mhurhangee/ep-ind-claims huggingface dataset:
An actuator device (2, 2') for a rearview device, comprising at least one retaining means on which a rearview means is secured and which is movably mounted relative to a housing component (10, 10') of the rearview device, at least one first adjusting device (14, 14', 16, 16') comprising at least one first adjusting unit (18a, 18a') with at least one first adjusting means (22a, 22a') and at least one second adjusting unit (18b, 18b') with at least one second adjusting means (22b, 22b') for moving the retaining means relative to the housing component, wherein the first adjusting means and the second adjusting means each comprise at least one shape-memory element (22a, 22a', 22b, 22b') and the first adjusting unit (18a, 18a') and the second adjusting unit (18b, 18b') are arranged between the housing component and the retaining means so as to be mechanically connected in series, wherein the first adjusting unit (18a, 18a') has a first maximum travel path (l 1), and the second adjusting unit (18b, 18b') has a second maximum travel path which is different from the first maximum travel path (l 1), further comprising - at least one first adjusting body, by means of which the first adjusting unit and the second adjusting unit are at least indirectly mechanically connected to one another, - at least one second adjusting body, wherein the retaining means is or are in mechanical connection with the second adjusting body, characterized in that the mobility of the first adjusting body relative to the housing component is limited by means of at least one first mechanical limit stop (50a, 48a) and the mobility of the second adjusting body relative to the first adjusting body is limited by means of at least one second mechanical limit stop (50c, 48b), wherein the first mechanical limit stop comprises at least one first limit-stop element which is arranged stationary to the housing component and interacts with at least one complementary first structure of the first adjusting body, and the second mechanical limit stop comprises at least one second limit-stop element which is arranged stationary to the first adjusting body and interacts with at least one complementary second structure of the second adjusting body, wherein the first limit-stop element and the second limit-stop element each comprise at least one tappet and the first structure and the second structure each comprise at least one elongated hole. - at least one first adjusting body, by means of which the first adjusting unit and the second adjusting unit are at least indirectly mechanically connected to one another, - at least one second adjusting body, wherein the retaining means is or are in mechanical connection with the second adjusting body,
A fresh air venting circuit for at least one solenoid valve in an engine, said circuit including at one end an air venting element, characterized in that the air venting element is connected to a protective volume (5, 18) against projections of water, this protective volume (5, 18) including means for connecting and pressurizing (9, 11; 20, 21) said volume (5, 18) with an air intake duct present on the engine or an element carried by said duct in order to bring said volume (5, 18) to the air pressure prevailing in said duct (4, 16).
A method, comprising: supporting, by a wireless communication device, transmitting single-port uplink signals on a first carrier in response to determining that the wireless communication device is in a first transmission method; supporting both, by the wireless communication device, transmitting the single-port uplink signals or dual-port uplink signals on a second carrier in response to determining that the wireless communication device is in a second transmission method; and determining, by the wireless communication device based on scheduling information received from a base station, a transmission method used to transmit uplink signals, the transmission method comprising the first transmission method or the second transmission method. supporting, by a wireless communication device, transmitting single-port uplink signals on a first carrier in response to determining that the wireless communication device is in a first transmission method; supporting both, by the wireless communication device, transmitting the single-port uplink signals or dual-port uplink signals on a second carrier in response to determining that the wireless communication device is in a second transmission method; and determining, by the wireless communication device based on scheduling information received from a base station, a transmission method used to transmit uplink signals, the transmission method comprising the first transmission method or the second transmission method.
A transmission device comprising: a communications interface that receives a communication signal that includes data; a transceiver, coupled to the communications interface, that generates an electromagnetic wave based on the communication signal to convey the data in accordance with at least one selected electromagnetic, EM, mode; and a coupler, coupled to the transceiver, configured to receive and couple the electromagnetic wave to a transmission medium having a surface, wherein the coupler includes a conductive ring and a tapered collar that surrounds the transmission medium, wherein the conductive ring guides the electromagnetic wave to the tapered collar, and wherein the tapered collar couples the electromagnetic wave to be guided by the transmission medium for propagation along the transmission medium via the at least one selected EM mode, characterized in that the at least one selected EM mode includes a non-fundamental EM mode that is guided by an outer surface of the transmission medium, and wherein the non-fundamental EM mode generates an EM field pattern having a local minimum at an azimuthal orientation about the transmission medium corresponding to an expected orientation of water droplet formation. a communications interface that receives a communication signal that includes data; a transceiver, coupled to the communications interface, that generates an electromagnetic wave based on the communication signal to convey the data in accordance with at least one selected electromagnetic, EM, mode; and a coupler, coupled to the transceiver, configured to receive and couple the electromagnetic wave to a transmission medium having a surface, wherein the coupler includes a conductive ring and a tapered collar that surrounds the transmission medium, wherein the conductive ring guides the electromagnetic wave to the tapered collar, and wherein the tapered collar couples the electromagnetic wave to be guided by the transmission medium for propagation along the transmission medium via the at least one selected EM mode, characterized in that the at least one selected EM mode includes a non-fundamental EM mode that is guided by an outer surface of the transmission medium, and wherein the non-fundamental EM mode generates an EM field pattern having a local minimum at an azimuthal orientation about the transmission medium corresponding to an expected orientation of water droplet formation.
