mhurhangee/patent-ind-claim-en huggingface dataset:
A snow removal blade for removing snow from a snow-covered road surface ; the blade comprising: - a rolling body ; - a removal knife connected to a lower portion of said rolling body and adapted to slide, in use, adjacent to the road surface thus leaving a layer of residual snow on the road surface ; - a feeding assembly , for supplying a snow melting material, the assembly comprising a plurality of delivery nozzles and a circuit for feeding the melting material to said nozzles ; - and a further knife arranged behind said removal knife in a forward movement direction (A) of the blade ; characterised in that said further knife is a mixing and pressing member for said residual snow; said mixing and pressing member being defined by a solid or boxed plate having the same length as said removal knife measured orthogonally to said movement direction (A); the removal knife and the mixing and pressing member delimiting between them, a lateral snow outlet channel , and in that said nozzles comprise respective outlets arranged in said channel for sending the melting material onto the residual snow present in said lateral outlet channel , said mixing and pressing member being configured to mix said layer of residual snow with said melting material arranged in said lateral outlet channel and for compressing the residual snow mixed with said melting material on the road surface during its forward movement. - a rolling body ; - a removal knife connected to a lower portion of said rolling body and adapted to slide, in use, adjacent to the road surface thus leaving a layer of residual snow on the road surface ; - a feeding assembly , for supplying a snow melting material, the assembly comprising a plurality of delivery nozzles and a circuit for feeding the melting material to said nozzles ; - and a further knife arranged behind said removal knife in a forward movement direction (A) of the blade ; characterised in that said further knife is a mixing and pressing member for said residual snow; said mixing and pressing member being defined by a solid or boxed plate having the same length as said removal knife measured orthogonally to said movement direction (A); the removal knife and the mixing and pressing member delimiting between them, a lateral snow outlet channel , and in that said nozzles comprise respective outlets arranged in said channel for sending the melting material onto the residual snow present in said lateral outlet channel , said mixing and pressing member being configured to mix said layer of residual snow with said melting material arranged in said lateral outlet channel and for compressing the residual snow mixed with said melting material on the road surface during its forward movement.
Use of a composition as a binder for an all-solid-state battery, the composition comprising: a copolymer containing an alkylene structural unit and a nitrile group-containing monomer unit; and an ester compound and/or a carbonate compound having a boiling point of 100°C or higher and a molecular weight of 550 or less. a copolymer containing an alkylene structural unit and a nitrile group-containing monomer unit; and an ester compound and/or a carbonate compound having a boiling point of 100°C or higher and a molecular weight of 550 or less.
Plastics composition comprising - at least one plastics additive (A) selected from polyester-modified, branched organosiloxanes; and - at least one plastic (B). - at least one plastics additive (A) selected from polyester-modified, branched organosiloxanes; and - at least one plastic (B).
Audio processor for generating a frequency enhanced audio signal from a source audio signal , comprising: an envelope determiner for determining a temporal envelope of at least a portion of the source audio signal ; an analyzer for analyzing the temporal envelope to determine values of certain features of the temporal envelope; a signal synthesizer for generating a synthesis signal, the generating comprising placing pulses in relation to the determined temporal values, wherein the pulses are weighted using weights derived from amplitudes of the temporal envelope related to the temporal values, at which the pulses are placed; and a combiner for combining at least one band of the synthesis signal that is not included in the source audio signal and the source audio signal to obtain the frequency enhanced audio signal . an envelope determiner for determining a temporal envelope of at least a portion of the source audio signal ; an analyzer for analyzing the temporal envelope to determine values of certain features of the temporal envelope; a signal synthesizer for generating a synthesis signal, the generating comprising placing pulses in relation to the determined temporal values, wherein the pulses are weighted using weights derived from amplitudes of the temporal envelope related to the temporal values, at which the pulses are placed; and a combiner for combining at least one band of the synthesis signal that is not included in the source audio signal and the source audio signal to obtain the frequency enhanced audio signal .
