mhurhangee/patent-ind-claim-en huggingface dataset:
A method for receiving, by a station, STA, a signal from an access point, AP, related to a plurality of basic service sets, BSSs, in a wireless local area network, LAN, system, the method comprising: receiving, from the AP, a frame including information on the plurality of BSSs, wherein the information on the plurality of BSSs includes information on a plurality of BSS identifiers, BSSIDs, and information on a BSS color for the plurality of BSSs, wherein each of the plurality of BSSIDs is set to a value that is different per individual BSS, and the BSS color is set to a value that is identical for the plurality of BSS; receiving a physical layer protocol data unit, PPDU, which has a same BSS color as the BSS color of a BSS associated with the STA and does not include an identifier of the STA, wherein the PPDU is determined as an intra-BSS PPDU based on the same BSS color; and entering a doze state until an end of the PPDU based on the received PPDU. receiving, from the AP, a frame including information on the plurality of BSSs, wherein the information on the plurality of BSSs includes information on a plurality of BSS identifiers, BSSIDs, and information on a BSS color for the plurality of BSSs, wherein each of the plurality of BSSIDs is set to a value that is different per individual BSS, and the BSS color is set to a value that is identical for the plurality of BSS; receiving a physical layer protocol data unit, PPDU, which has a same BSS color as the BSS color of a BSS associated with the STA and does not include an identifier of the STA, wherein the PPDU is determined as an intra-BSS PPDU based on the same BSS color; and entering a doze state until an end of the PPDU based on the received PPDU.
A refrigerating unit and/or a freezer unit having a refrigerant circuit comprising an evaporator and a condenser; and a fan in the region of the evaporator for the direct ventilation of a unit area or of a unit component, wherein a regulation module is provided for regulating the speed and/or operating voltage of the fan in dependence on at least one influencing value; and the regulation module takes account of the current evaporator temperature and/or of a difference between the actual evaporator temperature and the desired evaporator temperature as the influencing value, characterized in that the used transfer function of the regulation module is a logarithmic or polynomial, or exponential function. a refrigerant circuit comprising an evaporator and a condenser; and a fan in the region of the evaporator for the direct ventilation of a unit area or of a unit component, a regulation module is provided for regulating the speed and/or operating voltage of the fan in dependence on at least one influencing value; and the regulation module takes account of the current evaporator temperature and/or of a difference between the actual evaporator temperature and the desired evaporator temperature as the influencing value,
An aircraft wing skin comprising a span-wise primary axis of loading (X), comprising: a plurality of resin plies each reinforced with unidirectional fibers , and including cross-plies having fiber orientations optimized to resist bending and torsional loads along the primary axis of loading (X), wherein the plurality of resin plies includes: at least one resin ply reinforced with unidirectional fibers having a substantially 0 degree fiber orientation relative to the primary axis of loading (X), at least one resin ply reinforced with unidirectional fibers having a substantially 90 degree fiber orientation relative to the primary axis of loading (X), and the cross-plies each having ±θ degree fiber orientations relative to the primary axis of loading (X), where θ is within a range of approximately 10 degrees and 43 degrees, wherein: the optimized orientations vary in a span-wise direction along the length of the aircraft wing skin ; and the θ degree fiber orientations of the cross-plies vary along the primary axis of loading (X). a plurality of resin plies each reinforced with unidirectional fibers , and including cross-plies having fiber orientations optimized to resist bending and torsional loads along the primary axis of loading (X), wherein the plurality of resin plies includes: at least one resin ply reinforced with unidirectional fibers having a substantially 0 degree fiber orientation relative to the primary axis of loading (X), at least one resin ply reinforced with unidirectional fibers having a substantially 90 degree fiber orientation relative to the primary axis of loading (X), and the cross-plies each having ±θ degree fiber orientations relative to the primary axis of loading (X), where θ is within a range of approximately 10 degrees and 43 degrees, at least one resin ply reinforced with unidirectional fibers having a substantially 0 degree fiber orientation relative to the primary axis of loading (X), at least one resin ply reinforced with unidirectional fibers having a substantially 90 degree fiber orientation relative to the primary axis of loading (X), and the cross-plies each having ±θ degree fiber orientations relative to the primary axis of loading (X), where θ is within a range of approximately 10 degrees and 43 degrees, wherein: the optimized orientations vary in a span-wise direction along the length of the aircraft wing skin ; and the θ degree fiber orientations of the cross-plies vary along the primary axis of loading (X). the optimized orientations vary in a span-wise direction along the length of the aircraft wing skin ; and the θ degree fiber orientations of the cross-plies vary along the primary axis of loading (X).
