mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication, comprising: decoding, at a user equipment, UE, a multi-radio access technology, multi-RAT, primary synchronization signal, PSS, the multi-RAT PSS being common among a plurality of radio access technologies, RATs; decoding at the UE, based at least in part on the decoded multi-RAT PSS, a secondary synchronization signal, SSS; and identifying by the UE, based at least in part on the decoded SSS, a RAT associated with the multi-RAT PSS and the SSS, wherein identifying the RAT comprises identifying a RAT sequence number included in the SSS, the RAT sequence number comprising an identifier of the RAT. decoding, at a user equipment, UE, a multi-radio access technology, multi-RAT, primary synchronization signal, PSS, the multi-RAT PSS being common among a plurality of radio access technologies, RATs; decoding at the UE, based at least in part on the decoded multi-RAT PSS, a secondary synchronization signal, SSS; and identifying by the UE, based at least in part on the decoded SSS, a RAT associated with the multi-RAT PSS and the SSS, wherein identifying the RAT comprises identifying a RAT sequence number included in the SSS, the RAT sequence number comprising an identifier of the RAT.
A method for preparing agglomeration resistant particles comprising the steps of: a. providing tacky composition particles having an unconfined yield strength of at least 718 Pa (15 lbs/ft 2) _ at or above 25°C as measured by ASTM D6773; b. increasing the tackiness of the tacky composition particles by contacting the tacky composition particle with a first fluid at a temperature of at least 25°C; and c. contacting the tacky composition particles with an antiblock composition while the tacky composition particles are in contact with the first fluid wherein the first fluid is at a temperature of at least 25°C, wherein the tacky composition particles are polyolefin pellets and are at least partially coated with the antiblock composition. a. providing tacky composition particles having an unconfined yield strength of at least 718 Pa (15 lbs/ft 2) _ at or above 25°C as measured by ASTM D6773; b. increasing the tackiness of the tacky composition particles by contacting the tacky composition particle with a first fluid at a temperature of at least 25°C; and c. contacting the tacky composition particles with an antiblock composition while the tacky composition particles are in contact with the first fluid wherein the first fluid is at a temperature of at least 25°C,
Composition comprising calcium sulphate hemihydrate or anhydrous calcium sulphate, water and oxidized starch, said oxidized starch having: - a Brookfield viscosity of less than or equal to 2 cPs at a temperature of less than or equal to 55°C; and - a maximum Brookfield viscosity at a temperature of from 65°C to 100°C; and - a maximum Brookfield viscosity of from 100 cPs to 3000 cPs; - the Brookfield viscosity being measured for an aqueous solution of oxidized starch at a concentration of 8%, as a percentage by weight. - a Brookfield viscosity of less than or equal to 2 cPs at a temperature of less than or equal to 55°C; and - a maximum Brookfield viscosity at a temperature of from 65°C to 100°C; and - a maximum Brookfield viscosity of from 100 cPs to 3000 cPs; - the Brookfield viscosity being measured for an aqueous solution of oxidized starch at a concentration of 8%, as a percentage by weight.
