mhurhangee/ep-ind-claims huggingface dataset:
Method for configuring a terminal of a user subscribing to an operator of a communication network, called nominal network, to access a communication service, the method comprising, when the terminal is connected to the nominal network, a step of activation in the terminal of a first protocol stack associated with a first network access point to access a first communication service and a second communication service distinct from the first communication service, the method being characterized in that, when the terminal is connected to a communication network different from the nominal network, called visited network, it comprises: - a step of activation of said first protocol stack associated with the first network access point to access the first communication service, - a step of obtaining of a datum indicating whether the terminal can access a second communication service via said first network access point, - in the case where the terminal cannot access the second communication service via the first network access point: - a step of determination of a second network access point to be used by the terminal to access the second communication service, - a step of activation in the terminal of a second protocol stack associated with the second network access point to access the second communication service via the second network access point. - a step of activation of said first protocol stack associated with the first network access point to access the first communication service, - a step of obtaining of a datum indicating whether the terminal can access a second communication service via said first network access point, - in the case where the terminal cannot access the second communication service via the first network access point: - a step of determination of a second network access point to be used by the terminal to access the second communication service, - a step of activation in the terminal of a second protocol stack associated with the second network access point to access the second communication service via the second network access point. - a step of determination of a second network access point to be used by the terminal to access the second communication service, - a step of activation in the terminal of a second protocol stack associated with the second network access point to access the second communication service via the second network access point.
A method for transmitting a Cyclic Shift, CS, parameter, comprising: determining (S530, S535, S540, S545) a CS parameter which implicitly indicates an orthogonality allocation rule and orthogonality-related information, by determining a multiple access state of one or more User Equipments, UEs; and transmitting (S550, S560) the determined CS parameter to the one or more UEs, wherein the orthogonality-related information comprises an Orthogonal Cover Code, OCC, indicated by the CS parameter, characterized in that the orthogonality allocation rule is determined as a uniform scheme or a non-uniform scheme according to a set with at least one element to which the CS parameter belongs, if the non-uniform scheme is applied as the orthogonality rule, determining the at least one element as the CS parameter of the UE if the UE is in an SU-MIMO, Single User Multiple Input Multiple Output, state, and if the uniform scheme is applied as the orthogonality rule, determining the at least one element as the CS parameter of the UE if the UE is in an MU-MIMO, Multiple User Multiple Input Multiple Output, state, wherein the uniform scheme is a scheme of allocating an equal OCC to all layers of the UE, and the non-uniform scheme is a scheme of allocating a first OCC to a first layer and a second layer and allocating a second OCC to a third layer and a fourth layer or allocating the second OCC to a first layer and a second layer and allocating the first OCC to a third layer and a fourth layer. determining (S530, S535, S540, S545) a CS parameter which implicitly indicates an orthogonality allocation rule and orthogonality-related information, by determining a multiple access state of one or more User Equipments, UEs; and transmitting (S550, S560) the determined CS parameter to the one or more UEs, wherein the orthogonality-related information comprises an Orthogonal Cover Code, OCC, indicated by the CS parameter, characterized in that the orthogonality allocation rule is determined as a uniform scheme or a non-uniform scheme according to a set with at least one element to which the CS parameter belongs, if the non-uniform scheme is applied as the orthogonality rule, determining the at least one element as the CS parameter of the UE if the UE is in an SU-MIMO, Single User Multiple Input Multiple Output, state, and if the uniform scheme is applied as the orthogonality rule, determining the at least one element as the CS parameter of the UE if the UE is in an MU-MIMO, Multiple User Multiple Input Multiple Output, state, wherein the uniform scheme is a scheme of allocating an equal OCC to all layers of the UE, and the non-uniform scheme is a scheme of allocating a first OCC to a first layer and a second layer and allocating a second OCC to a third layer and a fourth layer or allocating the second OCC to a first layer and a second layer and allocating the first OCC to a third layer and a fourth layer.
A method in a first node for adapting a multi-antenna transmission to a second node over a wireless channel, the wireless channel having at least three inputs and at least one output, the first node and the second node being comprised in a wireless communication system, the method comprising the steps of: obtaining at least one symbol stream, determining a precoding matrix having a product structure wherein the product structure is decomposable into a block diagonal matrix being multiplied from the left with a block diagonalizing unitary matrix, precoding the at least one symbol stream with the determined precoding matrix, and transmitting the precoded at least one symbol stream over a wireless channel to the second node. obtaining at least one symbol stream, determining a precoding matrix having a product structure wherein the product structure is decomposable into a block diagonal matrix being multiplied from the left with a block diagonalizing unitary matrix, precoding the at least one symbol stream with the determined precoding matrix, and transmitting the precoded at least one symbol stream over a wireless channel to the second node.
