mhurhangee/patent-ind-claim-en huggingface dataset:
A method, performed by a master node, MN, in a radio access network, for establishing radio resources between a secondary node, SN, and a user equipment, UE, the method comprising: sending , to the SN, a SN Addition Request message identifying one or more quality-of-service, QoS, flows to be setup between the SN and the UE; receiving , from the SN, a SN Addition Request Acknowledge message including identification of one or more radio bearers that were admitted by the SN in association with the requested QoS flows; and sending , to the SN, address information of one or more tunnels for forwarding downlink user-plane, DL UP, data over an Xn-U interface between the SN and the MN for SN-terminated bearers. sending , to the SN, a SN Addition Request message identifying one or more quality-of-service, QoS, flows to be setup between the SN and the UE; receiving , from the SN, a SN Addition Request Acknowledge message including identification of one or more radio bearers that were admitted by the SN in association with the requested QoS flows; and sending , to the SN, address information of one or more tunnels for forwarding downlink user-plane, DL UP, data over an Xn-U interface between the SN and the MN for SN-terminated bearers.
Carrier with a passive cooling function for a semiconductor component , having a main body with a top side and a bottom side and at least one electrical component that is embedded in the main body , wherein the main body has at least one bottom layer , one middle layer and one top layer and the bottom layer has the bottom side of the main body and the top layer has the top side of the main body , wherein the carrier has a first thermal via , which extends from the top side of the main body to the at least one electrical component , wherein the carrier has a second thermal via , which extends from the at least one electrical component to the bottom side of the main body , wherein the at least one embedded electrical component is electrically contacted by the first and the second thermal via , wherein the carrier has at least one further thermal via , which extends from the top side of the main body to the bottom side of the main body , characterized in that the carrier has a height of less than 500 μm and the carrier furthermore has at least one metallic structure that is embedded in the main body and is arranged in the middle layer and that is elongated in a direction parallel to the top side of the main body , wherein the at least one metallic structure directly abuts the further thermal via .
A method, comprising: identifying, at a information receiver , metadata for an application flow, wherein the application flow is encrypted; publishing the metadata towards a core network, wherein the metadata is unencrypted when published; creating, by the information receiver, a service policy model based on a receiver list of the application flow; sending, to a middle box , the service policy model, wherein the service policy model includes an identifier of the application flow; and enforcing the service policy when the application flow identifier matches a corresponding application flow identifier stored in the middle box. identifying, at a information receiver , metadata for an application flow, wherein the application flow is encrypted; publishing the metadata towards a core network, wherein the metadata is unencrypted when published; creating, by the information receiver, a service policy model based on a receiver list of the application flow; sending, to a middle box , the service policy model, wherein the service policy model includes an identifier of the application flow; and enforcing the service policy when the application flow identifier matches a corresponding application flow identifier stored in the middle box.
A composition for forming a Mn-doped PZT-based piezoelectric film formed of Mn-doped composite metal oxides, the composition comprising: PZT-based precursors containing metal atoms configuring the composite metal oxides; a diol; and polyvinylpyrrolidone, wherein when a metal atom ratio in the composition is shown as Pb:Mn:Zr:Ti, the PZT-based precursors are contained so that Pb is satisfied to be from 1.05 to 1.15, Mn is satisfied to be from 0.02 to 0.042, Zr is satisfied to be from 0.45 to 0.55, Ti is satisfied to be from 0.45 to 0.55, and the total of Zr and Ti in a metal atom ratio is 1, a concentration of the PZT-based precursor in 100 mass% of the composition is from 17 mass% to 35 mass% in terms of an oxide concentration, a rate of diol in 100 mass% of the composition is from 16 mass% to 56 mass%, and a molar ratio of polyvinylpyrrolidone to 1 mole of the PZT-based precursor is 0.005 moles to 0.25 moles, in terms of monomers. PZT-based precursors containing metal atoms configuring the composite metal oxides; a diol; and polyvinylpyrrolidone, wherein when a metal atom ratio in the composition is shown as Pb:Mn:Zr:Ti, the PZT-based precursors are contained so that Pb is satisfied to be from 1.05 to 1.15, Mn is satisfied to be from 0.02 to 0.042, Zr is satisfied to be from 0.45 to 0.55, Ti is satisfied to be from 0.45 to 0.55, and the total of Zr and Ti in a metal atom ratio is 1, a concentration of the PZT-based precursor in 100 mass% of the composition is from 17 mass% to 35 mass% in terms of an oxide concentration, a rate of diol in 100 mass% of the composition is from 16 mass% to 56 mass%, and a molar ratio of polyvinylpyrrolidone to 1 mole of the PZT-based precursor is 0.005 moles to 0.25 moles, in terms of monomers.