A biosensor (1; 1') for sensing analytes in a fluid, comprising: - a substrate (20; 40); - a first structural layer (2; 2') of photodefinible hydrogel, extending on the substrate (20; 40); - a second structural layer (4; 4') of photodefinible hydrogel, extending over the first structural layer; - a bioactive region (6; 6'), which extends between the first structural layer (2; 2') and the second structural layer (4; 4') and is made of polymerized photodefinible hydrogel including bio-recognition elements and a reduction-oxidation mediator; - a working electrode (10; 10'), which extends at least in part on the first structural layer (2; 2') and in direct contact with the bioactive region (6; 6'); and - a counter-electrode (12; 12'), which extends at least in part on the first structural layer (2; 2') and in direct contact with the first structural layer (2; 2') at a distance and spaced apart from the bioactive region (6; 6'), wherein the second structural layer (4; 4') has a through opening (8; 8') at the bioactive region (6; 6') so that the bioactive region (6; 6') is in direct fluid connection with an environment external to the biosensor for receiving said fluid comprising said analytes to react with the bio-recognition elements and with the reduction-oxidation mediator. - a substrate (20; 40); - a first structural layer (2; 2') of photodefinible hydrogel, extending on the substrate (20; 40); - a second structural layer (4; 4') of photodefinible hydrogel, extending over the first structural layer; - a bioactive region (6; 6'), which extends between the first structural layer (2; 2') and the second structural layer (4; 4') and is made of polymerized photodefinible hydrogel including bio-recognition elements and a reduction-oxidation mediator; - a working electrode (10; 10'), which extends at least in part on the first structural layer (2; 2') and in direct contact with the bioactive region (6; 6'); and - a counter-electrode (12; 12'), which extends at least in part on the first structural layer (2; 2') and in direct contact with the first structural layer (2; 2') at a distance and spaced apart from the bioactive region (6; 6'),
Process for manufacturing an alloy of iron, nickel and chromium, for reformer tubes, comprising from 22 to 30% by weight of Cr, from 20% to 45% by weight of Ni, from 0.3 to 0, 6% by weight of C and presenting a microstructure with an austenitic matrix such that: i) micrometric primary precipitates in the form of M 23 C 6 type carbides with M=Fe, Ni or Cr and/or type M (C,N) with M=Nb or Ti are formed during the solidification of the alloy; ii) nanometric secondary precipitates in the form of M 23 C 6 type carbides with M=Fe, Ni or Cr and M (C,N) type with M=Nb or Ti are formed during the commissioning of the tube; And iii) a quantity of Ni 16 Si 7 Nb 6 type intermetallic precipitates comprised between 0.1 and 0.3% is formed during use of the tube, said process comprising a heat treatment of said alloy carried out in two stages: a) a first heat treatment step at temperatures between 700°C and 800°C with a stage of 10h to 100h, and b) a second heat treatment step under operating conditions of the reforming furnace having as source a source of hydrocarbons and undergoing a pressure varying between 1 and 4 MPa, and a temperature between 900°C and 1000°C. i) micrometric primary precipitates in the form of M 23 C 6 type carbides with M=Fe, Ni or Cr and/or type M (C,N) with M=Nb or Ti are formed during the solidification of the alloy; ii) nanometric secondary precipitates in the form of M 23 C 6 type carbides with M=Fe, Ni or Cr and M (C,N) type with M=Nb or Ti are formed during the commissioning of the tube; And iii) a quantity of Ni 16 Si 7 Nb 6 type intermetallic precipitates comprised between 0.1 and 0.3% is formed during use of the tube, a) a first heat treatment step at temperatures between 700°C and 800°C with a stage of 10h to 100h, and b) a second heat treatment step under operating conditions of the reforming furnace having as source a source of hydrocarbons and undergoing a pressure varying between 1 and 4 MPa, and a temperature between 900°C and 1000°C.
A method for leveling loudness variation in an audio signal (110, 210, 310, 410), the method comprising: receiving the audio signal (110, 210, 310, 410) and a desired loudness (140, 240, 340, 440) of the audio signal (110, 210, 310, 410); adjusting a short term loudness of the audio signal (110, 210, 310, 410) using a short term integration time, to yield an adjusted audio signal; wherein adjusting the short term loudness comprises using spectral analysis and models of human hearing to adjust the audio signal (110, 210, 310, 410); measuring an actual loudness of the adjusted audio signal using a long term integration time; wherein the long term integration time is longer than the short term integration time; calculating a gain value using a difference between the desired loudness (140, 240, 340, 440) and the actual loudness of the audio signal; and modifying the adjusted audio signal using the gain value. receiving the audio signal (110, 210, 310, 410) and a desired loudness (140, 240, 340, 440) of the audio signal (110, 210, 310, 410); adjusting a short term loudness of the audio signal (110, 210, 310, 410) using a short term integration time, to yield an adjusted audio signal; wherein adjusting the short term loudness comprises using spectral analysis and models of human hearing to adjust the audio signal (110, 210, 310, 410); measuring an actual loudness of the adjusted audio signal using a long term integration time; wherein the long term integration time is longer than the short term integration time; calculating a gain value using a difference between the desired loudness (140, 240, 340, 440) and the actual loudness of the audio signal; and modifying the adjusted audio signal using the gain value.