Power module (1, 16, 17) for an electric motor, wherein the power module (1, 16, 17) comprises at least one semiconductor switch half-bridge (2, 3, 17, 18, 19, 20, 21, 22), characterized in that the semiconductor switch half-bridge (2, 3, 17, 18, 19, 20, 21, 22) has a high-side semiconductor switch (3, 17, 18, 19) and a low-side semiconductor switch (2, 20, 21, 22), wherein the semiconductor switches (2, 3, 17, 18, 19, 20, 21, 22) of the half-bridge (2, 3) have in each case switching path terminals (4, 5, 6, 7, 23, 24, 25, 26) formed by a surface region of the semiconductor switch (2, 3, 17, 18, 19, 20, 21, 22), said surface region being embodied in a flat fashion, and the switching path terminals (4, 5, 6, 7, 23, 24, 25, 26) of a semiconductor switch in each case face in the same direction, wherein the high-side semiconductor switch and the low-side semiconductor switch enclose between one another a circuit carrier having at least two electrically conductive layers (8, 9, 10, 28, 31, 34, 35, 36), wherein the circuit carrier (50, 58) comprises at least one electrical insulation layer and the at least two electrically conductive layers enclosing the insulation layer between one another, wherein a switching path terminal (4, 6, 24, 26) of the low-side semiconductor switch (2, 20, 21, 22) and a switching path terminal (5, 7, 23, 25) of the high-side semiconductor switch of the half-bridge are electrically connected to one another by means of the circuit carrier, wherein an output terminal of the semiconductor switch half-bridge (2, 3) is formed by at least one electrically conductive layer (8, 9, 10) of the circuit carrier.
Drivable axle for a vehicle, in particular a rigid axle, comprising an axle beam, configured for receiving an axle shaft, and a receiving structure for receiving a vehicle element for incorporation into a drive train, the receiving structure being connected to the axle beam, the receiving structure being configured to receive a drive unit of the vehicle and having openings for connection to the axle shaft, characterized in that the receiving structure has at least one fixing region which has at least one damping element for fixing the drive unit in a vibration-damping manner on the receiving structure. an axle beam, configured for receiving an axle shaft, and a receiving structure for receiving a vehicle element for incorporation into a drive train, the receiving structure being connected to the axle beam, the receiving structure being configured to receive a drive unit of the vehicle and having openings for connection to the axle shaft, characterized in that the receiving structure has at least one fixing region which has at least one damping element for fixing the drive unit in a vibration-damping manner on the receiving structure.
A method for testing extraneous agents in a composition comprising at least one active agent, the method comprising: a) immunizing of a non-human subject with a polynucleotide construct comprising a sequence encoding a polypeptide forming at least a part of the active agent, in order to generate an antibody raised against the expression product of said polynucleotide construct, contacting the thus generated antibody with the composition comprising at least one active agent, wherein the antibody specifically binds to the active agent, and b) determining the presence or absence of extraneous agents in the composition subsequent to step a) in an animal model, wherein the active agent is neutralized or inactivated by binding of the antibody prior to step b). a) immunizing of a non-human subject with a polynucleotide construct comprising a sequence encoding a polypeptide forming at least a part of the active agent, in order to generate an antibody raised against the expression product of said polynucleotide construct, contacting the thus generated antibody with the composition comprising at least one active agent, wherein the antibody specifically binds to the active agent, and b) determining the presence or absence of extraneous agents in the composition subsequent to step a) in an animal model, wherein the active agent is neutralized or inactivated by binding of the antibody prior to step b).
A method for timing advance, TA, reporting in a non-terrestrial network, NTN, being applied to a terminal, characterized in that the method comprises: receiving (302, 402, 502) indication information from a network device, wherein the indication information is used to indicate that the terminal reports or does not report uplink, UL, TA information in a message 5 in a type-1 random access procedure; and reporting or skipping reporting, by the terminal, the UL TA information in the message 5 in the type-1 random access procedure according to the indication information. receiving (302, 402, 502) indication information from a network device, wherein the indication information is used to indicate that the terminal reports or does not report uplink, UL, TA information in a message 5 in a type-1 random access procedure; and reporting or skipping reporting, by the terminal, the UL TA information in the message 5 in the type-1 random access procedure according to the indication information.