Press jaw for pressing fittings with pipes, - with a press insert and - with a drive press jaw , - wherein the press insert includes : - at least two press segments , - a press contour formed in the press segments , - joint means for connecting the press segments , - coupling means for releasably connecting with the drive press jaw ; and - power transmission means , - wherein the drive press jaw has: - two drive press jaw halves , - joint elements for connecting the drive press jaw halves , - coupling elements for releasably connecting with the press insert and - force transmission elements , characterised in - that the joint means pivotably connect the press insert to the drive press jaw , and - that the force transmission means and the force transmission elements are arranged at least predominantly, preferably completely, in an area between the center of the press contour and the joint means . - with a press insert and - with a drive press jaw , - wherein the press insert includes : - at least two press segments , - a press contour formed in the press segments , - joint means for connecting the press segments , - coupling means for releasably connecting with the drive press jaw ; and - power transmission means , - at least two press segments , - a press contour formed in the press segments , - joint means for connecting the press segments , - coupling means for releasably connecting with the drive press jaw ; and - power transmission means , - wherein the drive press jaw has: - two drive press jaw halves , - joint elements for connecting the drive press jaw halves , - coupling elements for releasably connecting with the press insert and - force transmission elements , characterised in - two drive press jaw halves , - joint elements for connecting the drive press jaw halves , - coupling elements for releasably connecting with the press insert and - force transmission elements , - that the joint means pivotably connect the press insert to the drive press jaw , and - that the force transmission means and the force transmission elements are arranged at least predominantly, preferably completely, in an area between the center of the press contour and the joint means .
A method of connecting a terminal to a substrate for forming a power semiconductor module by using ultrasound welding, wherein the terminal comprises a first connection area being located at a terminal foot , the terminal further comprises a second connection area being located opposite to the first connection area at the terminal foot , the substrate comprises a third connection area , and the method comprises the following steps: a) Bringing the first connection area in contact to the third connection area ; b) Connecting the terminal to the substrate by acting on the second connection area with an ultrasound welding tool ; c) Smoothening the second connection area by performing a smoothening step after having performed step b); and d) Connecting at least one electrical connection to the second connection area after having performed step c). the terminal comprises a first connection area being located at a terminal foot , the terminal further comprises a second connection area being located opposite to the first connection area at the terminal foot , the substrate comprises a third connection area , and the method comprises the following steps: a) Bringing the first connection area in contact to the third connection area ; b) Connecting the terminal to the substrate by acting on the second connection area with an ultrasound welding tool ; c) Smoothening the second connection area by performing a smoothening step after having performed step b); and d) Connecting at least one electrical connection to the second connection area after having performed step c). a) Bringing the first connection area in contact to the third connection area ; b) Connecting the terminal to the substrate by acting on the second connection area with an ultrasound welding tool ; c) Smoothening the second connection area by performing a smoothening step after having performed step b); and d) Connecting at least one electrical connection to the second connection area after having performed step c).
A heat exchanger assembly comprising: a first hot fluid flow channel ; a cold fluid flow channel ; and a second hot fluid flow channel (21 0b); wherein the cold fluid flow channel is disposed between the first and second hot fluid flow channels; and a heat exchanger comprising a heat sink and a thermoelectric device disposed between both the first hot fluid channel and the cold fluid channel and the second hot fluid channel and the cold fluid channel thereby to allow at least one of the hot fluid channels to heat the cold fluid channel and for the cold fluid channel to cool the at least one of the hot fluid channels , characterised in that the heat sink comprises an open mesh or cell structure which defines the heat sink space and supports a material of high specific heat capacity and/or latent heat, wherein the, or each, thermoelectric device abuts a cold fluid flow channel, and wherein the, or each, heat sink abuts a hot fluid flow channel . a first hot fluid flow channel ; a cold fluid flow channel ; and a second hot fluid flow channel (21 0b); wherein the cold fluid flow channel is disposed between the first and second hot fluid flow channels; and a heat exchanger comprising a heat sink and a thermoelectric device disposed between both the first hot fluid channel and the cold fluid channel and the second hot fluid channel and the cold fluid channel thereby to allow at least one of the hot fluid channels to heat the cold fluid channel and for the cold fluid channel to cool the at least one of the hot fluid channels , characterised in that the heat sink comprises an open mesh or cell structure which defines the heat sink space and supports a material of high specific heat capacity and/or latent heat, wherein the, or each, thermoelectric device abuts a cold fluid flow channel, and wherein the, or each, heat sink abuts a hot fluid flow channel .
