mhurhangee/patent-ind-claim-en huggingface dataset:
A communications device for use in a wireless communications network, the wireless communications network comprising an infrastructure equipment providing a wireless access interface within a system bandwidth, the system bandwidth comprising a plurality of bandwidth parts, the communications device comprising a transmitter configured to transmit signals using a plurality of activated bandwidth parts, a receiver configured to receive signals using the plurality of activated bandwidth parts, the received signals being signals transmitted using a plurality of activated beams, and a controller configured to control the transmitter and the receiver so that the communications device is operable: to determine that an activated beam associated with a first bandwidth part satisfies beam failure criteria; to select from the plurality of activated bandwidth parts a second bandwidth part; and to transmit using communications resources associated with the selected second bandwidth part a beam failure indication indicating that the activated beam associated with the first bandwidth part satisfies the beam failure criteria. a transmitter configured to transmit signals using a plurality of activated bandwidth parts, a receiver configured to receive signals using the plurality of activated bandwidth parts, the received signals being signals transmitted using a plurality of activated beams, and a controller configured to control the transmitter and the receiver so that the communications device is operable: to determine that an activated beam associated with a first bandwidth part satisfies beam failure criteria; to select from the plurality of activated bandwidth parts a second bandwidth part; and to transmit using communications resources associated with the selected second bandwidth part a beam failure indication indicating that the activated beam associated with the first bandwidth part satisfies the beam failure criteria. to determine that an activated beam associated with a first bandwidth part satisfies beam failure criteria; to select from the plurality of activated bandwidth parts a second bandwidth part; and to transmit using communications resources associated with the selected second bandwidth part a beam failure indication indicating that the activated beam associated with the first bandwidth part satisfies the beam failure criteria.
An adhesion promoter having at least one epoxide group and a plurality of hydrolyzable silyl groups, the adhesion promoter being a ring-opened adduct of a) a polyepoxide comprising at least two epoxide groups; b) an aminosilane of Formula (I) HN(R 1 )(Z 1 -Si(L 1 ) x (L 2 ) 3-x ) (I) wherein R 1 is hydrogen, alkyl, or a group of formula -Z 1 -Si(L 1 ) x (L 2 ) 3 -x; L 1 is a hydrolyzable group; L 2 is an alkyl; x is an integer equal to 1, 2, or 3; Z 1 is a divalent linking group having 1 to 12 carbon atoms; and c) an isocyanato silane of Formula (II) O=C=N-Z 2 -Si(L 3 ) y (L 4 ) 3-y (II) wherein L 3 is a hydrolyzable group; L 4 is an alkyl; y is an integer equal to 1, 2, or 3; Z 2 is a divalent linking group having 1 to 12 carbon atoms. a) a polyepoxide comprising at least two epoxide groups; b) an aminosilane of Formula (I) HN(R 1 )(Z 1 -Si(L 1 ) x (L 2 ) 3-x ) (I) wherein R 1 is hydrogen, alkyl, or a group of formula -Z 1 -Si(L 1 ) x (L 2 ) 3 -x; L 1 is a hydrolyzable group; L 2 is an alkyl; x is an integer equal to 1, 2, or 3; Z 1 is a divalent linking group having 1 to 12 carbon atoms; and R 1 is hydrogen, alkyl, or a group of formula -Z 1 -Si(L 1 ) x (L 2 ) 3 -x; L 1 is a hydrolyzable group; L 2 is an alkyl; x is an integer equal to 1, 2, or 3; Z 1 is a divalent linking group having 1 to 12 carbon atoms; and c) an isocyanato silane of Formula (II) O=C=N-Z 2 -Si(L 3 ) y (L 4 ) 3-y (II) wherein L 3 is a hydrolyzable group; L 4 is an alkyl; y is an integer equal to 1, 2, or 3; Z 2 is a divalent linking group having 1 to 12 carbon atoms. L 3 is a hydrolyzable group; L 4 is an alkyl; y is an integer equal to 1, 2, or 3; Z 2 is a divalent linking group having 1 to 12 carbon atoms.
