit; a generator configured to generate a signal for controlling the inverter circuit to output, from the inverter circuit, an AC voltage corresponding to a designated phase; an estimator configured to estimate a first phase of a rotor of the motor based on a current flowing through the motor; and a beat suppression controller (10, 10A) configured to output a second phase to the generator as the designated phase so as to suppress a beat component superimposed on the current flowing through the motor, the second phase being obtained by adjusting the first phase, characterized in that the beat suppression controller includes a switch configured to switch between a first mode and a second mode, the first mode being a mode in which the second phase is output to the generator as the designated phase, the second mode being a mode in which the first phase is output to the generator as the designated phase.
A wind-turbine gearbox system comprising: an input gear stage having mating gear surfaces finished to a surface roughness Ra of less than 0.25 micron; at least one bearing supporting the input gear stage; a lubrication circuit arranged to deliver lubricant to the input gear stage and the bearing during operation of the wind-turbine and comprising an inline filter; and a quantity of lubricant in the lubrication circuit, characterised in that the filter has a nominal pore size β 2[c] ≥ 1000 for removal of particles greater than 2 micron from the lubricant prior to delivery and that the lubricant has an ISO VG of between 68 and 220, preferably between 100 and 220 and most preferably around 150. an input gear stage having mating gear surfaces finished to a surface roughness Ra of less than 0.25 micron; at least one bearing supporting the input gear stage; a lubrication circuit arranged to deliver lubricant to the input gear stage and the bearing during operation of the wind-turbine and comprising an inline filter; and a quantity of lubricant in the lubrication circuit,
A method performed by a wireless device, UE, comprising: - acquiring network support information associated with a neighbor new radio cell of a serving cell of the UE, the serving cell being hosted by a serving network node, wherein the network support information indicates that the neighbor new radio cell supports a Stand-Alone, SA, mode of operation and/or a Non-Stand-Alone, NSA, mode of operation; wherein a neighbor new radio cell supporting the SA mode of operation supports at least one of the following functionalities: allowing the UE, in an idle or inactive mode to camp on the neighbor new radio cell, enabling a hand over of the UE in a connected mode from the serving cell to the neighbor new radio cell, and wherein a neighbor new radio cell supporting the NSA mode of operation does not support those functionalities; and - transmitting to the serving cell a report comprising identification information associated with the neighbour new radio cell and the network support information indicating that the neighbor new radio cell supports the SA mode of operation and/or the NSA mode of operation. - acquiring network support information associated with a neighbor new radio cell of a serving cell of the UE, the serving cell being hosted by a serving network node, wherein the network support information indicates that the neighbor new radio cell supports a Stand-Alone, SA, mode of operation and/or a Non-Stand-Alone, NSA, mode of operation; wherein a neighbor new radio cell supporting the SA mode of operation supports at least one of the following functionalities: allowing the UE, in an idle or inactive mode to camp on the neighbor new radio cell, enabling a hand over of the UE in a connected mode from the serving cell to the neighbor new radio cell, and wherein a neighbor new radio cell supporting the NSA mode of operation does not support those functionalities; and - transmitting to the serving cell a report comprising identification information associated with the neighbour new radio cell and the network support information indicating that the neighbor new radio cell supports the SA mode of operation and/or the NSA mode of operation.
A portable apparatus for dispensing of a product, including: - a product container which contains a product that is to be foamed by and dispensed from the apparatus; - a gas container, at least containing a gas, for example a single gas or a gas mixture, wherein the gas substantially does not contain any greenhouse gases such as N 2 O; - at least two dispersion devices, each having a product entrance that is connectable to the product container for receiving product, the at least two dispersion devices further being connectable to the gas container for supplying the gas to the product during product discharge; - a processing device downstream of the dispersion devices for performing a mixing treatment and/or pressure reduction on the product provided with the gas; and - a product dispensing head, and being arranged downstream of the processing device, the dispensing head defining a product receiving space to receive the product from the processing device, a distal part of the dispensing head preferably having product shaping projections, wherein the dispersion devices are arranged for operating simultaneously. - a product container which contains a product that is to be foamed by and dispensed from the apparatus; - a gas container, at least containing a gas, for example a single gas or a gas mixture, wherein the gas substantially does not contain any greenhouse gases such as N 2 O; - at least two dispersion devices, each having a product entrance that is connectable to the product container for receiving product, the at least two dispersion devices further being connectable to the gas container for supplying the gas to the product during product discharge; - a processing device downstream of the dispersion devices for performing a mixing treatment and/or pressure reduction on the product provided with the gas; and - a product dispensing head, and being arranged downstream of the processing device, the dispensing head defining a product receiving space to receive the product from the processing device, a distal part of the dispensing head preferably having product shaping projections,
A compound comprising Formula: wherein: R 1 is alkyl; R 2 is hydrogen, alkyl, acyl, (CH 2 CH 2 O) p H, (CH 2 CH(CH 3)O) p H, or a combination of (CH 2 CH 2 O) p H and (CH 2 CH(CH 3)O) p H; p is an integer of 2 or greater; R 3 is C 6 to C 30 alkyl; W and X are oxygen; Y is O or NH; k is an integer of 0 or greater; and n is an integer of 1 or greater. R 1 is alkyl; R 2 is hydrogen, alkyl, acyl, (CH 2 CH 2 O) p H, (CH 2 CH(CH 3)O) p H, or a combination of (CH 2 CH 2 O) p H and (CH 2 CH(CH 3)O) p H; p is an integer of 2 or greater; R 3 is C 6 to C 30 alkyl; W and X are oxygen; Y is O or NH; k is an integer of 0 or greater; and n is an integer of 1 or greater.