A method of wireless communications in a 3GPP communication system, comprising: transmitting an original transmission in a hybrid automatic repeat request, HARQ process, the original transmission having a first transport block allocated to a first code word and a second transport block allocated to a second code word, each transport block including multiple code blocks grouped into code block groups, wherein each codeword is associated with different antennas or different groups of antennas; receiving a negative acknowledgment indicating that a subset of the code block groups was not successfully received; and retransmitting the subset of the code block groups on at least one of the first code word or the second code word in a retransmission in the HARQ process, wherein at least one code block is retransmitted on a different code word in the retransmission than in the original transmission, wherein the retransmission includes at least one code block group from the first code word and at least one code block group from the second code word, wherein receiving the negative acknowledgment includes determining a list of code block groups to be included in the retransmission based on a retransmission grant, wherein the retransmitting comprises calculating a nominal payload size of code words in the list of code block groups to be included in the retransmission, wherein the retransmitting comprises allocating the subset of code block groups to the first code word and the second code word proportionately according to the nominal payload size of each code word in the retransmission. transmitting an original transmission in a hybrid automatic repeat request, HARQ process, the original transmission having a first transport block allocated to a first code word and a second transport block allocated to a second code word, each transport block including multiple code blocks grouped into code block groups, wherein each codeword is associated with different antennas or different groups of antennas; receiving a negative acknowledgment indicating that a subset of the code block groups was not successfully received; and
A method for transmitting power headroom information by a terminal in a wireless communication system, the method comprising: receiving, (S802), from a base station, first uplink scheduling information in a first subframe on a first serving cell, wherein the first uplink scheduling information schedules a transmission in a second subframe; identifying, (S802), power headroom information for a second serving cell based on whether second uplink scheduling information scheduling a transmission in the second subframe is received from the base station in or earlier than the first subframe on the second serving cell; and transmitting, (S803); to the base station, the power headroom information in the second subframe on the first serving cell, wherein the second serving cell is a cell on an unlicensed band. receiving, (S802), from a base station, first uplink scheduling information in a first subframe on a first serving cell, wherein the first uplink scheduling information schedules a transmission in a second subframe; identifying, (S802), power headroom information for a second serving cell based on whether second uplink scheduling information scheduling a transmission in the second subframe is received from the base station in or earlier than the first subframe on the second serving cell; and transmitting, (S803); to the base station, the power headroom information in the second subframe on the first serving cell, wherein the second serving cell is a cell on an unlicensed band.
An optical system comprising a zoom type objective lens (Z) and a depth-estimation optical detection unit, said depth-estimation optical detection unit comprising a matrix of micro-lenses (MML) and a matrix detector (DM), the matrix of micro-lenses being arranged so that the image of the focal plane of the zoom is focused by the matrix of micro-lenses in the plane of the matrix detector, characterised in that said optical system comprises computing means, for a first focal length of the zoom and for a determined object, for computing the estimated distance (D E ) of this object and the measurement uncertainty (I) for this estimate, as a function of said first focal length and of said estimated distance and, with this estimated distance being known, optimising means allowing the determination of at least one second focal length of the zoom, with which a lower measurement uncertainty for this estimate corresponds.