A lighting device comprising at least one electroluminescent diode and a cooling radiator of said diode, characterized in that the radiator comprises a main body with U-shaped profile formed by a base and two spaced parallel bands defined in a thermally conductive material and fins defined in a thermally conductive material, arranged parallel to one another in the space delimited between the two bands and said base and in that said fins are spaced apart from each other by at least two thermally conductive bracing systems, in that each bracing system is connected by its ends to said parallel bands and comprises a rod extending perpendicularly to said bands and fixed thereto, and passing through holes of the fins, and tubular spacers in a thermally conductive material engaged on said rod and disposed between the fins according to an assembly tightened by the rod ensuring a good heat conduction between the main body and the fins, said electroluminescent diode being fixed with thermal contact to said base.
A lithium transition metal oxide powder for a positive electrode material in a solid-state lithium ion battery, the powder consisting of particles having a core and a surface layer consisting of an inner and an outer layer, wherein the powder has a D50 between 35 and 60μm, wherein the core has the general formula Li x CoO 2 with 0.99<x<1.04 and wherein the inner surface layer comprises Li y Ni 1-a-b Mn a Co b O 2, with 0<y<1, 0.3<a<0.8 and 0<b<0.3; and wherein the outer surface layer consists of discrete monolithic sub-micron sized particles having the general formula Li 1+z (Ni 1-m-n Mn m Co n) 1-z O 2, with 0≤z≤0.05, 0<m≤0.50 and 0<n≤0.70.
A magnetic connector apparatus comprising: a magnet housing; a magnet positioned within the magnet housing such that the magnet can rotate within the magnet housing; an inner retainer piece; a first outer housing piece coupled with the inner retainer piece; and a second outer housing piece coupled with the inner retainer piece, wherein: the first outer housing piece is positioned on an opposite side of the connector apparatus from the second outer housing piece such that the inner retainer piece is positioned in between the first outer housing piece and the second outer housing piece, the magnet housing is coupled with at least one of the first outer housing piece, the second outer housing piece, and the inner retainer piece, and the magnet housing is positioned along a connection edge (1902,1904,1906,1908) of the magnetic connector apparatus, and wherein the connection edge (1902,1904,1906,1908) is configured to be magnetically connected with a connection edge (1902,1904,1906,1908) of another magnetic connector apparatus. a magnet housing; a magnet positioned within the magnet housing such that the magnet can rotate within the magnet housing; an inner retainer piece; a first outer housing piece coupled with the inner retainer piece; and a second outer housing piece coupled with the inner retainer piece, wherein: the first outer housing piece is positioned on an opposite side of the connector apparatus from the second outer housing piece such that the inner retainer piece is positioned in between the first outer housing piece and the second outer housing piece, the magnet housing is coupled with at least one of the first outer housing piece, the second outer housing piece, and the inner retainer piece, and the magnet housing is positioned along a connection edge (1902,1904,1906,1908) of the magnetic connector apparatus, and wherein the connection edge (1902,1904,1906,1908) is configured to be magnetically connected with a connection edge (1902,1904,1906,1908) of another magnetic connector apparatus. the first outer housing piece is positioned on an opposite side of the connector apparatus from the second outer housing piece such that the inner retainer piece is positioned in between the first outer housing piece and the second outer housing piece, the magnet housing is coupled with at least one of the first outer housing piece, the second outer housing piece, and the inner retainer piece, and the magnet housing is positioned along a connection edge (1902,1904,1906,1908) of the magnetic connector apparatus, and wherein the connection edge (1902,1904,1906,1908) is configured to be magnetically connected with a connection edge (1902,1904,1906,1908) of another magnetic connector apparatus.
