mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication, comprising: receiving, by a station, an indication message from a network node, the indication message indicating that the network node is capable of transmitting information over one or more wireless links; transmitting, by the station, a first request message to the network node, wherein network node associates the station to the one or more wireless links based on receiving the first request message, and wherein the first request message includes a multi-link association request indicating a request to establish a connection to the one or more wireless links; and separating, by the station, a media access control, MAC, into an upper MAC part and a lower MAC part, wherein the lower MAC part associated with a physical layer protocol of multi-link radio controlling physical layer operations to either transmit or receive a radio signal over a frequency channel with an Enhanced distributed channel access, EDCA, mechanism, and wherein the upper MAC part coordinates operation of the lower MAC part by configuring EDCA parameters in the lower MAC part and performs selecting or aggregation of received packets from the one or more wireless links. receiving, by a station, an indication message from a network node, the indication message indicating that the network node is capable of transmitting information over one or more wireless links; transmitting, by the station, a first request message to the network node, wherein network node associates the station to the one or more wireless links based on receiving the first request message, and wherein the first request message includes a multi-link association request indicating a request to establish a connection to the one or more wireless links; and wherein network node associates the station to the one or more wireless links based on receiving the first request message, and wherein the first request message includes a multi-link association request indicating a request to establish a connection to the one or more wireless links; and separating, by the station, a media access control, MAC, into an upper MAC part and a lower MAC part, wherein the lower MAC part associated with a physical layer protocol of multi-link radio controlling physical layer operations to either transmit or receive a radio signal over a frequency channel with an Enhanced distributed channel access, EDCA, mechanism, and wherein the upper MAC part coordinates operation of the lower MAC part by configuring EDCA parameters in the lower MAC part and performs selecting or aggregation of received packets from the one or more wireless links. wherein the lower MAC part associated with a physical layer protocol of multi-link radio controlling physical layer operations to either transmit or receive a radio signal over a frequency channel with an Enhanced distributed channel access, EDCA, mechanism, and wherein the upper MAC part coordinates operation of the lower MAC part by configuring EDCA parameters in the lower MAC part and performs selecting or aggregation of received packets from the one or more wireless links.
A communication method, comprising: obtaining , by a first mobility management network element which is an access and mobility management function, AMF, in a first network which is a 5th generation, 5G, network, information about N intermediate session management network elements, I-SMFs, that are capable of serving a terminal in the first network, wherein the N intermediate session management network elements comprise a combined intermediate session management network element , the combined intermediate session management network element is capable of providing session management in the first network and is capable of providing session management in a second network which is a 4th generation, 4G, network, so that the combined intermediate session management network element is an I-SMF plus a serving gateway control plane function, SGW-C, and N is an integer greater than 0; and determining , by the first mobility management network element , that the combined intermediate session management network element is a first intermediate session management network element corresponding to a first session of the terminal in the first network, wherein an intermediate session management network element that is in the information about the N intermediate session management network elements and that comprises indication information is the combined intermediate session management network element , and the method further comprises: determining, by the first mobility management network element , the combined intermediate session management network element based on the indication information. obtaining , by a first mobility management network element which is an access and mobility management function, AMF, in a first network which is a 5th generation, 5G, network, information about N intermediate session management network elements, I-SMFs, that are capable of serving a terminal in the first network, wherein the N intermediate session management network elements comprise a combined intermediate session management network element , the combined intermediate session management network element is capable of providing session management in the first network and is capable of providing session management in a second network which is a 4th generation, 4G, network, so that the combined intermediate session management network element is an I-SMF plus a serving gateway control plane function, SGW-C, and N is an integer greater than 0; and determining , by the first mobility management network element , that the combined intermediate session management network element is a first intermediate session management network element corresponding to a first session of the terminal in the first network, wherein an intermediate session management network element that is in the information about the N intermediate session management network elements and that comprises indication information is the combined intermediate session management network element , and the method further comprises: determining, by the first mobility management network element , the combined intermediate session management network element based on the indication information.
