mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile wireless communication unit comprising at least one short-range wireless circuit configured to receive multiple bundle formatted content packets from a multiple of wireless nodes over a delay tolerant network, using a short range wireless communication technology, wherein the received multiple bundle formatted content packets relate to at least one of multiple quality of service priority levels; a processor operably coupled to the at least one short-range wireless circuit and configured to determine a priority level of the multiple bundle formatted content packets; a memory , coupled to the processor ; wherein the processor is configured to: transmit multiple bundle formatted content packets as received from the multiple wireless nodes direct to a network server over a cellular network in response to the determined priority level of at least one of the multiple bundle formatted content packets being high; or store in the memory the received and processed multiple bundle formatted content packets as individual bundles, such that the individual bundles are aggregated, in response to the determined priority level of the multiple bundle formatted content packets being low, and transmit at least the multiple bundle formatted content packets as aggregated individual bundles in a single radio resource control connection to at least one of: another mobile wireless communication unit or a wireless communication unit acting as a dedicated delay tolerant network gateway node, when discovered using the short range wireless communication technology. at least one short-range wireless circuit configured to receive multiple bundle formatted content packets from a multiple of wireless nodes over a delay tolerant network, using a short range wireless communication technology, wherein the received multiple bundle formatted content packets relate to at least one of multiple quality of service priority levels; a processor operably coupled to the at least one short-range wireless circuit and configured to determine a priority level of the multiple bundle formatted content packets; a memory , coupled to the processor ; transmit multiple bundle formatted content packets as received from the multiple wireless nodes direct to a network server over a cellular network in response to the determined priority level of at least one of the multiple bundle formatted content packets being high; or store in the memory the received and processed multiple bundle formatted content packets as individual bundles, such that the individual bundles are aggregated, in response to the determined priority level of the multiple bundle formatted content packets being low, and transmit at least the multiple bundle formatted content packets as aggregated individual bundles in a single radio resource control connection to at least one of: another mobile wireless communication unit or a wireless communication unit acting as a dedicated delay tolerant network gateway node, when discovered using the short range wireless communication technology.
Method for packaging raw fish, comprising the following steps: a) preparing raw fish including at least a step of cleaning said raw fish and a step of putting the raw fish in contact with an auxiliary composition comprising water and salt, said contacting step being performed after said cleaning step; and, b) introducing the prepared raw fish obtained at step a) into a temporary cylindrical envelope of elongated shape, extending along a longitudinal axis, in such a way as to form a bar of prepared and wrapped raw fish, inside which the density of fish is between 0.9 kilogramme per litre and 1.15 kilogramme per litre; and, e) performing the final packaging of the fish into a preservative envelope; said temporary envelop being distinct from the preservative envelope. a) preparing raw fish including at least a step of cleaning said raw fish and a step of putting the raw fish in contact with an auxiliary composition comprising water and salt, said contacting step being performed after said cleaning step; and, b) introducing the prepared raw fish obtained at step a) into a temporary cylindrical envelope of elongated shape, extending along a longitudinal axis, in such a way as to form a bar of prepared and wrapped raw fish, inside which the density of fish is between 0.9 kilogramme per litre and 1.15 kilogramme per litre; and, e) performing the final packaging of the fish into a preservative envelope; said temporary envelop being distinct from the preservative envelope.
A milling cutting insert comprising opposing insert top and base surfaces which are connected by an insert peripheral surface , and an insert dovetail anti-slip arrangement adjacent to the insert base surface and comprising first and second insert abutment surfaces (42A, 42A'; 42B, 42B') and an insert actuator surface ; the first insert abutment surface comprising a first dovetail portion (42A1, 42A1') forming an external and acute first dovetail angle (μ1) with the insert base surface ; the second insert abutment surface comprising a second dovetail portion (42B1, 42B1') forming an external and acute second dovetail angle (μ2) with the insert base surface ; wherein: in a view perpendicular to the insert base surface , the first dovetail portion (42A1, 42A1') is longer than and non-parallel with the second dovetail portion (42B1, 42B1'); and the milling cutting insert has a solid construction; characterized in that the milling cutting insert is a single-sided milling cutting insert comprising a cutting edge only along an intersection of the insert top surface and the insert peripheral surface and a protuberance projects from the insert base surface and all surfaces of the insert dovetail anti-slip arrangement are formed on the protuberance ; and wherein the first and second insert abutment surfaces (42A, 42A'; 42B, 42B') and the insert actuator surface extend from the insert base surface in a direction away from the insert top surface . the milling cutting insert is a single-sided milling cutting insert comprising a cutting edge only along an intersection of the insert top surface and the insert peripheral surface and a protuberance projects from the insert base surface and all surfaces of the insert dovetail anti-slip arrangement are formed on the protuberance ; and wherein the first and second insert abutment surfaces (42A, 42A'; 42B, 42B') and the insert actuator surface extend from the insert base surface in a direction away from the insert top surface .