A method of transmitting data using a sidelink, SL, radio communication between a first radio device (100; 1100) and a second radio device (200; 1200), the method comprising the steps of: broadcasting a scheduling assignment, SA , by the first radio device announcing a transmission of the data for the second radio device (200; 1200); transmitting the data according to the SA from the first radio device (100; 1100) in a unicast mode to the second radio device (200; 1200); and receiving , responsive to the data transmission , a control feedback from the second radio device (200; 1200) in a unicast mode at the first radio device (100; 1100), wherein the control feedback is received on a feedback radio resource determined by at least one of the first radio device (100; 1100) and the second radio device (200; 1200), wherein at least one of - the SA and the control feedback , and - the data and the control feedback are transmitted in the same transmission time interval, TTI. broadcasting a scheduling assignment, SA , by the first radio device announcing a transmission of the data for the second radio device (200; 1200); transmitting the data according to the SA from the first radio device (100; 1100) in a unicast mode to the second radio device (200; 1200); and receiving , responsive to the data transmission , a control feedback from the second radio device (200; 1200) in a unicast mode at the first radio device (100; 1100), wherein the control feedback is received on a feedback radio resource determined by at least one of the first radio device (100; 1100) and the second radio device (200; 1200), wherein at least one of - the SA and the control feedback , and - the data and the control feedback are transmitted in the same transmission time interval, TTI. - the SA and the control feedback , and - the data and the control feedback
A composition, notably a cosmetic composition, in particular for making up and/or caring for keratin materials, in the form of an oil-in-water emulsified gel, comprising: - retinol; - di-t-butyl pentaerythrityl tetrahydroxycinnamate; - at least one ethylenediaminedisuccinic acid salt; - at least 11% by weight of at least one polyol relative to the total weight of the composition; - at least one hydrophilic gelling agent; - at least one derivative of polyethylene glycol and of mono-, di- and triglycerides of an acid including at least one C 6 to C 16 alkyl chain, and containing at least two ethylene oxide groups; - at least one non-volatile ether oil containing from 10 to 40 carbon atoms; and - at least one non-volatile monoester oil. - retinol; - di-t-butyl pentaerythrityl tetrahydroxycinnamate; - at least one ethylenediaminedisuccinic acid salt; - at least 11% by weight of at least one polyol relative to the total weight of the composition; - at least one hydrophilic gelling agent; - at least one derivative of polyethylene glycol and of mono-, di- and triglycerides of an acid including at least one C 6 to C 16 alkyl chain, and containing at least two ethylene oxide groups; - at least one non-volatile ether oil containing from 10 to 40 carbon atoms; and - at least one non-volatile monoester oil.
A scanning-printing integrated apparatus, comprising: a scanning passage , a printing passage communicated with the scanning passage , a transitional passage providing printing medium to the printing passage , a first driving mechanism for driving a paper conveying roller of the scanning passage and a paper conveying roller of the printing passage , and a second driving mechanism for driving a paper conveying roller of the transitional passage and the paper conveying roller of the printing passage , characterized in that , the paper conveying roller of the printing passage comprises a first end and a second end, wherein the first end is transmission-connected to the first driving mechanism via a first one-way bearing and the second end is transmission-connected to the second driving mechanism via a second one-way bearing , the second driving mechanism is adapted not to move when the paper conveying roller of the printing passage moves under the drive of the first driving mechanism; the first driving mechanism is adapted not to move when the paper conveying roller of the printing passage moves under the drive of the second driving mechanism, the first driving mechanism comprises a first driving motor and a plurality of gears in transmission connection with the first driving motor , and the first one-way bearing is arranged between one of the gears and the paper conveying roller of the printing passage , the second driving mechanism comprises a second driving motor and a plurality of gears in transmission connection with the second driving motor, wherein the second one-way bearing is arranged between one of the gears and the paper conveying roller of the printing passage .