A fluid delivery device comprising: - a body ; - a solution flow path defined at the body , the solution flow path extending from a solution inlet defined at the body to a solution outlet defined at the body , wherein the solution flow path comprises a cross channel , an inlet channel and an outlet channel , the inlet channel extending from the solution inlet to the cross channel , and the outlet channel extending from the cross channel to the solution outlet ; and - a flush flow path defined at the body , the flush flow path extending from a flush inlet defined at the body to a flush outlet defined at the body , wherein the solution outlet fluidly connects the solution flow path to the flush flow path , characterised in that the cross-sectional area of the flush flow path is greater than a cross-sectional area of some portions, or the entirety, of the solution flow path . - a body ; - a solution flow path defined at the body , the solution flow path extending from a solution inlet defined at the body to a solution outlet defined at the body , wherein the solution flow path comprises a cross channel , an inlet channel and an outlet channel , the inlet channel extending from the solution inlet to the cross channel , and the outlet channel extending from the cross channel to the solution outlet ; and - a flush flow path defined at the body , the flush flow path extending from a flush inlet defined at the body to a flush outlet defined at the body , wherein the solution outlet fluidly connects the solution flow path to the flush flow path , characterised in that the cross-sectional area of the flush flow path is greater than a cross-sectional area of some portions, or the entirety, of the solution flow path .
A support and construction frame device or support and construction frame post including a profile made of composite material comprising a core constituting a spacer and at least one part called fastening part (21; 25) perpendicular to the part constituting the spacer, the device further including at least one hollow tube open at its two ends, secured to the profile at the part constituting the spacer, said hollow tube constituting a reservation means for pouring concrete, the composite material consisting of at least one matrix of a plastic, thermoplastic or thermosetting material, and reinforcing fibres, particularly of glass, basalt, or even of plant origin, characterised in that the core of the profile includes, at its two opposite upper and lower ends, a lower and upper rectangular recess, each recess extending over a length (L1) in the longitudinal direction of the profile , and over a width corresponding for example to half the width (L') of the core , these recesses defining protruding parts of the profile relative to the hollow tube .
A magnetic leakage inspection device comprising: an exciter having a yoke and magnetic generating means configured to generate a direct-current magnetic field to magnetize the yoke , the yoke having a pair of leg portions and an opening between the pair of leg portions , the pair of leg portions each being disposed at a portion opposed to an inspection object and each forming a magnetic pole; and a magnetic detector disposed in the opening of the yoke , wherein a size L of the opening of the yoke is in a range of 40 to 600 mm, and wherein the magnetic leakage inspection device further comprises guide plates made of a soft magnetic material, each of the guide plates being provided to protrude toward a center of the opening from a corresponding one of the pair of leg portions of the yoke so that the guide plates oppose each other; characterized in that distances H are defined by the distances between each guide plate that protrudes from its corresponding one of the leg portions of the yoke and the ends of the respective leg portions , each distance H and the size L of the opening satisfy a relation below: 0.05 ≤ H/L ≤ 0 .4 . an exciter having a yoke and magnetic generating means configured to generate a direct-current magnetic field to magnetize the yoke , the yoke having a pair of leg portions and an opening between the pair of leg portions , the pair of leg portions each being disposed at a portion opposed to an inspection object and each forming a magnetic pole; and a magnetic detector disposed in the opening of the yoke , wherein a size L of the opening of the yoke is in a range of 40 to 600 mm, and wherein the magnetic leakage inspection device further comprises guide plates made of a soft magnetic material, each of the guide plates being provided to protrude toward a center of the opening from a corresponding one of the pair of leg portions of the yoke so that the guide plates oppose each other; characterized in that distances H are defined by the distances between each guide plate that protrudes from its corresponding one of the leg portions of the yoke and the ends of the respective leg portions , each distance H and the size L of the opening satisfy a relation below: 0.05 ≤ H/L ≤ 0 .4 .
A method for mitigating traffic storms, the method comprising: detecting, by a traffic storm detector that is a component of a border gateway, BGW, node , an indication of a traffic storm, wherein the traffic storm includes a burst of message traffic in a network, wherein the BGW node is an ingress node of the network, communicating, by said traffic storm detector, the indication of the traffic storm to a policy and charging rules function, PCRF ; and at the PCRF, in response to receiving the indication of the traffic storm, sending one or more software defined network, SDN, commands to the BGW node to mitigate the traffic storm, wherein the SDN commands instruct the BGW node to route traffic to alternate networks. detecting, by a traffic storm detector that is a component of a border gateway, BGW, node , an indication of a traffic storm, wherein the traffic storm includes a burst of message traffic in a network, wherein the BGW node is an ingress node of the network, communicating, by said traffic storm detector, the indication of the traffic storm to a policy and charging rules function, PCRF ; and at the PCRF, in response to receiving the indication of the traffic storm, sending one or more software defined network, SDN, commands to the BGW node to mitigate the traffic storm, wherein the SDN commands instruct the BGW node to route traffic to alternate networks.