An automatic cigarette-lighting purifier, comprising a cigarette holding chamber and a smoke purification device located around the cigarette holding chamber , a chamber opening of the cigarette holding chamber and an air inlet of the smoke purification device being located at the same side of the automatic cigarette-lighting purifier, a cigarette-lighting device is provided at one end of the cigarette holding chamber that is opposite to the chamber opening , characterized in that an air intake port is provided at the end of the cigarette holding chamber that is opposite to the chamber opening , a first check valve is provided at the air intake port to allow air to only flow toward the cigarette holding chamber , and a second check valve is provided at the air inlet of the smoke purification device to allow air to only flow toward the smoke purification device .
A reelable mechanically lined pipe (MLP) able to be reeled onto a reel having a radius R, and formed from a plurality of pipe joints (A, B, C) having conjoining girth welds , and comprising at least a liner and an outer pipe , the outer pipe having an outer diameter, D H , and a wall thickness, t h , the MLP having a radial insertion gap g , and wherein the liner thickness, t, is less than or equal to a value calculated by formula I: t = a 00 εD 0.75 0 g 0 + a 01 εD 0.75 0 g 1 + a 10 εD 0.75 1 g 0 + a 11 εD 0.75 1 g 1 + a 20 εD 0.75 2 g 0 + a 21 εD 0.75 2 g 1 + 0.16 where: t is in mm: a 00 , a 01 , are constants defined by Table 1: lj a ij 00 2.39846 01 -0.239488 10 -5.48161 11 2.35153 20 6.50598 21 -1.37840 ε = (D H / 2) / [(D H / 2) + R] is the maximum reeling strain, g is in mm, and D = D H - 2 t H , wherein D H and t H are in mm; characterised in that the ends of each pipe joint terminate with overlay welds of a length in the range of L min = 100 mm and L max = 4 D H . t is in mm: a 00 , a 01 , are constants defined by Table 1: lj a ij 00 2.39846 01 -0.239488 10 -5.48161 11 2.35153 20 6.50598 21 -1.37840 ε = (D H / 2) / [(D H / 2) + R] is the maximum reeling strain, g is in mm, and D = D H - 2 t H , wherein D H and t H are in mm; ε = (D H / 2) / [(D H / 2) + R] is the maximum reeling strain, g is in mm, and D = D H - 2 t H , wherein D H and t H are in mm;
A privacy film, comprising: privacy gates configured to at least partially block content displayed by a display panel when the privacy film is adjacent to the display panel; light absorption material configured to absorb light from the content; and a removable plastic release film configured to keep the privacy film from adhering permanently to the display panel, characterized in that the privacy gates have a gradient level configured to control the degree to which content is blocked, wherein individual privacy gates have varying heights and the varying heights are smallest at a centermost privacy gate, relative to the display panel, and are progressively larger towards outermost privacy gates. privacy gates configured to at least partially block content displayed by a display panel when the privacy film is adjacent to the display panel; light absorption material configured to absorb light from the content; and a removable plastic release film configured to keep the privacy film from adhering permanently to the display panel, characterized in that the privacy gates have a gradient level configured to control the degree to which content is blocked, wherein individual privacy gates have varying heights and the varying heights are smallest at a centermost privacy gate, relative to the display panel, and are progressively larger towards outermost privacy gates.
