mhurhangee/patent-ind-claim-en huggingface dataset:
A method for conducting a call, performed by a server, the method comprises: obtaining at least three paths of voice data each transmitted by one of at least three first terminals, the at least three paths of voice data each carrying a piece of indication information, the piece of indication information comprising at least a piece of voice activity detection, VAD, information, the piece of VAD information indicating whether the corresponding path of voice data comprises a voice segment; selecting at least two paths of target voice data that comprise voice segments from the at least three paths of voice data according to the pieces of VAD information of the at least three paths of voice data as obtained, a number of paths of the at least two paths of target voice data being less than a number of paths of the at least three paths of voice data; and transmitting the at least two paths of target voice data to a second terminal, the second terminal being configured to decode the at least two paths of target voice data, mix decoded at least two paths of target voice data, and play mixed voice data , wherein the second terminal is any terminal in a call group, and the at least three first terminals are terminals in the call group that are different from the second terminal. obtaining at least three paths of voice data each transmitted by one of at least three first terminals, the at least three paths of voice data each carrying a piece of indication information, the piece of indication information comprising at least a piece of voice activity detection, VAD, information, the piece of VAD information indicating whether the corresponding path of voice data comprises a voice segment; selecting at least two paths of target voice data that comprise voice segments from the at least three paths of voice data according to the pieces of VAD information of the at least three paths of voice data as obtained, a number of paths of the at least two paths of target voice data being less than a number of paths of the at least three paths of voice data; and transmitting the at least two paths of target voice data to a second terminal, the second terminal being configured to decode the at least two paths of target voice data, mix decoded at least two paths of target voice data, and play mixed voice data , wherein the second terminal is any terminal in a call group, and the at least three first terminals are terminals in the call group that are different from the second terminal.
A bracket for affixing an electronic device to a shipping container , the bracket (130, 300 or 400) comprising: a base ; a first arm and a second arm disposed on distal ends of the base ; a first flange and second flange extending from the first arm and the second arm ; a first affixing mechanism and a second affixing mechanism to affix the first flange and the second flange respectively to adjacent locking rods on the shipping container , said first affixing mechanism and second affixing mechanism allowing rotation of the locking rods ; and a mounting mechanism on the base for mounting the electronic device , wherein the base is configured to fit within a corrugation behind the adjacent locking rods , and at least one portion of the base is configured to contact the shipping container when the first flange and the second flange are behind the adjacent locking rods . a base ; a first arm and a second arm disposed on distal ends of the base ; a first flange and second flange extending from the first arm and the second arm ; a first affixing mechanism and a second affixing mechanism to affix the first flange and the second flange respectively to adjacent locking rods on the shipping container , said first affixing mechanism and second affixing mechanism allowing rotation of the locking rods ; and a mounting mechanism on the base for mounting the electronic device , wherein the base is configured to fit within a corrugation behind the adjacent locking rods , and at least one portion of the base is configured to contact the shipping container when the first flange and the second flange are behind the adjacent locking rods .
A pocket size explosive detector comprising b.) a sampler having a flat infrared radiation source for evaporating a solid explosive sample from a surface of a scanned subject, c.) a thermal decomposition unit having a gas input located in the center of the flat infrared radiation source and a silica-glass tube equipped with a heating element for decomposing the evaporated sample into molecular fragments, d.) a detector cartridge having a main cartridge body with a detection liquid inside and comprising a molecular detection membrane exposed on one side to the molecular fragments and fully sunk under a level of the detection liquid on the other side, the detection liquid generating photons as a response to the molecular fragments coming into reaction with the detection liquid, e.) a single photon optical detection unit in optical communication with the detector liquid by means of an optical window in the detector cartridge to provide a data stream indicative of explosive molecular fragments' presence in the explosive sample, f.) a system computer (33 - 35) for further processing the digital output of the single photon optical detection unit . b.) a sampler having a flat infrared radiation source for evaporating a solid explosive sample from a surface of a scanned subject, c.) a thermal decomposition unit having a gas input located in the center of the flat infrared radiation source and a silica-glass tube equipped with a heating element for decomposing the evaporated sample into molecular fragments, d.) a detector cartridge having a main cartridge body with a detection liquid inside and comprising a molecular detection membrane exposed on one side to the molecular fragments and fully sunk under a level of the detection liquid on the other side, the detection liquid generating photons as a response to the molecular fragments coming into reaction with the detection liquid, e.) a single photon optical detection unit in optical communication with the detector liquid by means of an optical window in the detector cartridge to provide a data stream indicative of explosive molecular fragments' presence in the explosive sample, f.) a system computer (33 - 35) for further processing the digital output of the single photon optical detection unit .