Electrical machine, in particular axial flux motor, having a rotor mounted so as to be rotatable about a machine axis, and having a stator that has a sintered support structure, produced from a soft magnetic material, and an insert connected thereto, at least part of which forms a pole shoe, and which is a laminated core, - wherein the laminated core has a number of sheet stacks, the respective sheets of which have the same shape, and which are stacked on top of one another in the radial direction, wherein the sheets of different sheet stacks differ by virtue of the surface area of the sheets being enlarged as the distance from the machine axis increases, - wherein the laminated core is axially symmetrical in relation to a radial straight line, and - wherein an edge of the laminated core that runs in the radial direction is in stepped form. - wherein the laminated core has a number of sheet stacks, the respective sheets of which have the same shape, and which are stacked on top of one another in the radial direction, wherein the sheets of different sheet stacks differ by virtue of the surface area of the sheets being enlarged as the distance from the machine axis increases, - wherein the laminated core is axially symmetrical in relation to a radial straight line, and - wherein an edge of the laminated core that runs in the radial direction is in stepped form.
A medical scope device, comprising: a sheath extending longitudinally from a proximal end to a distal end; and a handle coupled to the proximal end of the sheath, the handle including: a deflection lever coupled thereto, the deflection lever being rotatable proximally and distally along the handle to deflect a distal end of the shaft to which it is operably coupled; and a locking mechanism movable between a locked configuration in which the locking mechanism engages an engagement feature on the outer surface of the handle, preventing the deflection lever from rotating and locking the distal end of the shaft in a desired position, and an unlocked configuration in which the locking mechanism releases the engagement feature to allow rotation of the deflection lever and deflection of the distal end of the shaft, wherein the locking mechanism includes a locking lever including a lever body and a locking tooth, the lever body configured to be positioned within a slot extending through the deflection lever such that the locking tooth engages an engagement mechanism (124, 146) with a first portion of the lever body protruding out of the slot when the locking mechanism is in the locked configuration, wherein the locking mechanism further includes a spring configured to bias the locking mechanism to the locked configuration, a first end of the spring being coupled to the locking lever and a second end of the spring being coupled to the deflection lever such that depression of the lever body further into the slot causes the lever body to pivot, pivoting the first portion of the lever body into the slot and releasing the locking tooth from the engagement mechanism (124, 146), thereby moving the locking mechanism to the unlocked configuration. a sheath extending longitudinally from a proximal end to a distal end; and a handle coupled to the proximal end of the sheath, the handle including: a deflection lever coupled thereto, the deflection lever being rotatable proximally and distally along the handle to deflect a distal end of the shaft to which it is operably coupled; and a locking mechanism movable between a locked configuration in which the locking mechanism engages an engagement feature on the outer surface of the handle, preventing the deflection lever from rotating and locking the distal end of the shaft in a desired position, and an unlocked configuration in which the locking mechanism releases the engagement feature to allow rotation of the deflection lever and deflection of the distal end of the shaft, a deflection lever coupled thereto, the deflection lever being rotatable proximally and distally along the handle to deflect a distal end of the shaft to which it is operably coupled; and a locking mechanism movable between a locked configuration in which the locking mechanism engages an engagement feature on the outer surface of the handle, preventing the deflection lever from rotating and locking the distal end of the shaft in a desired position, and an unlocked configuration in which the locking mechanism releases the engagement feature to allow rotation of the deflection lever and deflection of the distal end of the shaft,