A transmission device of a wireless communication system, the device comprising: a transceiver configured to: transmit a compressed beacon frame by using each of a plurality of transmission beams, and receive , from a reception device, a compressed feedback frame comprising information on an optimum transmission beam of the transmission device identified by the reception device among the plurality of transmission beams; and at least one processor configured to perform a control of a beamforming based on the information on the optimum transmission beam of the transmission device identified by the reception device, wherein the compressed beacon frame is compressed by combining header information and data information into a single header, and wherein the single header comprises a beacon interval control field and a basic service set identification, BSSID, field. a transceiver configured to: transmit a compressed beacon frame by using each of a plurality of transmission beams, and receive , from a reception device, a compressed feedback frame comprising information on an optimum transmission beam of the transmission device identified by the reception device among the plurality of transmission beams; and at least one processor configured to perform a control of a beamforming based on the information on the optimum transmission beam of the transmission device identified by the reception device, transmit a compressed beacon frame by using each of a plurality of transmission beams, and receive , from a reception device, a compressed feedback frame comprising information on an optimum transmission beam of the transmission device identified by the reception device among the plurality of transmission beams; and at least one processor configured to perform a control of a beamforming based on the information on the optimum transmission beam of the transmission device identified by the reception device, wherein the compressed beacon frame is compressed by combining header information and data information into a single header, and wherein the single header comprises a beacon interval control field and a basic service set identification, BSSID, field.
A method of preparing (2 S ,3 R )- N -[ -3-(cyclopent-1-en-1-yl)-1-[(2 R )-2-methyloxiran-2-yl]-1-oxopropan-2-yl]-3-hydroxy-3-(4-methoxyphenyl)-2-[(2 S )-2-[2-(morpholin-4-yl)acetamido]propanamido]propanamide (compound "G") comprising: (a) admixing a tertiary amine base and a suspension of: (i) (2 S ,3 R )-3-hydroxy-3-(4-methoxyphenyl)-2-((S)-2-(2-morpholino-acetamido)propanamido)propanoic acid (compound "E"): and (ii) ( S )-3-(cyclopent-1-en-1-yl)-1-((R)-2-methyloxiran-2-yl)-1-oxopropan-2-aminium salt (compound "F"): wherein X- is a counterion; in an aprotic solvent to form a mixture; and (b) admixing a coupling agent and the mixture of step (a) to form compound G; wherein the temperature of each admixing step is maintained at -20 °C to 5 °C. (a) admixing a tertiary amine base and a suspension of: (i) (2 S ,3 R )-3-hydroxy-3-(4-methoxyphenyl)-2-((S)-2-(2-morpholino-acetamido)propanamido)propanoic acid (compound "E"): and (ii) ( S )-3-(cyclopent-1-en-1-yl)-1-((R)-2-methyloxiran-2-yl)-1-oxopropan-2-aminium salt (compound "F"): wherein X- is a counterion; in an aprotic solvent to form a mixture; and (i) (2 S ,3 R )-3-hydroxy-3-(4-methoxyphenyl)-2-((S)-2-(2-morpholino-acetamido)propanamido)propanoic acid (compound "E"): and (ii) ( S )-3-(cyclopent-1-en-1-yl)-1-((R)-2-methyloxiran-2-yl)-1-oxopropan-2-aminium salt (compound "F"): wherein X- is a counterion; in an aprotic solvent to form a mixture; and (b) admixing a coupling agent and the mixture of step (a) to form compound G;
Method for obtaining stereoscopic image information in an X-ray imaging and detection system comprising an X-ray tube with an anode emitting a divergent X-ray beam , a capillary lens configured to focus the divergent X-ray beam as a convergent X-ray beam on a target , an aperture system , a control unit configured for scanning the convergent X-ray beam over a scanning grid of the target , and a detector configured for detecting X-ray radiation emitted or transmitted by the target , the method comprising the steps of: cropping an eccentrical first partial X-ray beam from the divergent or convergent X-ray beam with the aperture system , illuminating a grid point of the scanning grid of the target with the focused first partial X-ray beam and obtaining a first image signal from the grid point; cropping an eccentrical second partial X-ray beam from the divergent or convergent X-ray beam with the aperture system , illuminating the grid point of the scanning grid of the target with the focused second partial X-ray beam and obtaining a second image signal from the grid point; and combining the first image signal of the grid point and the second image signal of the grid point for generating a stereoscopic image signal of the grid point. cropping an eccentrical first partial X-ray beam from the divergent or convergent X-ray beam with the aperture system , illuminating a grid point of the scanning grid of the target with the focused first partial X-ray beam and obtaining a first image signal from the grid point; cropping an eccentrical second partial X-ray beam from the divergent or convergent X-ray beam with the aperture system , illuminating the grid point of the scanning grid of the target with the focused second partial X-ray beam and obtaining a second image signal from the grid point; and combining the first image signal of the grid point and the second image signal of the grid point for generating a stereoscopic image signal of the grid point.