A condenser assembly comprising: a condenser comprising a first condenser body having a first side face and an opposing second side face , the first condenser body bounding a channel extending therein; means for cooling the condenser, the means for cooling being in communication with the channel of the first condenser body; and a condenser bag , characterised in that the condenser bag is removably coupled with the condenser, the condenser bag bounding: a first compartment having a first gas inlet port , a first gas exhaust port and a first fluid collection port each of the first gas inlet port , the first gas exhaust port and a first fluid collection port communicating with the first compartment and; a second compartment having a second gas inlet port , a second gas exhaust port and a second fluid collection port each of the second gas inlet port , the second gas exhaust port and the second fluid collection port communicating with the second compartment, wherein the condenser further comprises: a first door movably mounted on the first condenser body, at least a portion of the condenser bag being disposed between the condenser body and the first door so that the at least a portion of the condenser bag is positioned adjacent the first side face of the condenser body. a condenser comprising a first condenser body having a first side face and an opposing second side face , the first condenser body bounding a channel extending therein; means for cooling the condenser, the means for cooling being in communication with the channel of the first condenser body; and a condenser bag , characterised in that the condenser bag is removably coupled with the condenser, the condenser bag bounding: a first compartment having a first gas inlet port , a first gas exhaust port and a first fluid collection port each of the first gas inlet port , the first gas exhaust port and a first fluid collection port communicating with the first compartment and; a second compartment having a second gas inlet port , a second gas exhaust port and a second fluid collection port each of the second gas inlet port , the second gas exhaust port and the second fluid collection port communicating with the second compartment, a first compartment having a first gas inlet port , a first gas exhaust port and a first fluid collection port each of the first gas inlet port , the first gas exhaust port and a first fluid collection port communicating with the first compartment and; a second compartment having a second gas inlet port , a second gas exhaust port and a second fluid collection port each of the second gas inlet port , the second gas exhaust port and the second fluid collection port communicating with the second compartment, wherein the condenser further comprises: a first door movably mounted on the first condenser body, at least a portion of the condenser bag being disposed between the condenser body and the first door so that the at least a portion of the condenser bag is positioned adjacent the first side face of the condenser body.
An electrochromic window comprising: one or more transparent substrates, at least one of the substrates being an electrochromic (EC) lite, the at least one substrate having (a) an electrochromic device coating and (b) a pattern disposed thereon, the pattern comprising: (i) a first feature that provides at least 10% more reflection or scattering of electromagnetic radiation at a first wavelength between 320-390 nm than at a second wavelength between 400-700 nm, and (ii) a second feature that is substantially transparent to electromagnetic radiation at wavelengths between 300-700 nm, the first and second features being interspersed with one another wherein the first feature comprises a first material and the second feature comprises a second material that has a different composition than the first material; or the pattern is formed in a layer comprising a material, wherein the first or second features comprise an area or areas of reduced thickness; or the pattern is formed in a layer comprising a material, wherein the first or second features comprise an area or areas of different morphology. one or more transparent substrates, at least one of the substrates being an electrochromic (EC) lite, the at least one substrate having (a) an electrochromic device coating and (b) a pattern disposed thereon, the pattern comprising: (i) a first feature that provides at least 10% more reflection or scattering of electromagnetic radiation at a first wavelength between 320-390 nm than at a second wavelength between 400-700 nm, and (ii) a second feature that is substantially transparent to electromagnetic radiation at wavelengths between 300-700 nm, the first and second features being interspersed with one another wherein (i) a first feature that provides at least 10% more reflection or scattering of electromagnetic radiation at a first wavelength between 320-390 nm than at a second wavelength between 400-700 nm, and (ii) a second feature that is substantially transparent to electromagnetic radiation at wavelengths between 300-700 nm, the first and second features being interspersed with one another the first feature comprises a first material and the second feature comprises a second material that has a different composition than the first material; or the pattern is formed in a layer comprising a material, wherein the first or second features comprise an area or areas of reduced thickness; or the pattern is formed in a layer comprising a material, wherein the first or second features comprise an area or areas of different morphology.