A method for preventing double digit detection in a downstream circuit-switched network caused by in-band DTMF leaks when a voice path goes through a packet-switched network and out-of-band DTMF is used within the packet-switched network, the method comprising: initialising a delay buffer (502, 504) in a time division multiplex to packet network direction with an audio pattern that represents silence in a configurable amount of delay; receiving audio; packetizing the audio into the delay buffer; when a DTMF digit is detected: discontinuing packetisation of the audio, stopping taking audio from the delay buffer, and injecting DTMF signalling packets for the DTMF digit; discarding contents within the delay buffer; filling the delay buffer with a silence pattern; and once the end of the DTMF digit is detected: continuing packetisation of the audio. initialising a delay buffer (502, 504) in a time division multiplex to packet network direction with an audio pattern that represents silence in a configurable amount of delay; receiving audio; packetizing the audio into the delay buffer; when a DTMF digit is detected: discontinuing packetisation of the audio, stopping taking audio from the delay buffer, and injecting DTMF signalling packets for the DTMF digit; discarding contents within the delay buffer; filling the delay buffer with a silence pattern; and once the end of the DTMF digit is detected: continuing packetisation of the audio.
A wireless communication system having a base station for communicating with a plurality of subordinate terminals using a plurality of frequency bands, comprising a grouping device configured to assign the plurality of terminals to a group of each of the frequency bands according to an available bandwidth based on a performance capability of each terminal.
An annular combustion chamber for a turbine engine, comprising: - an annular end wall provided with a plurality of injection systems each centred on a respective axis and each having an upstream end forming a bushing for receiving a head of a fuel injector, a downstream end opening into said combustion chamber, and an annular air inlet arranged between said upstream and downstream ends so that the air admitted through said annular air inlet mixes, within the injection system, with the fuel coming from the fuel injector, and - an annular shroud covering an upstream side of said end wall and comprising a plurality of injector ports respectively arranged facing said injection systems, said annular shroud and said end wall delimiting together an annular space into which the annular air inlet of each injection system opens, said annular shroud including a plurality of air intake ports separate from said injector ports, said combustion chamber being characterized in that said bushing of each of said injection systems crosses the corresponding injector port of said annular shroud and comprises, at its upstream end, an annular collar having a free end remote from said axis of the injection system by a first distance greater than or equal to a second distance separating a rim of said corresponding injector port from said axis of the injection system. - an annular end wall provided with a plurality of injection systems each centred on a respective axis and each having an upstream end forming a bushing for receiving a head of a fuel injector, a downstream end opening into said combustion chamber, and an annular air inlet arranged between said upstream and downstream ends so that the air admitted through said annular air inlet mixes, within the injection system, with the fuel coming from the fuel injector, and - an annular shroud covering an upstream side of said end wall and comprising a plurality of injector ports respectively arranged facing said injection systems, said annular shroud and said end wall delimiting together an annular space into which the annular air inlet of each injection system opens,
A tau protein comprising at least four or at least five different mutations selected from the group consisting of mutations associated with the condition frontotemporal dementia and parkinsonism linked to chromosome 17 (FTDP-17), wherein the tau protein has at least the mutations a) P301 L, V337M, R406W, and the deletion K280, b) K257T, P301L, V337M, R406W, or c) K257T, P301L, V337M, R406W and the deletion K280, wherein the numbering of amino acids refers to SEQ ID NO:2. a) P301 L, V337M, R406W, and the deletion K280, b) K257T, P301L, V337M, R406W, or c) K257T, P301L, V337M, R406W and the deletion K280,