A method of estimating a carrier frequency offset between first and second wireless devices in a wireless network comprising: receiving, at the first wireless device, a Bluetooth low-energy (BLE) packet comprising at least one carrier frequency offset fingerprint (CFOF) sequence, the CFOF sequence comprising an m-bit prefix component, one or more L-bit signature segments, and an m-bit suffix component, where the one or more L-bit signature segments are located entirely in an access address or data payload portion of the BLE packet; at the first wireless device: processing samples corresponding to the m-bit prefix component to serve as front end guard symbols to align signal phases at a front edge of the one or more signature segment; processing samples corresponding to the one or more L-bit signature segments to compute one or more corresponding carrier frequency offset estimates between the first and the second wireless radio device; and processing samples corresponding to the m-bit suffix component to serve as back end guard symbols to align signal phases at a back edge of the one or more signature segment. receiving, at the first wireless device, a Bluetooth low-energy (BLE) packet comprising at least one carrier frequency offset fingerprint (CFOF) sequence, the CFOF sequence comprising an m-bit prefix component, one or more L-bit signature segments, and an m-bit suffix component, where the one or more L-bit signature segments are located entirely in an access address or data payload portion of the BLE packet; at the first wireless device: processing samples corresponding to the m-bit prefix component to serve as front end guard symbols to align signal phases at a front edge of the one or more signature segment; processing samples corresponding to the one or more L-bit signature segments to compute one or more corresponding carrier frequency offset estimates between the first and the second wireless radio device; and processing samples corresponding to the m-bit suffix component to serve as back end guard symbols to align signal phases at a back edge of the one or more signature segment. processing samples corresponding to the m-bit prefix component to serve as front end guard symbols to align signal phases at a front edge of the one or more signature segment; processing samples corresponding to the one or more L-bit signature segments to compute one or more corresponding carrier frequency offset estimates between the first and the second wireless radio device; and processing samples corresponding to the m-bit suffix component to serve as back end guard symbols to align signal phases at a back edge of the one or more signature segment.
An antimicrobial composition comprising at least one compound of Formula (I) and at least one agent chosen from an essential oil, a metal chelate, a mineral, an amino acid, an organic acid, a vitamin, an antioxidant, a polyunsaturated fatty acid, a prebiotic, a probiotic, a symbiotic, an enzyme, an ionophore, a mycotoxin binder, an antiparasitic agent, an antibiotic, a herbal extract, a pigment, or combination thereof, the compound of Formula (I) having the following structure: wherein: R 1 is methyl; R 2 is C 7 -C 16 alkyl; Y is hydrogen or an alkali metal; Z is sulfur; k is an integer from 1 to 10; and n is 2. R 1 is methyl; R 2 is C 7 -C 16 alkyl; Y is hydrogen or an alkali metal; Z is sulfur; k is an integer from 1 to 10; and n is 2.
The assembly for rear of dual-flow turbomachine having a longitudinal axis (X), comprising: - a secondary nozzle defined about the longitudinal axis (X), said secondary nozzle being configured to eject a mixture of the flows coming from a secondary vein (Vs) and a primary vein (Vp) of the turbomachine , the secondary nozzle being of convergent-divergent form with a neck corresponding to a minimal cross-section of the secondary nozzle , characterised in that the assembly also comprises a heating system with a heating element with a heating element, the heating element being located on at least one portion of the internal circumference of the secondary nozzle longitudinally in the region of the neck and/or upstream from the neck . - a secondary nozzle defined about the longitudinal axis (X), said secondary nozzle being configured to eject a mixture of the flows coming from a secondary vein (Vs) and a primary vein (Vp) of the turbomachine , the secondary nozzle being of convergent-divergent form with a neck corresponding to a minimal cross-section of the secondary nozzle ,
An aqueous coating composition including: a polyester resin having an acid value of not less than 30 mgKOH/g and less than 70 mgKOH/g measured as indicated in the specification; and a curing agent having a functional group capable of crosslinking with a carboxyl group and that is a β-hydroxyalkylamide compound, wherein the polyester resin is either an acrylic unmodified polyester resin or an acrylic modified polyester resin containing an acrylic component of less than 10 mass%; and when two or more polyester resins having different acid values are blended for use as the polyester resin, the total of the values obtained by multiplying the acid value and the mass fraction of each polyester resin is set as the average acid value of the blend, and the average acid value of the blend is not less than 30 mgKOH/g and less than 70 mgKOH/g. the polyester resin is either an acrylic unmodified polyester resin or an acrylic modified polyester resin containing an acrylic component of less than 10 mass%; and when two or more polyester resins having different acid values are blended for use as the polyester resin, the total of the values obtained by multiplying the acid value and the mass fraction of each polyester resin is set as the average acid value of the blend, and the average acid value of the blend is not less than 30 mgKOH/g and less than 70 mgKOH/g.