An assembling device for assembling of a fuselage or wing of an aircraft comprising: - a holding member configured to hold a first assembly component of the fuselage or wing and a second assembly component of the fuselage or wing; and characterised by - a processing device configured to process a first excess thickness portion and a second excess thickness portion the first excess thickness portion being provided at the first assembly component and being configured to adjust a gap between the first assembly component and the second assembly component , the second excess thickness portion being provided at the second assembly component and being configured to adjust the gap, wherein the processing device is configured to form a first position aligner at the first excess thickness portion and to form a second position aligner at the second excess thickness portion , the first position aligner being configured to perform aligning of the first excess thickness portion and the second excess thickness portion in a direction orthogonal to a direction in which the first assembly component and the second assembly component face each other, the second position aligner being provided in correspondence with the first position aligner , wherein the first excess thickness portion has a varying height in a width direction of the first assembly component , and the second excess thickness portion has a varying height in a width direction of the second assembly component . - a holding member configured to hold a first assembly component of the fuselage or wing and a second assembly component of the fuselage or wing; and - a processing device configured to process a first excess thickness portion and a second excess thickness portion the first excess thickness portion being provided at the first assembly component and being configured to adjust a gap between the first assembly component and the second assembly component , the second excess thickness portion being provided at the second assembly component and being configured to adjust the gap, wherein the processing device is configured to form a first position aligner at the first excess thickness portion and to form a second position aligner at the second excess thickness portion , the first position aligner being configured to perform aligning of the first excess thickness portion and the second excess thickness portion in a direction orthogonal to a direction in which the first assembly component and the second assembly component face each other, the second position aligner being provided in correspondence with the first position aligner , wherein the first excess thickness portion has a varying height in a width direction of the first assembly component , and the second excess thickness portion has a varying height in a width direction of the second assembly component .
A transmitting device for a wireless communication system , the transmitting device being configured to: transmit one or more synchronization signals on a carrier to at least one receiving device , wherein a frequency of a synchronization signal among the one or more synchronization signals is located on a first frequency raster and a carrier frequency of the carrier is deployed on a second frequency raster, and wherein frequencies of two different synchronization signals among the one or more synchronization signals are located on different frequency positions in the first raster; and transmit an indication of the carrier frequency to the at least one receiving device , wherein the indication of the carrier frequency comprises at least one integer number, and wherein the at least one integer number is a first index indicating an offset indicative of a first frequency location relative to a location of the frequency of the synchronization signal and a second index indicating a second frequency location indicative of a location of the carrier frequency relative to the first frequency location. transmit one or more synchronization signals on a carrier to at least one receiving device , wherein a frequency of a synchronization signal among the one or more synchronization signals is located on a first frequency raster and a carrier frequency of the carrier is deployed on a second frequency raster, and wherein frequencies of two different synchronization signals among the one or more synchronization signals are located on different frequency positions in the first raster; and transmit an indication of the carrier frequency to the at least one receiving device , wherein the indication of the carrier frequency comprises at least one integer number, and wherein the at least one integer number is a first index indicating an offset indicative of a first frequency location relative to a location of the frequency of the synchronization signal and a second index indicating a second frequency location indicative of a location of the carrier frequency relative to the first frequency location.
Method for producing a composite car body component which has at least partially several layers (110, 120, 130; 310, 320) of different materials, comprising: - construction of the layers (110, 120, 130; 310, 320), wherein at least one layer is formed of UV-hardening duroplastic plastic having light-transmitting fibres embedded therein; - pressing of the layers (110, 120, 130; 310, 320) within the cavity of a tool , wherein in the edge region of the cavity several UV lamps are disposed in the cavity wall and the UV light generated by the UV lamps is coupled directly or indirectly into the open fibre ends of the light-transmitting fibres, such that simultaneously with the pressing the layer formed from UV-hardening duroplastic plastic is hardened with UV light by means of the light-conducting fibres. - construction of the layers (110, 120, 130; 310, 320), wherein at least one layer is formed of UV-hardening duroplastic plastic having light-transmitting fibres embedded therein; - pressing of the layers (110, 120, 130; 310, 320) within the cavity of a tool , wherein in the edge region of the cavity several UV lamps are disposed in the cavity wall and the UV light generated by the UV lamps is coupled directly or indirectly into the open fibre ends of the light-transmitting fibres, such that simultaneously with the pressing the layer formed from UV-hardening duroplastic plastic is hardened with UV light by means of the light-conducting fibres.