A compound of Formula: or a pharmaceutically acceptable salt thereof, wherein: R 1 and R 2 each independently represent hydrogen or methyl; X represents CH 2 or O; Ring A and Ring B each independently represent a ring selected from phenyl, pyridinyl, pyrazinyl, pyrimidinyl and pyridazinyl, wherein each of Ring A and Ring B are independently optionally substituted with one or more substituents selected from C 1-3 alkyl and C 1-3 alkoxy; Ring C represents a 5 to 9 membered monocyclic or bicyclic saturated heterocycloalkyl optionally containing one or more additional heteroatoms independently selected from O, N and S, wherein Ring C is optionally substituted with one or more substituents selected from C 1-3 alkyl, optionally substituted with methoxy or hydroxyl; dioxo, C 0-2 alkyl-C N(Me) 2, C C 1-2 alkyl and S 2 C 1-2 alkyl. R 1 and R 2 each independently represent hydrogen or methyl; X represents CH 2 or O; Ring A and Ring B each independently represent a ring selected from phenyl, pyridinyl, pyrazinyl, pyrimidinyl and pyridazinyl, wherein each of Ring A and Ring B are independently optionally substituted with one or more substituents selected from C 1-3 alkyl and C 1-3 alkoxy; Ring C represents a 5 to 9 membered monocyclic or bicyclic saturated heterocycloalkyl optionally containing one or more additional heteroatoms independently selected from O, N and S, wherein Ring C is optionally substituted with one or more substituents selected from C 1-3 alkyl, optionally substituted with methoxy or hydroxyl; dioxo, C 0-2 alkyl-C N(Me) 2, C C 1-2 alkyl and S 2 C 1-2 alkyl.
A method for preparing a composition for non-viral transfection of cells with nucleic acids, which comprises the application of an oscillatory motion with frequency ranging from 100 Hz to 10 kHz and oscillation amplitude ranging from 200 nm to 2 mm, to a solution containing, in uncomplexed form, a cationic polymer or lipid and the nucleic acid of interest.
A curable rubber composition comprising: a) at least one diene elastomer; b) at least one reinforcing filler; c) at least one styrene/α-methyl styrene co-oligomer having a number average molecular weight of from about 300 to about 600 g/mol and a ring and ball softening point not greater than 60°C; d) a curative system capable of curing the curable rubber composition when heated; wherein at least one of condition i) or condition ii) is met: i) the ring and ball softening point of the at least one styrene/α-methyl styrene co-oligomer is at least 25°C; or ii) the at least one styrene/α-methyl styrene co-oligomer has a glass transition temperature not greater than 15°C as measured by ISO 11357-2. a) at least one diene elastomer; b) at least one reinforcing filler; c) at least one styrene/α-methyl styrene co-oligomer having a number average molecular weight of from about 300 to about 600 g/mol and a ring and ball softening point not greater than 60°C; d) a curative system capable of curing the curable rubber composition when heated; i) the ring and ball softening point of the at least one styrene/α-methyl styrene co-oligomer is at least 25°C; or ii) the at least one styrene/α-methyl styrene co-oligomer has a glass transition temperature not greater than 15°C as measured by ISO 11357-2.
A method of a first network node of optimizing downlink traffic (221, 223, 225, 226) in a communications network, wherein the downlink traffic is delivered to a client of the communications network via a Radio Access Network, RAN, the method comprising: receiving (211, 212; 401) from the client a request for content, including (213; 403) a traffic optimization functionality indication into the request, the traffic optimization functionality indication pertaining to a first traffic optimization functionality of the first network node, forwarding (214; 404) the request to a second network node of the communications network, the second network node being located upstream with respect to the first network node, receiving (223; 405) the downlink traffic from the second network node, optimizing (224; 406) the downlink traffic according to the first traffic optimization functionality, and forwarding (225, 226; 407) the downlink traffic to the client. receiving (211, 212; 401) from the client a request for content, including (213; 403) a traffic optimization functionality indication into the request, the traffic optimization functionality indication pertaining to a first traffic optimization functionality of the first network node, forwarding (214; 404) the request to a second network node of the communications network, the second network node being located upstream with respect to the first network node, receiving (223; 405) the downlink traffic from the second network node, optimizing (224; 406) the downlink traffic according to the first traffic optimization functionality, and forwarding (225, 226; 407) the downlink traffic to the client.