A N-vinyl lactam-based crosslinked polymer comprising: a structural unit derived from a N-vinyl lactam; and a structural unit derived from a crosslinkable monomer, the N-vinyl lactam-based crosslinked polymer having an ethanol absorption capacity, as measured by the method described in the specification, of 3 to 40 g per 1 g of the N-vinyl lactam-based crosslinked polymer, the N-vinyl lactam-based crosslinked polymer containing a particle having an aspect ratio determined by the following method of 1.15 to 10 in a proportion of 10% to 100% (by number) of the total number of the N-vinyl lactam-based crosslinked polymer: "Method of measuring aspect ratio": the aspect ratio is determined as a value obtained by measuring the major and minor axes of a primary particle of the N-vinyl lactam-based cross-linked polymer with an optical or electron microscope and dividing the major axis by the minor axis, the N-vinyl lactam-based crosslinked polymer having a proportion of an extractable, as measured by the method described in the specification, of 35 mass% or less in 100 mass% of the entire polymer, wherein the N-vinyl lactam-based crosslinked polymer has an average particle size, as measured by the method described in the specification, of 0.1 to 100 μm. a structural unit derived from a N-vinyl lactam; and a structural unit derived from a crosslinkable monomer, the N-vinyl lactam-based crosslinked polymer having an ethanol absorption capacity, as measured by the method described in the specification, of 3 to 40 g per 1 g of the N-vinyl lactam-based crosslinked polymer, the N-vinyl lactam-based crosslinked polymer containing a particle having an aspect ratio determined by the following method of 1.15 to 10 in a proportion of 10% to 100% (by number) of the total number of the N-vinyl lactam-based crosslinked polymer: "Method of measuring aspect ratio": the aspect ratio is determined as a value obtained by measuring the major and minor axes of a primary particle of the N-vinyl lactam-based cross-linked polymer with an optical or electron microscope and dividing the major axis by the minor axis, the N-vinyl lactam-based crosslinked polymer having a proportion of an extractable, as measured by the method described in the specification, of 35 mass% or less in 100 mass% of the entire polymer, wherein the N-vinyl lactam-based crosslinked polymer has an average particle size, as measured by the method described in the specification, of 0.1 to 100 μm. "Method of measuring aspect ratio": the aspect ratio is determined as a value obtained by measuring the major and minor axes of a primary particle of the N-vinyl lactam-based cross-linked polymer with an optical or electron microscope and dividing the major axis by the minor axis, the N-vinyl lactam-based crosslinked polymer having a proportion of an extractable, as measured by the method described in the specification, of 35 mass% or less in 100 mass% of the entire polymer, wherein the N-vinyl lactam-based crosslinked polymer has an average particle size, as measured by the method described in the specification, of 0.1 to 100 μm.