A lithium ion secondary battery comprising a cathode, an anode, a separator and an electrolyte, the cathode comprises a positive current collector and a positive material layer, wherein the positive material layer comprises a positive active material with formula Li x Ni a CO b M c O 2 , M is at least one selected from the group consisting of Mn and Al, 0.95≤x≤ 1.2, 0 <a <1, 0 <b <1, 0 <c <1 and a + b + c = 1; wherein the anode comprises a negative current collector and a negative material layer, wherein the negative material layer comprises graphite having a graphitization degree of 94% to 98% and an average particle size D50 of 6μm to 12μm as negative active material.
Method for producing an angle sensor for capturing an angle of rotation on the basis of a relative angular position of a magnetic field of a magnet , comprising a circuit housing and a transducer housing between which the magnetic field can be transmitted, wherein the magnet is enclosed in the transducer housing , wherein the circuit housing comprises a blind hole in which the transducer housing is rotatably mounted, comprising the method steps of: - providing the transducer housing , and - encapsulating the transducer housing with a material for forming the circuit housing . - providing the transducer housing , and - encapsulating the transducer housing with a material for forming the circuit housing .
A method of operating a centrifugal separator comprising - supplying a liquid mixture to be separated to an inlet of the centrifugal separator , the separator comprising a frame which delimits a space that is sealed relative the surroundings of the frame and in which a centrifuge rotor is arranged, and a drive member configured to rotate the centrifuge rotor in relation to the frame around an axis of rotation (X), wherein the centrifuge rotor encloses a separation chamber that is arranged to receive the supply of liquid mixture to be separated via the inlet , - separating the liquid mixture into at least one separated liquid component and a separated sludge component; - discharging at least one separated liquid component from at least one liquid outlet of the centrifuge rotor ; - removing gas from the space surrounding the centrifuge rotor to obtain a sub-atmospheric pressure in the space ; and - discharging a separated sludge component from at least one sludge outlet arranged at the periphery of the centrifuge rotor to the space delimited by the frame , characterized in that the discharging is performed when the sub-atmospheric pressure in the space surrounding the centrifuge rotor is within a preset pressure interval ΔP. - supplying a liquid mixture to be separated to an inlet of the centrifugal separator , the separator comprising a frame which delimits a space that is sealed relative the surroundings of the frame and in which a centrifuge rotor is arranged, and a drive member configured to rotate the centrifuge rotor in relation to the frame around an axis of rotation (X), wherein the centrifuge rotor encloses a separation chamber that is arranged to receive the supply of liquid mixture to be separated via the inlet , a frame which delimits a space that is sealed relative the surroundings of the frame and in which a centrifuge rotor is arranged, and a drive member configured to rotate the centrifuge rotor in relation to the frame around an axis of rotation (X), wherein the centrifuge rotor encloses a separation chamber that is arranged to receive the supply of liquid mixture to be separated via the inlet , - separating the liquid mixture into at least one separated liquid component and a separated sludge component; - discharging at least one separated liquid component from at least one liquid outlet of the centrifuge rotor ; - removing gas from the space surrounding the centrifuge rotor to obtain a sub-atmospheric pressure in the space ; and - discharging a separated sludge component from at least one sludge outlet arranged at the periphery of the centrifuge rotor to the space delimited by the frame , characterized in that the discharging is performed when the sub-atmospheric pressure in the space surrounding the centrifuge rotor is within a preset pressure interval ΔP.