A method for providing a scalable encoded bitstream with transcoding information, comprising: encoding a video sequence into the scalable encoded bitstream comprising at least a first layer and a second layer, wherein the first layer is a base layer encoded independently of any other layer and the second layer is a scalable layer encoded independently of any other layer, and wherein the scalable encoded bitstream comprises network abstraction layer units, each NAL unit comprising a NAL unit header and a NAL unit payload; and providing in the scalable encoded bitstream, within a file containing the scalable encoded bitstream or by a transport protocol or a control protocol, a signaling corresponding to the second layer, the signaling including - information identifying a transcoding process that, when applied to the second layer after encoding, modifies the NAL unit headers of NAL units associated with the second layer and results in a non-scalable transcoded media stream, and - a coding property characterizing the transcoded media stream, the coding property comprising a profile and a level of a standard. encoding a video sequence into the scalable encoded bitstream comprising at least a first layer and a second layer, wherein the first layer is a base layer encoded independently of any other layer and the second layer is a scalable layer encoded independently of any other layer, and wherein the scalable encoded bitstream comprises network abstraction layer units, each NAL unit comprising a NAL unit header and a NAL unit payload; and providing in the scalable encoded bitstream, within a file containing the scalable encoded bitstream or by a transport protocol or a control protocol, a signaling corresponding to the second layer, the signaling including - information identifying a transcoding process that, when applied to the second layer after encoding, modifies the NAL unit headers of NAL units associated with the second layer and results in a non-scalable transcoded media stream, and - a coding property characterizing the transcoded media stream, the coding property comprising a profile and a level of a standard. - information identifying a transcoding process that, when applied to the second layer after encoding, modifies the NAL unit headers of NAL units associated with the second layer and results in a non-scalable transcoded media stream, and - a coding property characterizing the transcoded media stream, the coding property comprising a profile and a level of a standard.
A cleaning composition comprising a dispersin, at least one carbohydrase and a cleaning component, wherein the dispersin is a polypeptide having hexosaminidase activity and at least 60% sequence identity to the polypeptide of SEQ ID NO: 17, and wherein the carbohydrase is an alpha-amylase.
An imaging device, comprising: a polarizer configured to linearly polarize light along a polarization direction; a plasmon metal thin film filter layer configured to receive polarized light from the polarizer and selectively filter light according to wavelengths of the polarized light; and a photoelectric conversion layer configured to receive light filtered by the filter layer and to produce an electric charge in response to the received light, wherein the plasmon metal thin film filter layer comprises a plurality of through holes and a plurality of non-through holes formed therein and periodically arranged, wherein the through holes and the non-through holes have an elliptical cross-sectional shape when viewed a planar view, and the proportion of the short axis: major axis of the elliptical shape is 66.67% (= 1:1.5), wherein a major axis of the ellipse is aligned in the polarization direction. a polarizer configured to linearly polarize light along a polarization direction; a plasmon metal thin film filter layer configured to receive polarized light from the polarizer and selectively filter light according to wavelengths of the polarized light; and a photoelectric conversion layer configured to receive light filtered by the filter layer and to produce an electric charge in response to the received light, wherein the plasmon metal thin film filter layer comprises a plurality of through holes and a plurality of non-through holes formed therein and periodically arranged, wherein the through holes and the non-through holes have an elliptical cross-sectional shape when viewed a planar view, and the proportion of the short axis: major axis of the elliptical shape is 66.67% (= 1:1.5), wherein a major axis of the ellipse is aligned in the polarization direction.
A clock and data recovery system, hereafter CDR system, comprising: a correlator configured to: receive data; determine a first value of the received data; and output a second value corresponding to the received data; an accumulator configured to: generate an accumulation value by accumulating the second value output from the correlator; and output the accumulation value; and a state machine configured to determine whether a repeating pattern is present in the CDR system based on the accumulation value, wherein the repeating pattern comprises a repeating 1010 pattern, wherein the CDR system further comprises a loop filter comprising a delay line, a leaky integrator, a multiplexer, and a register, wherein the state machine is further configured to, based on determining that the repeating pattern is present in the CDR system, send a flag value to the multiplexer causing the loop filter to use a third value stored in the leaky integrator; and wherein the state machine is further configured to, based on determining that the repeating pattern is not present in the CDR system, send a flag value to the multiplexer causing the loop filter to use a fourth value stored in the delay line. a correlator configured to: receive data; determine a first value of the received data; and output a second value corresponding to the received data; receive data; determine a first value of the received data; and output a second value corresponding to the received data; an accumulator configured to: generate an accumulation value by accumulating the second value output from the correlator; and output the accumulation value; and generate an accumulation value by accumulating the second value output from the correlator; and output the accumulation value; and a state machine configured to determine whether a repeating pattern is present in the CDR system based on the accumulation value, wherein the repeating pattern comprises a repeating 1010 pattern, wherein the CDR system further comprises a loop filter comprising a delay line, a leaky integrator, a multiplexer, and a register, wherein the state machine is further configured to, based on determining that the repeating pattern is present in the CDR system, send a flag value to the multiplexer causing the loop filter to use a third value stored in the leaky integrator; and wherein the state machine is further configured to, based on determining that the repeating pattern is not present in the CDR system, send a flag value to the multiplexer causing the loop filter to use a fourth value stored in the delay line.