A coating crosslinker composition comprising: a polyisocyanate compound; and a 1,1-di-activated vinyl compound, or a multifunctional form thereof, or a combination thereof, wherein the 1,1-di-activated vinyl compound comprises a methylene dicarbonyl compound, a dihalo vinyl compound, or a dihaloalkyl disubstituted vinyl compound or a multifunctional form of any thereof, or combinations of any thereof. a polyisocyanate compound; and a 1,1-di-activated vinyl compound, or a multifunctional form thereof, or a combination thereof, wherein the 1,1-di-activated vinyl compound comprises a methylene dicarbonyl compound, a dihalo vinyl compound, or a dihaloalkyl disubstituted vinyl compound or a multifunctional form of any thereof, or combinations of any thereof.
A method for producing OSB panels comprising the steps: (a) producing coarse chips , which includes drying the coarse chips , (b) arranging the coarse chips on a transport belt , thus obtaining a coarse chipboard layer , (c) applying a flame retardant solution to the coarse chips on the transport belt , (d) applying a pressure difference to the coarse chips wetted with the flame retardant solution for the introduction of flame retardant solution into the coarse chips , thus obtaining coarse chips containing flame retardant , by applying a negative pressure to a lower side of the transport belt and/or an overpressure to an upper side of the coarse chipboard layer , (e) subsequently applying glue to the coarse chips containing flame retardant , thus obtaining glued coarse chips , and (f) pressing the coarse chips , thus obtaining the OSB panel , (g) wherein the coarse chips are dried before the flame retardant solution is applied. (a) producing coarse chips , which includes drying the coarse chips , (b) arranging the coarse chips on a transport belt , thus obtaining a coarse chipboard layer , (c) applying a flame retardant solution to the coarse chips on the transport belt , (d) applying a pressure difference to the coarse chips wetted with the flame retardant solution for the introduction of flame retardant solution into the coarse chips , thus obtaining coarse chips containing flame retardant , by applying a negative pressure to a lower side of the transport belt and/or an overpressure to an upper side of the coarse chipboard layer , (e) subsequently applying glue to the coarse chips containing flame retardant , thus obtaining glued coarse chips , and (f) pressing the coarse chips , thus obtaining the OSB panel , (g) wherein the coarse chips are dried before the flame retardant solution is applied.
A composition for providing a film on keratin fibres, the composition comprising: (a) an aminosilicone polymer, wherein the aminosilicone polymer comprises amino sidechains, and wherein the aminosilicone polymer has a weight average molecular weight of from 10,000 Dalton to 60,000 Dalton; (b) a silicone resin, wherein the silicone resin is an MQ resin; (c) an ether of a water-soluble polyhydric alcohol; (d) a thickening system comprising: ∘ a deposition enhancer, wherein the deposition enhancer is a hydrophilic and non-ionic polymer, and wherein the deposition enhancer has a weight average molecular weight of from 700,000 Dalton to 3,000,000 Dalton; ∘ a thickening polymer, wherein the thickening polymer has a weight average molecular weight of at least 10,000 Dalton, and wherein the thickening polymer is a cationic thickening polymer or is a non-ionic thickening polymer; (e) one or more coloured materials or one or more pigments; (f) water; and (g) from 0.5% to 30% wt% of a volatile alcohol, by total weight of the composition, wherein the volatile alcohol has from 1 to 8 carbon atoms and is miscible in water; wherein the composition has a viscosity of from 30 mPa·s to 1000 mPa·s, wherein the viscosity is measured at 23°C using a HAAKE Rotation Viscometer VT 550 with cooling/heating vessel and sensor systems according to DIN 53019 at a shear rate of 12.9 s -1 . (a) an aminosilicone polymer, wherein the aminosilicone polymer comprises amino sidechains, and wherein the aminosilicone polymer has a weight average molecular weight of from 10,000 Dalton to 60,000 Dalton; (b) a silicone resin, wherein the silicone resin is an MQ resin; (c) an ether of a water-soluble polyhydric alcohol; (d) a thickening system comprising: ∘ a deposition enhancer, wherein the deposition enhancer is a hydrophilic and non-ionic polymer, and wherein the deposition enhancer has a weight average molecular weight of from 700,000 Dalton to 3,000,000 Dalton; ∘ a thickening polymer, wherein the thickening polymer has a weight average molecular weight of at least 10,000 Dalton, and wherein the thickening polymer is a cationic thickening polymer or is a non-ionic thickening polymer; ∘ a deposition enhancer, wherein the deposition enhancer is a hydrophilic and non-ionic polymer, and wherein the deposition enhancer has a weight average molecular weight of from 700,000 Dalton to 3,000,000 Dalton; ∘ a thickening polymer, wherein the thickening polymer has a weight average molecular weight of at least 10,000 Dalton, and wherein the thickening polymer is a cationic thickening polymer or is a non-ionic thickening polymer; (e) one or more coloured materials or one or more pigments; (f) water; and (g) from 0.5% to 30% wt% of a volatile alcohol, by total weight of the composition,