A polyethylene-polypropylene composition obtainable by blending a) 80 to 97 wt.-% of a blend (A) comprising A-1) polypropylene and A-2) polyethylene, wherein the weight ratio of polypropylene to polyethylene is from 3:7 to 7:3, and wherein blend (A) is a recycled material, which is recovered from a waste plastic material derived from post-consumer and/or industrial waste; whereby blend (A) has a content of limonene as determined by using solid phase microextraction (HS-SPME-GC-MS) as described in the experimental section of the specification of greater than 0 but less than 200 ppm, and b) 3 to 20 wt.-% of a compatibilizer (B) being a C 2 C 8 plastomer, having - a DSC melting point of 40 to 50 °C (ISO11357); - an MFR 2 (ISO1133, 2.16 kg load at 190 °C) of equal or below 1.5 g/10 min; and - a density of equal or lower than 885 kg/m 3 (ISO1183), wherein the ratio of MFR 2 (blend (A) (ISO1133, 2.16 kg load at 230 °C) / MFR 2 (compatibilizer (B) (ISO1133, 2.16 kg load at 190 °C), is in the range 3.0 to 15; and c) 0 to 1.0 wt.-% of a stabilizer or mixture of stabilizers. a) 80 to 97 wt.-% of a blend (A) comprising A-1) polypropylene and A-2) polyethylene, wherein the weight ratio of polypropylene to polyethylene is from 3:7 to 7:3, and wherein blend (A) is a recycled material, which is recovered from a waste plastic material derived from post-consumer and/or industrial waste; whereby blend (A) has a content of limonene as determined by using solid phase microextraction (HS-SPME-GC-MS) as described in the experimental section of the specification of greater than 0 but less than 200 ppm, and A-1) polypropylene and A-2) polyethylene, wherein the weight ratio of polypropylene to polyethylene is from 3:7 to 7:3, and wherein blend (A) is a recycled material, which is recovered from a waste plastic material derived from post-consumer and/or industrial waste; whereby blend (A) has a content of limonene as determined by using solid phase microextraction (HS-SPME-GC-MS) as described in the experimental section of the specification of greater than 0 but less than 200 ppm, and b) 3 to 20 wt.-% of a compatibilizer (B) being a C 2 C 8 plastomer, having - a DSC melting point of 40 to 50 °C (ISO11357); - an MFR 2 (ISO1133, 2.16 kg load at 190 °C) of equal or below 1.5 g/10 min; and - a density of equal or lower than 885 kg/m 3 (ISO1183), wherein the ratio of MFR 2 (blend (A) (ISO1133, 2.16 kg load at 230 °C) / MFR 2 (compatibilizer (B) (ISO1133, 2.16 kg load at 190 °C), is in the range 3.0 to 15; and - a DSC melting point of 40 to 50 °C (ISO11357); - an MFR 2 (ISO1133, 2.16 kg load at 190 °C) of equal or below 1.5 g/10 min; and - a density of equal or lower than 885 kg/m 3 (ISO1183), c) 0 to 1.0 wt.-% of a stabilizer or mixture of stabilizers.
A modified microorganism belonging to the genus of Corynebacterium for producing L-leucine, comprising a modified polypeptide having an isopropylmalate synthase activity, wherein glycine at position 561 from a N-terminus of a polypeptide consisting of the amino acid sequence of SEQ ID NO: 1 is substituted with aspartic acid in the modified polypeptide, and wherein the modified microorganism has a resistance to norleucine or L-leucine. wherein glycine at position 561 from a N-terminus of a polypeptide consisting of the amino acid sequence of SEQ ID NO: 1 is substituted with aspartic acid in the modified polypeptide, and wherein the modified microorganism has a resistance to norleucine or L-leucine.
A thermal management system , comprising: an avionics unit defining an interior configured to house at least one heat generating component , wherein the avionics unit comprises an electronics chassis having an exterior and defining the interior for housing the at least one heat generating component ; a first plurality of heat pipes , wherein a first end of the first plurality of heat pipes is coupled to the avionics unit , and defines a hot interface, and a second end of the first plurality of heat pipes is coupled to a structural portion of an aircraft that is thermally coupled to an external environment outside the aircraft ; wherein the hot interface further comprises a cold plate operably coupled to the electronics chassis and thermally coupled to the at least one heat generating component ; and a heat spreader , having a body located within the interior , thermally coupled to the electronics chassis of the avionics unit ; wherein the heat spreader further comprises a second plurality heat pipes embedded in the heat spreader , the second plurality heat pipes comprising a hot end thermally coupled to the heat generating component via a heatsink . an avionics unit defining an interior configured to house at least one heat generating component , wherein the avionics unit comprises an electronics chassis having an exterior and defining the interior for housing the at least one heat generating component ; a first plurality of heat pipes , wherein a first end of the first plurality of heat pipes is coupled to the avionics unit , and defines a hot interface, and a second end of the first plurality of heat pipes is coupled to a structural portion of an aircraft that is thermally coupled to an external environment outside the aircraft ; wherein the hot interface further comprises a cold plate operably coupled to the electronics chassis and thermally coupled to the at least one heat generating component ; and a heat spreader , having a body located within the interior , thermally coupled to the electronics chassis of the avionics unit ; wherein the heat spreader further comprises a second plurality heat pipes embedded in the heat spreader , the second plurality heat pipes comprising a hot end thermally coupled to the heat generating component via a heatsink .