A kit for identification by real-time PCR of one or more genes associated with antibiotic resistance, wherein the one or more genes are selected from the group consisting of: CMY-2, DHA, MOX, ACC, FOX, and ACT/MIR genes, and wherein the kit comprises: a first primer and probe mix comprising the following primers and probes capable of amplifying the MOX, ACC and FOX genes: GCTGCTCAAGGAGCACAGGAT, CACATTGACATAGGTGTGGTGC, 56-FAM/AGGATGGCA/ZEN/AGGCCCACTATTTCA/3IABkFQ, AACAGCCTCAGCAGCCGGTTA, TTCGCCGCAATCATCCCTAGC, 5HEX/AGCCATTAC/ZEN/GTTCCAGAGTTGCGT/3IABkFQ, GCCGAGGCTTACGGGATCAAG, CAAAGCGCGTAACCGGATTGG, 5TEX615/TCTGCTGAAGTTTRYCGAGGCMAA/3IAbRQSp, GAGAGGATGAYCAGCCACAC, CGCCCATTGTSCAATATTCC, and 5TYE665/TGAGACACGGTCCAGACTCCTACG/3IAbRQSp [SEQ. ID NOS 192-203]; and a second primer and probe mix comprising the following primers and probes capable of amplifying the DHA, ACT/MIR, and CMY-2 genes: AACTTTCACAGGTGTGCTGGGT, CCGTACGCATACTGGCTTTGC, 56-FAM/AAACCGGGC/ZEN/GATATGCGTCTGTAT/3IABkFQ, CTGGGTTCTATAAGTAAAACCTTCACCGG, CTTCCACTGCGGCTGCCAGTT, 5HEX/GATGCCATT/ZEN/GCYCGSGGTGAAAT/3IABkFQ, CCGAAGCCTATGGCGTGAAATCC, GCAATGCCCTGCTGGAGCG, 5TEX615/ATGTTGGCCTGAACCCAGCG/3IAbRQSp, GAGAGGATGAYCAGCCACAC, CGCCCATTGTSCAATATTCC, and 5TYE665/TGAGACACGGTCCAGACTCCTACG/3IAbRQSp [SEQ. ID NOS 204-215]. a first primer and probe mix comprising the following primers and probes capable of amplifying the MOX, ACC and FOX genes: GCTGCTCAAGGAGCACAGGAT, CACATTGACATAGGTGTGGTGC, 56-FAM/AGGATGGCA/ZEN/AGGCCCACTATTTCA/3IABkFQ, AACAGCCTCAGCAGCCGGTTA, TTCGCCGCAATCATCCCTAGC, 5HEX/AGCCATTAC/ZEN/GTTCCAGAGTTGCGT/3IABkFQ, GCCGAGGCTTACGGGATCAAG, CAAAGCGCGTAACCGGATTGG, 5TEX615/TCTGCTGAAGTTTRYCGAGGCMAA/3IAbRQSp, GAGAGGATGAYCAGCCACAC, CGCCCATTGTSCAATATTCC, and 5TYE665/TGAGACACGGTCCAGACTCCTACG/3IAbRQSp [SEQ. ID NOS 192-203]; and a second primer and probe mix comprising the following primers and probes capable of amplifying the DHA, ACT/MIR, and CMY-2 genes: AACTTTCACAGGTGTGCTGGGT, CCGTACGCATACTGGCTTTGC, 56-FAM/AAACCGGGC/ZEN/GATATGCGTCTGTAT/3IABkFQ, CTGGGTTCTATAAGTAAAACCTTCACCGG, CTTCCACTGCGGCTGCCAGTT, 5HEX/GATGCCATT/ZEN/GCYCGSGGTGAAAT/3IABkFQ, CCGAAGCCTATGGCGTGAAATCC, GCAATGCCCTGCTGGAGCG, 5TEX615/ATGTTGGCCTGAACCCAGCG/3IAbRQSp, GAGAGGATGAYCAGCCACAC, CGCCCATTGTSCAATATTCC, and 5TYE665/TGAGACACGGTCCAGACTCCTACG/3IAbRQSp [SEQ. ID NOS 204-215].