A scan region determining apparatus for determining a scan region of a subject to be scanned by a scanning system , the scan region determining apparatus comprising: - an overview image providing unit for providing an overview image of a subject, - an element position indicator determination unit for determining, as an element position indicator, a center of an element of the subject to be scanned and an intermediate scan region , which includes the element of the subject to be scanned and is centered on the determined center of the element, with respect to and based on the overview image , - a template image providing unit for providing a template image of a template subject, which corresponds to the subject to be scanned, and for providing a template scan region including a template element, which corresponds to the element of the subject to be scanned, wherein the template image providing unit is adapted to provide a template scan region , which is defined with respect to the template image , - a spatial transformation determination unit for determining a spatial transformation defining a registration of the overview image and the template image with respect to each other, wherein initially the overview image and the template image are registered by using at least the determined center of the element of the subject to be scanned and the intermediate scan region, - a scan region determination unit for determining a final scan region by projecting the template scan region onto the overview image by using the determined spatial transformation. - an overview image providing unit for providing an overview image of a subject, - an element position indicator determination unit for determining, as an element position indicator, a center of an element of the subject to be scanned and an intermediate scan region , which includes the element of the subject to be scanned and is centered on the determined center of the element, with respect to and based on the overview image , - a template image providing unit for providing a template image of a template subject, which corresponds to the subject to be scanned, and for providing a template scan region including a template element, which corresponds to the element of the subject to be scanned, wherein the template image providing unit is adapted to provide a template scan region , which is defined with respect to the template image , - a spatial transformation determination unit for determining a spatial transformation defining a registration of the overview image and the template image with respect to each other, wherein initially the overview image and the template image are registered by using at least the determined center of the element of the subject to be scanned and the intermediate scan region, - a scan region determination unit for determining a final scan region by projecting the template scan region onto the overview image by using the determined spatial transformation.
Luminous knitted textile structure comprising within it, optical fibres , at least one of the ends of which can be connected to a light source, said optical fibres being capable of emitting light due to the exceeding of their limit bending angle, said knitted fabric being obtained by the Chain or Raschel or Crochet-type warp stitch technology, characterised : • in that the light emission is homogeneous over the entire surface of said structure, • and in that the homogeneity of the light emission is obtained due to the positioning of the optical fibres in partial frames within said structure along a variable or progressive pitch compensating, through the variability of the bending angle of the optical fibres, the depletion of the light energy as it progresses within the optical fibres. • in that the light emission is homogeneous over the entire surface of said structure, • and in that the homogeneity of the light emission is obtained due to the positioning of the optical fibres in partial frames within said structure along a variable or progressive pitch compensating, through the variability of the bending angle of the optical fibres, the depletion of the light energy as it progresses within the optical fibres.
A pinless power coupling system configured to transmit power transmission through a substantially flat insulating layer , comprising: at least one pinless power jack configured to be incorporated into or shielded behind said insulating layer , said at least one pin-less power jack comprising at least one annular primary coil , said primary annular coil for inductively coupling with at least one annular secondary coil associated with a pinless power plug placeable in front of said insulating layer on said insulating layer ; said at least one pinless power plug comprising said at least one annular secondary coil for inductive coupling with said primary coil incorporated into or shielded behind said insulating layer and associated with said pinless power jack ; and an alignment mechanism for aligning said pinless power plug to said pinless power jack , wherein the alignment mechanism is comprised on both the pinless power plug and the pinless power jack . at least one pinless power jack configured to be incorporated into or shielded behind said insulating layer , said at least one pin-less power jack comprising at least one annular primary coil , said primary annular coil for inductively coupling with at least one annular secondary coil associated with a pinless power plug placeable in front of said insulating layer on said insulating layer ; said at least one pinless power plug comprising said at least one annular secondary coil for inductive coupling with said primary coil incorporated into or shielded behind said insulating layer and associated with said pinless power jack ; and an alignment mechanism for aligning said pinless power plug to said pinless power jack , wherein the alignment mechanism is comprised on both the pinless power plug and the pinless power jack .