An apparatus for wireless communication, comprising: a processing system configured to generate a frame associated with beamforming training, the frame comprising an indication of whether the beamforming training is to be performed using a multiple-input and multiple-output, MIMO, transmission scheme, wherein the frame comprises a beam refinement request field, the beam refinement request field comprising one or more bits, wherein the one or more bits provide the indication of whether the beamforming training is to be performed using the MIMO transmission scheme, and wherein the beam refinement request field comprises one or more other bits providing an indication of whether the MIMO transmission scheme is single-user, SU, or multi-user, MU; a first interface configured to output the frame for transmission; and a second interface configured to obtain an indication of at least one first sector to be used during a multiple sector ID, MID, phase of the beamforming training, wherein the processing system is configured to perform the MID phase of the beamforming training using at least one second sector, wherein the first interface is configured to output for transmission a feedback request during the MID phase of the beamforming training, and wherein: a number of sectors of the at least one first sector are different than a number of sectors of the at least one second sector; or the at least one second sector comprises one or more sectors that are not in the at least one first sector. a processing system configured to generate a frame associated with beamforming training, the frame comprising an indication of whether the beamforming training is to be performed using a multiple-input and multiple-output, MIMO, transmission scheme, wherein the frame comprises a beam refinement request field, the beam refinement request field comprising one or more bits, wherein the one or more bits provide the indication of whether the beamforming training is to be performed using the MIMO transmission scheme, and wherein the beam refinement request field comprises one or more other bits providing an indication of whether the MIMO transmission scheme is single-user, SU, or multi-user, MU; a first interface configured to output the frame for transmission; and a second interface configured to obtain an indication of at least one first sector to be used during a multiple sector ID, MID, phase of the beamforming training, wherein the processing system is configured to perform the MID phase of the beamforming training using at least one second sector, wherein the first interface is configured to output for transmission a feedback request during the MID phase of the beamforming training, and wherein: a number of sectors of the at least one first sector are different than a number of sectors of the at least one second sector; or the at least one second sector comprises one or more sectors that are not in the at least one first sector. a number of sectors of the at least one first sector are different than a number of sectors of the at least one second sector; or the at least one second sector comprises one or more sectors that are not in the at least one first sector.
Device for correcting the hand position of a rider on an equestrian animal, in particular a horse, comprising at least two support elements, which are essentially vertical relative to a horse's back are placed close to the neck of the mounted animal, two holding elements being substantially parallel to each other and at a predetermined, substantially equal distance from an essentially vertical central axis, for grasping the holding elements with the hands of the rider, in particular retaining reins for acting on the mounted animal in the hands of the rider when holding the holding elements, the holding elements being attached to a the end of the saddle of the rider are fastened, whereby the holding elements are connected to each other by means of one or more transverse elements, in particular flexibly or rigidly, whereby the transverse element(s) connects the upper ends of the holding elements.
A herbal composition comprising a dosage form comprising: a) an extract from the bark of Crataeva nurvala (Varun bhavit) in an amount of 50%; b) an extract from stem, yarn and root of Musa sapientum (Kadalikshar) in an amount of 15%; c) an extract from flowers, leaves, seeds, roots and fruits of Achyranthus aspera (Apamargkshar) in an amount of 15%; and d) an extract from seeds of Hordeum vulgare (Yavkshar) in an amount of 20%; wherein said percentages are based on the combined weight of components (a), (b), (c) and (d); and wherein said dosage form is selected from the group consisting of a tablet and an emulsion. a) an extract from the bark of Crataeva nurvala (Varun bhavit) in an amount of 50%; b) an extract from stem, yarn and root of Musa sapientum (Kadalikshar) in an amount of 15%; c) an extract from flowers, leaves, seeds, roots and fruits of Achyranthus aspera (Apamargkshar) in an amount of 15%; and d) an extract from seeds of Hordeum vulgare (Yavkshar) in an amount of 20%;