Method for feeding an unbalanced, three-phase current into a three-phase AC voltage system by means of a wind power installation, comprising the steps of: - producing a positive phase-sequence system component for the current to be fed in, - producing a negative phase-sequence system component for the current to be fed in, - superimposing the positive phase-sequence system component and the negative phase-sequence system component to form the current to be fed in and feeding the current composed in this manner into the three-phase AC voltage system, characterized in that the positive phase-sequence system component and the negative phase-sequence system component are produced from a DC voltage of a common DC voltage intermediate circuit, the common DC voltage intermediate circuit being fed by a current produced by a wind power installation, wherein the positive phase-sequence system component and the negative phase-sequence system component are each produced by at least one separate inverter module, and a central control unit predefines which inverter module or which of the inverter modules produce(s) a positive phase-sequence system component and which inverter module or which of the inverter modules produce(s) a negative phase-sequence system component. - producing a positive phase-sequence system component for the current to be fed in, - producing a negative phase-sequence system component for the current to be fed in, - superimposing the positive phase-sequence system component and the negative phase-sequence system component to form the current to be fed in and feeding the current composed in this manner into the three-phase AC voltage system, characterized in that
Method for authenticating a user to a machine, comprising the following steps: - generating a challenge by the machine; - generating a first pattern, in which the challenge is coded, by the machine; - displaying the first pattern on a display device of the machine; - optically recording the first pattern by a user device; - decoding the first pattern to receive the challenge by the user device; - generating a response to the challenge by the user device; - generating a second pattern, in which the response is coded, by the user device; - displaying the second pattern on a display device of the user device; - optically recording the second pattern by the machine; - decoding the second pattern to receive the response by the machine; - checking the correctness of the response by the machine; and - on the condition that the response is correct, fulfilling a function by the machine; wherein the user device has access to an electronic memory of a secure element, in which electronic memory a private key of an asymmetric cryptographic key pair assigned to the user and an attribute of the user are stored, wherein, besides the challenge, an attribute request is coded in the first pattern so that the machine signals to the user device that the user device should transmit the attribute to the machine, wherein the attribute is read by the user device and is coded, in addition to the response, in the second pattern, wherein the user inputs a transaction request into the machine to request a transaction, wherein the challenge includes transaction data of the requested transaction, and wherein the response is generated by signing of the transaction data by the user device with use of the private key, wherein the fulfilment of the function is the execution of the requested transaction, wherein the attribute of the user is received by decoding of the second pattern by the machine, wherein the machine compares the attribute with a predefined criterion, and wherein the function is fulfilled by the machine only on the further condition that the attribute of the user fulfils the predefined criterion. - generating a challenge by the machine; - generating a first pattern, in which the challenge is coded, by the machine; - displaying the first pattern on a display device of the machine; - optically recording the first pattern by a user device; - decoding the first pattern to receive the challenge by the user device; - generating a response to the challenge by the user device; - generating a second pattern, in which the response is coded, by the user device; - displaying the second pattern on a display device of the user device; - optically recording the second pattern by the machine; - decoding the second pattern to receive the response by the machine; - checking the correctness of the response by the machine; and - on the condition that the response is correct, fulfilling a function by the machine;
A method comprising: acquiring a plurality of sets of camber and toe measurement values for a pair of vehicle wheels (21,24,41,43; 26,28,45,47), each set being acquired at a different measured wheel angle obtained by rolling the wheels (21,24,41,43; 26,28,45,47) from an initial wheel angle, wherein one of the wheel angles is a current wheel angle; calculating best fit sine waves for camber and toe using a least squares analysis and the sets of camber measurement values, toe measurement values, and measured wheel angles obtained by rolling the wheels (21,24,41,43; 26,28,45,47); computing camber runout and toe runout at the current wheel angle using the calculated sine waves; subtracting the respective computed runouts from the measured camber and toe measurement values at the current wheel angle to obtain true camber and toe values for the pair of wheels (21,24,41,43; 26,28,45,47); and displaying the true camber and toe values. acquiring a plurality of sets of camber and toe measurement values for a pair of vehicle wheels (21,24,41,43; 26,28,45,47), each set being acquired at a different measured wheel angle obtained by rolling the wheels (21,24,41,43; 26,28,45,47) from an initial wheel angle, wherein one of the wheel angles is a current wheel angle; calculating best fit sine waves for camber and toe using a least squares analysis and the sets of camber measurement values, toe measurement values, and measured wheel angles obtained by rolling the wheels (21,24,41,43; 26,28,45,47); computing camber runout and toe runout at the current wheel angle using the calculated sine waves; subtracting the respective computed runouts from the measured camber and toe measurement values at the current wheel angle to obtain true camber and toe values for the pair of wheels (21,24,41,43; 26,28,45,47); and displaying the true camber and toe values.