A method of removing sulphate and soluble metals such as calcium from water, which method comprises steps of a) precipitating a first part of the sulphate from the water by contacting the water with a first calcium compound and adjusting pH of the water to a range of from 10.5 to 13, wherein a first sludge containing gypsum and metal hydroxides is formed, b) subjecting, in one or more electrocoagulation units, the first sludge containing gypsum to the presence of at least one set of aluminium anodes to dissolve aluminium from said at least one set of aluminium anodes, or to the presence of at least one set of iron anode and aluminium anode to dissolve iron and aluminium from said at least one set of iron anode and aluminium anode, wherein in the step b) a second part of sulphate is precipitated as ettringite, which step b) is followed by a balancing step as a separate step, which balancing step is for providing the required retention time for precipitation of sulphate and in which balancing step the sludge is contacted with a second calcium compound for ensuring the optimal conditions for completing sulphate precipitation, wherein in the balancing step the pH of the process liquid is adjusted to the range of from 10.5 to 13 by using the second calcium compound, c) conducting the sludge formed in step a) and in step b) to solid-liquid separation, wherein precipitated solids are separated from the water, d) neutralizing the water received from step c), wherein water decreased in sulphate and soluble metal such as calcium content is provided. a) precipitating a first part of the sulphate from the water by contacting the water with a first calcium compound and adjusting pH of the water to a range of from 10.5 to 13, wherein a first sludge containing gypsum and metal hydroxides is formed, b) subjecting, in one or more electrocoagulation units, the first sludge containing gypsum to the presence of at least one set of aluminium anodes to dissolve aluminium from said at least one set of aluminium anodes, or to the presence of at least one set of iron anode and aluminium anode to dissolve iron and aluminium from said at least one set of iron anode and aluminium anode, wherein in the step b) a second part of sulphate is precipitated as ettringite, which step b) is followed by a balancing step as a separate step, which balancing step is for providing the required retention time for precipitation of sulphate and in which balancing step the sludge is contacted with a second calcium compound for ensuring the optimal conditions for completing sulphate precipitation, wherein in the balancing step the pH of the process liquid is adjusted to the range of from 10.5 to 13 by using the second calcium compound, c) conducting the sludge formed in step a) and in step b) to solid-liquid separation, wherein precipitated solids are separated from the water, d) neutralizing the water received from step c), wherein water decreased in sulphate and soluble metal such as calcium content is provided.
Tool for a microinvasive surgical instrument , comprising: a body member , the proximal end of the body member being mechanically connected to or being configured to be mechanically coupled to a distal end of a shaft of a microinvasive surgical instrument ; a first jaw mechanically connected to the body member in an articulated manner; a second jaw mechanically connected to the body member in an articulated manner; wherein the first jaw and the second jaw are configured to be pivoted independently from each other, wherein the second jaw provides the shape of a 'U' or 'O' at least partially encircling a fenestration , wherein the tool provides open configurations with an angular distance between the first jaw and the second jaw , wherein the tool provides a closed configuration with the first jaw at least partially accommodated in or capping the fenestration of the second jaw . a body member , the proximal end of the body member being mechanically connected to or being configured to be mechanically coupled to a distal end of a shaft of a microinvasive surgical instrument ; a first jaw mechanically connected to the body member in an articulated manner; a second jaw mechanically connected to the body member in an articulated manner; wherein the first jaw and the second jaw are configured to be pivoted independently from each other, wherein the second jaw provides the shape of a 'U' or 'O' at least partially encircling a fenestration , wherein the tool provides open configurations with an angular distance between the first jaw and the second jaw , wherein the tool provides a closed configuration with the first jaw at least partially accommodated in or capping the fenestration of the second jaw .