An aseptic peripheral connection assembly for installing a sterilized peripheral in a bio-processing component via an aseptic connector affixed to the component, the peripheral connection assembly comprising: a. a carrier disposed within an applicator sleeve, the carrier comprising the sterilized peripheral and a sealing member configured to form a leak-tight seal with the aseptic connector on the bio-processing component at a location where the carrier is to be installed, the carrier configured to be inserted from a position within the applicator sleeve to a position engaged with the aseptic connector to form the leak-tight seal; b. an applicator comprising the applicator sleeve and an applicator connector, the applicator connector comprising a component-facing opening configured to connect to the aseptic connector on the bio-processing component; and c. a removable hermetic sealing tab covering the component-facing opening of the applicator sleeve to maintain the sterilized peripheral in aseptic condition prior to installation in the bio-processing component. a. a carrier disposed within an applicator sleeve, the carrier comprising the sterilized peripheral and a sealing member configured to form a leak-tight seal with the aseptic connector on the bio-processing component at a location where the carrier is to be installed, the carrier configured to be inserted from a position within the applicator sleeve to a position engaged with the aseptic connector to form the leak-tight seal; b. an applicator comprising the applicator sleeve and an applicator connector, the applicator connector comprising a component-facing opening configured to connect to the aseptic connector on the bio-processing component; and c. a removable hermetic sealing tab covering the component-facing opening of the applicator sleeve to maintain the sterilized peripheral in aseptic condition prior to installation in the bio-processing component.
Hot or cold rolled strip made of a high-strength, air-hardenable multi-phase steel, having minimum tensile strengths longitudinally and transversely relative to the rolling direction in the non-air-hardened state of 750 MPa comprising outstanding processing properties consisting of the elements (contents in % by weight): C ≥ 0.075 to ≤ 0.115 Si ≥ 0.600 to ≤ 0.750 Mn ≥ 1.000 to ≤ 1.900 Cr ≥ 0.200 to ≤ 0.600 Al ≥ 0.010 to ≤ 0.060 N ≥ 0.0020 to ≤ 0.0120 S ≤ 0.0030 Mo ≤ 0.200 Nb ≥ 0.005 to ≤ 0.040 Ti ≥ 0.005 to ≤ 0.030 B ≥ 0.0005 to ≤ 0.0030 Ca ≥ 0.0005 to ≤ 0.0060 Cu ≤ 0.050 Ni ≤ 0.050 the remainder iron, including normal steel-accompanying smelting-induced impurities in which, with respect to an as wide as possible process window, during continuous annealing of hot or cold rolled strips made of this steel, the total content of Mn+Si+Cr+Mo, dependent upon the produced strip thickness, is adjusted as follows: up to 1.00 mm: total of Mn+Si+Cr+Mo ≥ 2.450 and ≤ 2.800% by weight above 1.00 to 2.00 mm: total of Mn+Si+Cr+Mo ≥ 2.600 and ≤ 3.150% by weight above 2.00 mm: total of Mn+Si+Cr+Mo ≥ 3.000 and ≤ 3.450% by weight, and at a total of Ti+Nb+B of > 0.010 to ≤ 0.050%, the N-content is £ 0.0020 to ≤ 0.0090% and with a total of Ti+Nb+B of > 0.050%, the N-content is ≥ 0.0040 to ≤ 0.0120%. C ≥ 0.075 to ≤ 0.115 Si ≥ 0.600 to ≤ 0.750 Mn ≥ 1.000 to ≤ 1.900 Cr ≥ 0.200 to ≤ 0.600 Al ≥ 0.010 to ≤ 0.060 N ≥ 0.0020 to ≤ 0.0120 S ≤ 0.0030 Mo ≤ 0.200 Nb ≥ 0.005 to ≤ 0.040 Ti ≥ 0.005 to ≤ 0.030 B ≥ 0.0005 to ≤ 0.0030 Ca ≥ 0.0005 to ≤ 0.0060 Cu ≤ 0.050 Ni ≤ 0.050 up to 1.00 mm: total of Mn+Si+Cr+Mo ≥ 2.450 and ≤ 2.800% by weight above 1.00 to 2.00 mm: total of Mn+Si+Cr+Mo ≥ 2.600 and ≤ 3.150% by weight above 2.00 mm: total of Mn+Si+Cr+Mo ≥ 3.000 and ≤ 3.450% by weight, and at a total of Ti+Nb+B of > 0.010 to ≤ 0.050%, the N-content is £ 0.0020 to ≤ 0.0090% and with a total of Ti+Nb+B of > 0.050%, the N-content is ≥ 0.0040 to ≤ 0.0120%.