Method for authentication of a high-security client and a low-security client for use in a mobile radio network, wherein the mobile radio network comprises a core network and a base station , wherein the mobile radio network is a high-security network, wherein authentication of the high-security client comprises a first step and a second step, wherein the first step comprises transmission of a request for authentication from the base station to the high-security client , wherein the request for authentication comprises a random number as a challenge, wherein the second step comprises a first response from the high-security client to the base station , wherein the first response comprises a generated number generated by performing a keyed cryptographic function on the challenge, wherein authentication of the low-security client comprises a third step comprising a fixed number being provided to the low-security client by the core network and a fourth step comprising a second response from the low-security client to the base station , wherein the second response comprises the fixed number , wherein for the low-security client a limited access to the mobile radio network is granted, compared to an access of the high-security client , wherein the low-security client comprises a second identification code , wherein - in a database - the second identification code and the fixed number are assigned to each other, wherein a plurality of low-security clients shares the same second identification code , wherein it is avoided that two or more of the plurality of low-security clients use the low-security access at the same time.
A catalytic converter assembly comprising two substrates in which one substrate is configured to enable induction heating, wherein the two substrates comprise a first substrate and a second substrate each configured to treat gaseous emissions, wherein the first catalytic converter substrate is configured to enable the induction heating and thereby to heat the gaseous emissions, wherein the first substrate and the second catalytic converter substrate each comprise a plurality of cells extending the length of the substrate for the passage of emissions gas, wherein the first substrate comprises metal elements located at a plurality of positions within the first substrate, and the assembly comprises an induction heating coil surrounding the first substrate for generating a varying electromagnetic field, thereby inductively to heat the metal elements and thereby to heat the first substrate, characterised in that the metal elements are metal wires . wherein the two substrates comprise a first substrate and a second substrate each configured to treat gaseous emissions, wherein the first catalytic converter substrate is configured to enable the induction heating and thereby to heat the gaseous emissions, wherein the first substrate and the second catalytic converter substrate each comprise a plurality of cells extending the length of the substrate for the passage of emissions gas, wherein the first substrate comprises metal elements located at a plurality of positions within the first substrate, and the assembly comprises an induction heating coil surrounding the first substrate for generating a varying electromagnetic field, thereby inductively to heat the metal elements and thereby to heat the first substrate, characterised in that the metal elements are metal wires .
An alloy for overlay welding that is to be used in overlay welding, the alloy comprising: C in an amount of 0.2 mass% to 0.6 mass%, Si in an amount of more than 0 mass% to 1.0 mass%, Mn in an amount of more than 0 mass% to 0.6 mass% or less, Cr in an amount of 25 mass% to 35 mass%, Ni in an amount of 35 mass% to 50 mass%, Nb in an amount of 0.5 mass% to 2.0 mass%, Al in an amount of 3.0 mass% to 6.0 mass%, Y in an amount of 0.005 mass% to 0.05 mass%, and Fe and inevitable impurities including N as a remaining portion, the alloy optionally further comprising a rare earth element in an amount of 0.01 mass% to 0.20 mass%; and/or one or more elements selected from the group consisting of W in an amount of more than 0 mass% to 2.0 mass% or less, Mo in an amount of more than 0 mass% to 1.0 mass% or less, Ti and/or Zr in a total amount of more than 0 mass% to 0.5 mass% or less, and Hf in an amount of more than 0 mass% to 0.5 mass% or less.