A method for preparing methyl ( Z )-3-[[4-[methyl[2-(4-methyl-1-piperazinyl)acetyl]amino] phenyl]amino]phenylmethylene)-oxindole-6-carboxylate of formula 1, characterized in that it comprises: a) a reaction of methyl oxindole-6-carboxylate with acetic anhydride at a temperature of 130 - 140°C, providing methyl 1-acetyl-oxindole-6-carboxylate of formula 3 b) a reaction of methyl 1-acetyl-oxindole-6-carboxylate of formula 3 with trimethyl orthobenzoate and acetic anhydride in the presence of toluene, providing methyl ( E )-1-acetyl-3-(methoxyphenylmethylene)-oxindole-6-carboxylate of formula 2 c) a reaction ( E )-1-acetyl-3-(methoxyphenylmethylene)-oxindole-6-carboxylate of formula 2 with N -(4-aminophenyl)- N ,4-dimethyl-1-piperazine acetamide and subsequently with an alkali hydroxide or alkali alkoxide in methanol or ethanol without isolation of the intermediate, providing methyl ( Z )-3-[[4-[methyl[2-(4-methyl-1-piperazinyl)acetyl]amino]phenyl]amino]phenylmethylene)-oxindole-6-carboxylate of formula 1, wherein the reaction is conducted at a temperature of 50 to 100°C, wherein the alkali hydroxide is potassium hydroxide and the alkali alkoxide is potassium tert- butoxide or sodium ethoxide. a) a reaction of methyl oxindole-6-carboxylate with acetic anhydride at a temperature of 130 - 140°C, providing methyl 1-acetyl-oxindole-6-carboxylate of formula 3 b) a reaction of methyl 1-acetyl-oxindole-6-carboxylate of formula 3 with trimethyl orthobenzoate and acetic anhydride in the presence of toluene, providing methyl ( E )-1-acetyl-3-(methoxyphenylmethylene)-oxindole-6-carboxylate of formula 2 c) a reaction ( E )-1-acetyl-3-(methoxyphenylmethylene)-oxindole-6-carboxylate of formula 2 with N -(4-aminophenyl)- N ,4-dimethyl-1-piperazine acetamide and subsequently with an alkali hydroxide or alkali alkoxide in methanol or ethanol without isolation of the intermediate, providing methyl ( Z )-3-[[4-[methyl[2-(4-methyl-1-piperazinyl)acetyl]amino]phenyl]amino]phenylmethylene)-oxindole-6-carboxylate of formula 1, wherein the reaction is conducted at a temperature of 50 to 100°C, wherein the alkali hydroxide is potassium hydroxide and the alkali alkoxide is potassium tert- butoxide or sodium ethoxide.
An audio encoding method operating on overlapped frames of an audio signal, the method comprising: generating a time-domain aliased frame having a length N based on an overlapped frame having a length 2N; generating, based on the time-domain aliased frame of length N, a selectable number of overlapped segments, where said selectable number is equal to or greater than 2; producing a frame having a length larger than N based on the time-domain aliased frame; dividing the resulting produced frame into overlapped segments each having a length equal to or smaller than N; and performing segmented spectral analysis based on said overlapped segments by applying, on each of said overlapped segments, a Modified Discrete Cosine Transform, MDCT, adapted to obtain, for each segment, a corresponding set of spectral coefficients representative of the frequency content of the segment. generating a time-domain aliased frame having a length N based on an overlapped frame having a length 2N; generating, based on the time-domain aliased frame of length N, a selectable number of overlapped segments, where said selectable number is equal to or greater than 2; producing a frame having a length larger than N based on the time-domain aliased frame; dividing the resulting produced frame into overlapped segments each having a length equal to or smaller than N; and performing segmented spectral analysis based on said overlapped segments by applying, on each of said overlapped segments, a Modified Discrete Cosine Transform, MDCT, adapted to obtain, for each segment, a corresponding set of spectral coefficients representative of the frequency content of the segment.
A method for forming a liquid composite material, the method comprising: combining a first component element with a second component element to form a liquid composite mixture, the first component element comprising a liquid thermosetting polymer and the second component element comprising a filler; subjecting the liquid composite mixture to a first force on a rotating surface to form liquid ligaments and disperse the first component element and second component element in relation to each other within the liquid ligaments, wherein the first force is a mechanical force; subjecting the liquid ligaments to at least one second force to form attenuated liquid ligaments and further disperse the first component element and second component element in relation to each other within the attenuated liquid ligaments, wherein the at least one second force imparts both shear flow deformation and extensional flow deformation to the liquid ligaments to form the attenuated liquid ligaments; and collecting the attenuated liquid ligaments on a collection surface, the attenuated liquid ligaments coalescing on the collection surface to form a well-dispersed heterogeneous bulk material as the liquid composite material. combining a first component element with a second component element to form a liquid composite mixture, the first component element comprising a liquid thermosetting polymer and the second component element comprising a filler; subjecting the liquid composite mixture to a first force on a rotating surface to form liquid ligaments and disperse the first component element and second component element in relation to each other within the liquid ligaments, wherein the first force is a mechanical force; subjecting the liquid ligaments to at least one second force to form attenuated liquid ligaments and further disperse the first component element and second component element in relation to each other within the attenuated liquid ligaments, wherein the at least one second force imparts both shear flow deformation and extensional flow deformation to the liquid ligaments to form the attenuated liquid ligaments; and collecting the attenuated liquid ligaments on a collection surface, the attenuated liquid ligaments coalescing on the collection surface to form a well-dispersed heterogeneous bulk material as the liquid composite material.