A floating plant for installing in a water body and for introducing thermal energy into the water body and for extracting thermal energy from the water body , comprising a. hollow space so that said plant floats when installed in the water body ; b. at least one primary heat exchanger which is at least partially immersed in the water body after installation of said plant in said water body and which comprises a first heat transfer fluid inlet and a first heat transfer fluid outlet such that the first heat transfer fluid can flow through the primary heat exchanger and can transfer heat energy to the water body or can extract heat energy from the water body , wherein the primary heat exchanger is arranged on the outside of said plant , in particular under the bottom and/or on the sides thereof; c. at least one heat exchanging element, selected from the group comprising a secondary heat exchanger and a heat pump , arranged within said plant , wherein the heat exchanging element is connected to the primary heat exchanger such that the first heat transfer fluid can flow through the heat exchanging element while transferring heat energy to or extracting heat energy from a second heat transfer fluid; and d. at least one storage tank arranged within said plant , characterised in that the storage tank is connected to the heat exchanging element and is thermally insulated so that the second heat transfer fluid can be stored in the storage tank while maintaining its temperature, and wherein the storage tank is further connectable to a second heat transfer fluid conduit , wherein said conduit is routed outside said plant . a. hollow space so that said plant floats when installed in the water body ; b. at least one primary heat exchanger which is at least partially immersed in the water body after installation of said plant in said water body and which comprises a first heat transfer fluid inlet and a first heat transfer fluid outlet such that the first heat transfer fluid can flow through the primary heat exchanger and can transfer heat energy to the water body or can extract heat energy from the water body , wherein the primary heat exchanger is arranged on the outside of said plant , in particular under the bottom and/or on the sides thereof; c. at least one heat exchanging element, selected from the group comprising a secondary heat exchanger and a heat pump , arranged within said plant , wherein the heat exchanging element is connected to the primary heat exchanger such that the first heat transfer fluid can flow through the heat exchanging element while transferring heat energy to or extracting heat energy from a second heat transfer fluid; and d. at least one storage tank arranged within said plant ,
A method for preparing an inorganic polysilazane resin, wherein a ratio of containing silicon atoms to containing nitrogen atoms, Si/N is 1.30 or more, comprising heating an inorganic polysilazane compound containing both Si-NH and Si-Cl to react NH in one inorganic polysilazane compound containing both Si-NH and Si-Cl with Cl in another inorganic polysilazane compound containing both Si-NH and Si-Cl, wherein the heating is conducted in the presence of a catalyst, or synthesizing a silazane oligomer or polymer with no Si-CI bond and then thermally reacting the synthesized silazane oligomer or polymer with an added halosilane to react NH in the silazane oligomer or polymer with the added halosilane. heating an inorganic polysilazane compound containing both Si-NH and Si-Cl to react NH in one inorganic polysilazane compound containing both Si-NH and Si-Cl with Cl in another inorganic polysilazane compound containing both Si-NH and Si-Cl, wherein the heating is conducted in the presence of a catalyst, or synthesizing a silazane oligomer or polymer with no Si-CI bond and then thermally reacting the synthesized silazane oligomer or polymer with an added halosilane to react NH in the silazane oligomer or polymer with the added halosilane.
A composite pressure vessel comprising: an exterior surface and closed domed ends a vessel mounting structure characterised by said vessel mounting structure including a plurality of bands made of a composite material and spaced apart from one another to form a crisscrossing helical grid pattern throughout the entire vessel mounting structure, the crisscrossing helical grid pattern located about, and integrated into the exterior surface of the composite pressure vessel ; wherein the opposing ends of the plurality of bands of the mounting structure extend past a corresponding one of the closed domed ends of the composite pressure vessel and taper toward a longitudinal centreline of the composite pressure vessel to form a skirt . an exterior surface and closed domed ends a vessel mounting structure characterised by said vessel mounting structure including a plurality of bands made of a composite material and spaced apart from one another to form a crisscrossing helical grid pattern throughout the entire vessel mounting structure, the crisscrossing helical grid pattern located about, and integrated into the exterior surface of the composite pressure vessel ; wherein the opposing ends of the plurality of bands of the mounting structure extend past a corresponding one of the closed domed ends of the composite pressure vessel and taper toward a longitudinal centreline of the composite pressure vessel to form a skirt .