A wavelength conversion device comprising: a substrate including a phosphor layer in which a phosphor is included; a rotating device configured to rotate the substrate ; a circulating device that is configured to circulate a cooling gas to the substrate ; and a housing configured to house the substrate and the circulating device , wherein the housing includes a partition wall configured to separate a first space (S2) in which the cooling gas is circulated to the substrate by the circulating device and a second space (S3) in which the cooling gas radially delivered from the substrate according to the rotation of the substrate circulates; and the substrate includes, on a surface against which the cooling gas is blown, a plurality of first fins extending from a center side toward an outer side of the substrate . a substrate including a phosphor layer in which a phosphor is included; a rotating device configured to rotate the substrate ; a circulating device that is configured to circulate a cooling gas to the substrate ; and a housing configured to house the substrate and the circulating device , wherein the housing includes a partition wall configured to separate a first space (S2) in which the cooling gas is circulated to the substrate by the circulating device and a second space (S3) in which the cooling gas radially delivered from the substrate according to the rotation of the substrate circulates; and the substrate includes, on a surface against which the cooling gas is blown, a plurality of first fins extending from a center side toward an outer side of the substrate .
Slat roof for a canopy , wherein the slat roof is provided with: - a frame comprising a first beam and a second beam which are substantially parallel and extend in a transverse direction , wherein the beams have a topside , an underside , an inside and an outside , wherein the insides of the beams face each other and wherein the first beam is provided with a set of recesses that are open towards the topside of the first beam ; and - a set of parallel slats positioned between and rotatably secured to the beams , wherein the slats extend in a longitudinal direction and are provided with a first extremity with a first slat shaft and a second extremity with a second slat shaft , wherein each of the first slat shafts is passed through a corresponding one of the set of recesses , characterised in that the first beam , near to at least one recess from said set of recesses , is provided with an abutment and in that the slat shaft that is placed in said recess is provided with a locking piece that at its topside at least partially abuts against said abutment. - a frame comprising a first beam and a second beam which are substantially parallel and extend in a transverse direction , wherein the beams have a topside , an underside , an inside and an outside , wherein the insides of the beams face each other and wherein the first beam is provided with a set of recesses that are open towards the topside of the first beam ; and - a set of parallel slats positioned between and rotatably secured to the beams , wherein the slats extend in a longitudinal direction and are provided with a first extremity with a first slat shaft and a second extremity with a second slat shaft , wherein each of the first slat shafts is passed through a corresponding one of the set of recesses ,
A method implementing orthogonal frequency division multiple access, OFDMA, communication according to Institute of Electrical and Electronics Engineers, IEEE, 802.11 ax standard comprising: transmitting a downlink or uplink frame; wherein the IEEE 802.11ax standard adopts a tone plan of 80MHz channel, which comprises a first set of data and pilot tones, a second set of data and pilot tones, and a direct current, DC, region positioned between the first set of data and pilot tones and the second set of data and pilot tones; the first set of data and pilot tones consists of eighteen non-bifurcated 26-tone resource units, RUs, and the first thirteen tones of a bifurcated 26-tone RU; the second set of data and pilot tones consists of eighteen non-bifurcated 26-tone RUs and the remaining thirteen tones of the bifurcated 26-tone RU; and, the tone plan further comprises a leftover tone positioned between at least two 26-tone RUs. transmitting a downlink or uplink frame; wherein the IEEE 802.11ax standard adopts a tone plan of 80MHz channel, which comprises a first set of data and pilot tones, a second set of data and pilot tones, and a direct current, DC, region positioned between the first set of data and pilot tones and the second set of data and pilot tones; the first set of data and pilot tones consists of eighteen non-bifurcated 26-tone resource units, RUs, and the first thirteen tones of a bifurcated 26-tone RU; the second set of data and pilot tones consists of eighteen non-bifurcated 26-tone RUs and the remaining thirteen tones of the bifurcated 26-tone RU; and, the tone plan further comprises a leftover tone positioned between at least two 26-tone RUs.