An optical fiber composed of silica glass, the optical fiber comprising: a core including a first core including a central axis and a second core arranged to surround the first core, and a cladding arranged to surround the core , wherein the first core contains an alkali metal element or alkaline-earth metal element, and chlorine, wherein, the second core contains an alkali metal element or alkaline-earth metal element, and chlorine, and wherein the cladding has a lower refractive index than the core , characterized in that in the first core the average concentration of the alkali metal element or alkaline-earth metal element is 10 mol ppm or less and the average concentration of chlorine is 2000 mol ppm or more, and in the second core , the average concentration of the alkali metal element or alkaline-earth metal element is 10 mol ppm or more, and the average concentration of chlorine is 10 to 600 mol ppm. a core including a first core including a central axis and a second core arranged to surround the first core, and a cladding arranged to surround the core , wherein the first core contains an alkali metal element or alkaline-earth metal element, and chlorine, wherein, the second core contains an alkali metal element or alkaline-earth metal element, and chlorine, and wherein the cladding has a lower refractive index than the core , characterized in that in the first core the average concentration of the alkali metal element or alkaline-earth metal element is 10 mol ppm or less and the average concentration of chlorine is 2000 mol ppm or more, and in the second core , the average concentration of the alkali metal element or alkaline-earth metal element is 10 mol ppm or more, and the average concentration of chlorine is 10 to 600 mol ppm.
An equipment enclosure , comprising: a plurality of equipment elements , each equipment element having one or more heat generating sources, the equipment elements having inlet and exhaust vents located in their housings at the front and the rear respectively; a heat exchanger mounted towards the top of the equipment enclosure , the heat exchanger being thermally coupled to at least some of the heat generating sources; an exhaust vent in the top of the equipment enclosure through which rising air heated by the heat exchanger, which heats up as a result of the heat exchanger being thermally coupled to at least some of the heat generating sources, may be evacuated; an equipment enclosure inlet vent through which air from outside the equipment enclosure may be drawn into the equipment enclosure to directly cool the heat exchanger by stack effect ventilation; and a baffle to segregate outside air drawn into the equipment enclosure through the equipment element inlet vents from outside air drawn through the equipment enclosure inlet vent to establish first and second separate and parallel air paths, the first air path to cool the heat exchanger directly using stack effect ventilation, and the second air path to cool the equipment elements directly using stack effect ventilation, wherein heated exhaust airfrom the first and second air paths is evacuated through the exhaust vent. a plurality of equipment elements , each equipment element having one or more heat generating sources, the equipment elements having inlet and exhaust vents located in their housings at the front and the rear respectively; a heat exchanger mounted towards the top of the equipment enclosure , the heat exchanger being thermally coupled to at least some of the heat generating sources; an exhaust vent in the top of the equipment enclosure through which rising air heated by the heat exchanger, which heats up as a result of the heat exchanger being thermally coupled to at least some of the heat generating sources, may be evacuated; an equipment enclosure inlet vent through which air from outside the equipment enclosure may be drawn into the equipment enclosure to directly cool the heat exchanger by stack effect ventilation; and a baffle to segregate outside air drawn into the equipment enclosure through the equipment element inlet vents from outside air drawn through the equipment enclosure inlet vent to establish first and second separate and parallel air paths, the first air path to cool the heat exchanger directly using stack effect ventilation, and the second air path to cool the equipment elements directly using stack effect ventilation, wherein heated exhaust airfrom the first and second air paths is evacuated through the exhaust vent.
First vehicle-side terminal (NNa; NN1; NN4) of a group of terminals of a radio communication network, wherein the first vehicle-side terminal (NNa; NN1; NN4) comprises at least one processor, at least one memory containing computer program code, at least one communication module and at least one antenna, wherein the computer program code is configured such that it acts with the at least one processor, the at least one communication module and the at least one antenna such that the first vehicle-side terminal (NNa; NN1; NN4) - determines a symmetric key, - determines an input value on a random basis, - sends a first message comprising the symmetric key and the input value in the direction of a second vehicle-side terminal (NNb; NN2; NN3; NN5; NN6), - determines a session key on the basis of the symmetric key and on the basis of the input value, - selects the determined session key as currently valid session key, - receives a second message comprising encrypted data from the second vehicle-side terminal (NNb; NN2; NN3; NN5; NN6), and - determines unencrypted data on the basis of the encrypted data and the currently valid session key. - determines a symmetric key, - determines an input value on a random basis, - sends a first message comprising the symmetric key and the input value in the direction of a second vehicle-side terminal (NNb; NN2; NN3; NN5; NN6), - determines a session key on the basis of the symmetric key and on the basis of the input value, - selects the determined session key as currently valid session key, - receives a second message comprising encrypted data from the second vehicle-side terminal (NNb; NN2; NN3; NN5; NN6), and - determines unencrypted data on the basis of the encrypted data and the currently valid session key.