Board, wherein said board consists at least of a substrate which is formed at least of a gypsum-based, a cement-based or another mineral or geopolymer based basic material layer, more particularly fiber cement board, wherein the board, on at least two opposite edges, is provided with coupling means which allow coupling two of such boards to each other, which are configured such that they, in the coupled condition, provide for a locking according to a direction in the plane of the coupled boards and perpendicular to the coupled edges, as well as in a direction perpendicular to the plane of the coupled boards, wherein the coupling means are realized substantially in one piece or entirely in one piece in the board, and more particularly in the basic material layer, and wherein in the proximity of the front side of the board, on the corner edge between the front side and at least one, and preferably both, of said two edges, a chamfer is present, in the form of a bevel or rounding, wherein the board comprises a top layer, wherein the chamfer extends deeper than the thickness of the top layer and thus extends at least into the basic material layer; characterized in that the surface of the chamfer comprises a separate covering and that the top layer is thinner than 1 mm.
Method for preparing a positive electrode for a lithium-sulfur battery, comprising the following steps: a) a step of preparing a first mixture by placing a carbon additive which is carbon black and/or activated carbon; a carbon organic binder, and a solvent in contact; b) a step of carbonising said first mixture, by means of which the result is a powder comprising agglomerates of carbon black and/or activated carbon; c) a step of placing the powder obtained in b) in contact with a powder of Li 2 S thus forming a second mixture; d) a step of melting the powder of Li 2 S of the second mixture, by means of which the result is a composite powder comprising agglomerates of carbon black and/or activated carbon and particles of Li 2 S; e) a step of dispersing the powder obtained in d) in an organic binder; f) a step of depositing the dispersion obtained in e) on a substrate, which is a material comprising carbon fibres or a metal strip; and g) a step of drying said dispersion thus deposited. a) a step of preparing a first mixture by placing a carbon additive which is carbon black and/or activated carbon; a carbon organic binder, and a solvent in contact; b) a step of carbonising said first mixture, by means of which the result is a powder comprising agglomerates of carbon black and/or activated carbon; c) a step of placing the powder obtained in b) in contact with a powder of Li 2 S thus forming a second mixture; d) a step of melting the powder of Li 2 S of the second mixture, by means of which the result is a composite powder comprising agglomerates of carbon black and/or activated carbon and particles of Li 2 S; e) a step of dispersing the powder obtained in d) in an organic binder; f) a step of depositing the dispersion obtained in e) on a substrate, which is a material comprising carbon fibres or a metal strip; and g) a step of drying said dispersion thus deposited.
A method comprising: receiving, by a first Multicast Source Discovery Protocol, MSDP, speaker , from a second MSDP speaker , a source active, SA, message that advertises a multicast source for a multicast group; when the second MSDP speaker is in a mesh group with the first MSDP speaker, determining, by the first MSDP speaker, whether the first MSDP speaker has an active SA state for a multicast source and multicast group indicated in the SA message; and when the first MSDP speaker does not have the active SA state for the multicast source and multicast group indicated in the SA message, accepting, by the first MSDP speaker, the SA message and forwarding the SA message to a third MSDP speaker that is not in the mesh group with the first MSDP speaker and the second MSDP speaker. receiving, by a first Multicast Source Discovery Protocol, MSDP, speaker , from a second MSDP speaker , a source active, SA, message that advertises a multicast source for a multicast group; when the second MSDP speaker is in a mesh group with the first MSDP speaker, determining, by the first MSDP speaker, whether the first MSDP speaker has an active SA state for a multicast source and multicast group indicated in the SA message; and when the first MSDP speaker does not have the active SA state for the multicast source and multicast group indicated in the SA message, accepting, by the first MSDP speaker, the SA message and forwarding the SA message to a third MSDP speaker that is not in the mesh group with the first MSDP speaker and the second MSDP speaker.