An optical transmission system (100, 100A) comprising: a multicore optical fiber (2001, 2001A) including a plurality of cores (2100, 2200, 2110A, 2120A, 2130A, 2140A, 2150A, 2160A); and a plurality of optical transmission devices (1000, 1100, 1100A, 1200A, 1300A, 1400A, 1500A, 1600A) configured to output modulated signals of different types with a same wavelength and a same propagation direction at different optical powers from each other to respectively two adjacent cores at closest distance from each other among the cores. a multicore optical fiber (2001, 2001A) including a plurality of cores (2100, 2200, 2110A, 2120A, 2130A, 2140A, 2150A, 2160A); and a plurality of optical transmission devices (1000, 1100, 1100A, 1200A, 1300A, 1400A, 1500A, 1600A) configured to output modulated signals of different types with a same wavelength and a same propagation direction at different optical powers from each other to respectively two adjacent cores at closest distance from each other among the cores.
A double-walled carrier bag having outer and inner walls that are joined at the opening of the bag and form two substantially rectangular double-walled side panels, characterized in that each of the side panels has at least a portion that is folded to reduce the size of the panel and the opening of the bag; and releasable fastening means to hold each of the panels in its folded condition: the arrangement being such that when the fastening means is released and the panels are unfolded, the walls of the carrier bag can be reconfigured to form a single-walled sack.
Hooding apparatus for wrapping with plastic film hoods, comprising a support frame on which a system for forming a plastic hood is arranged, starting from a tubular film folded on a plane and wound on at least one supply bobbin, wherein said forming system comprises presentation means of an initial edge of said tubular film in the proximity of the apparatus base gripping and advancing means which drag said tubular film along a forming path running along a fixed vertical post of the apparatus, from the base to the top, and along a horizontal crossmember of the apparatus, until above a stationing position of a load to be wrapped, this horizontal crossmember being mounted height-adjustably along said post a cutting and welding unit, arranged at the bottom of the apparatus, at the beginning of said forming path, a release station, integral with said horizontal crossmember, from which said tubular film is delivered towards a gripping and spreading-apart assembly apt to fit said hood onto said load, characterised in that said gripping and advancing means are divided into a first vertical dragging carriage, apt to drag said film along said substantially vertical path, and into a second horizontal dragging carriage, apt to drag said film along said substantially horizontal path, and said vertical and horizontal dragging carriages (13, 20) comprise first clamping members and second clamping members, respectively, distributed on a respective lifting bar and dragging bar arranged in the direction of the width of said plastic film, said first clamping members and second clamping members mutually cooperating in an exchange station, at the crossing between said substantially vertical and substantially horizontal paths, so that an edge of said film is retained alternatively by said first clamping members or by said second clamping members.
Motor vehicle comprising: - front and rear wheel arches; - air deflectors situated at the front of the front wheel arches and/or rear wheel arches, in view of reducing the aerodynamic drag at the level of said wheel, said air deflectors comprising an inclined front face of concave profile and two side faces (14; 14') on either side of the front face of which respectively at least one of the two side faces (14; 14') has a concave profile, characterised in that at least one, preferably each, of the air deflectors is offset laterally towards the inside of the vehicle with respect to the wheel of the corresponding wheel arch, and oriented towards the outside, the longitudinal axis thereof forming an angle of between 10° and 20° with the longitudinal axis of the vehicle. - front and rear wheel arches; - air deflectors situated at the front of the front wheel arches and/or rear wheel arches, in view of reducing the aerodynamic drag at the level of said wheel, said air deflectors comprising an inclined front face of concave profile and two side faces (14; 14') on either side of the front face of which respectively at least one of the two side faces (14; 14') has a concave profile,
A method of transmitting, comprising: transmitting first data in a first numerology at a first set of tones, wherein the first numerology is a normal cyclic prefix numerology; transmitting second data in a second numerology at a second set of tones separated from the first set of tones, wherein the second numerology is an extended cyclic prefix numerology or a femto cell numerology; and transmitting third data in a third set of partial-symbol decodable tones of a guard band, wherein the third data is encoded with non-zero values every K tones, the third set of partial-symbol decodable tones separating the first set of tones and the second set of tones, wherein the third data is interpretable under either the first numerology or the second numerology. transmitting first data in a first numerology at a first set of tones, wherein the first numerology is a normal cyclic prefix numerology; transmitting second data in a second numerology at a second set of tones separated from the first set of tones, wherein the second numerology is an extended cyclic prefix numerology or a femto cell numerology; and transmitting third data in a third set of partial-symbol decodable tones of a guard band, wherein the third data is encoded with non-zero values every K tones, the third set of partial-symbol decodable tones separating the first set of tones and the second set of tones, wherein the third data is interpretable under either the first numerology or the second numerology.