A positive electrode comprising: a current collector ; a first active material layer including first active material particles and disposed on the current collector ; and a first pattern and a second pattern alternately disposed separately from each other on the first active material layer , wherein: the first pattern includes first pattern active material particles; the second pattern includes second pattern active material particles; the first pattern has a thickness greater than that of the second pattern ; and the second pattern has a volume expansion rate greater than that of the first pattern , wherein the volume expansion rate is calculated by Equation 1 below in which A represents a thickness of a first pattern or a second pattern before charging and discharging and B represents a thickness of a first pattern or a second pattern after charging and discharging Volume expansion rate = B − A / A × 100 ; and the thickness is measured using a Mauser micrometer or a scanning electron microscope (SEM), wherein at least a portion of the first active material layer is exposed to an outside. a current collector ; a first active material layer including first active material particles and disposed on the current collector ; and a first pattern and a second pattern alternately disposed separately from each other on the first active material layer , wherein: the first pattern includes first pattern active material particles; the second pattern includes second pattern active material particles; the first pattern has a thickness greater than that of the second pattern ; and the second pattern has a volume expansion rate greater than that of the first pattern , wherein the volume expansion rate is calculated by Equation 1 below in which A represents a thickness of a first pattern or a second pattern before charging and discharging and B represents a thickness of a first pattern or a second pattern after charging and discharging Volume expansion rate = B − A / A × 100 ; and the thickness is measured using a Mauser micrometer or a scanning electron microscope (SEM), wherein at least a portion of the first active material layer is exposed to an outside. the first pattern includes first pattern active material particles; the second pattern includes second pattern active material particles; the first pattern has a thickness greater than that of the second pattern ; and the second pattern has a volume expansion rate greater than that of the first pattern , wherein the volume expansion rate is calculated by Equation 1 below in which A represents a thickness of a first pattern or a second pattern before charging and discharging and B represents a thickness of a first pattern or a second pattern after charging and discharging Volume expansion rate = B − A / A × 100 ; and the thickness is measured using a Mauser micrometer or a scanning electron microscope (SEM), wherein at least a portion of the first active material layer is exposed to an outside.
A prosthetic assembly for repairing a target tissue defect within a target vessel region in a patient, the prosthetic assembly comprising: an exclusion structure sized to substantially cover the target tissue defect in the target vessel region when the exclusion structure is in a deployed configuration; and a branch assembly for directing fluid flow to a branch vessel from the target vessel region, the branch assembly comprising, an outer branch prosthesis having a first portion and a second portion , wherein the first portion is configured to be deployed between the exclusion structure and a wall of the target vessel region, and the second portion is configured to be deployed in a branch vessel branching from the target vessel region, and a support structure at least partially disposed within the outer branch prosthesis at the first portion when the branch assembly is in a deployed configuration, wherein an inflow region of the first portion of the outer branch prosthesis is expandable to a cross-sectional dimension larger than a cross-sectional dimension (D 3 ) of the support structure , and wherein the first portion is deformable to a non-circular cross-sectional shape when deployed. an exclusion structure sized to substantially cover the target tissue defect in the target vessel region when the exclusion structure is in a deployed configuration; and a branch assembly for directing fluid flow to a branch vessel from the target vessel region, the branch assembly comprising, an outer branch prosthesis having a first portion and a second portion , wherein the first portion is configured to be deployed between the exclusion structure and a wall of the target vessel region, and the second portion is configured to be deployed in a branch vessel branching from the target vessel region, and a support structure at least partially disposed within the outer branch prosthesis at the first portion when the branch assembly is in a deployed configuration, wherein an inflow region of the first portion of the outer branch prosthesis is expandable to a cross-sectional dimension larger than a cross-sectional dimension (D 3 ) of the support structure , and wherein the first portion is deformable to a non-circular cross-sectional shape when deployed.
A data transmission method, comprising: establishing , by a station, a multi-link to an access point, the multi-link instructing the access point to provide at least a first frequency band and a second frequency band, and the first frequency band and the second frequency band being two different frequency bands; transmitting , by the station, a first data packet to the access point on the first frequency band; and transmitting , by the station, a second data packet to the access point on the second frequency band, wherein the access point removes the first data packet or the second data packet according to a data transmission status, the second data packet and the first data packet transmitting same service data; wherein the access point removes the first data packet or the second data packet according to a data transmission status comprises: the access point removes the first data packet or the second data packet according to the arrival order of the first data packet and the second data packet and the complete condition of the received data. establishing , by a station, a multi-link to an access point, the multi-link instructing the access point to provide at least a first frequency band and a second frequency band, and the first frequency band and the second frequency band being two different frequency bands; transmitting , by the station, a first data packet to the access point on the first frequency band; and transmitting , by the station, a second data packet to the access point on the second frequency band, wherein the access point removes the first data packet or the second data packet according to a data transmission status, the second data packet and the first data packet transmitting same service data; wherein the access point removes the first data packet or the second data packet according to a data transmission status comprises: the access point removes the first data packet or the second data packet according to the arrival order of the first data packet and the second data packet and the complete condition of the received data.
A refrigeration system comprising: a vapor compression cycle including a condenser , an expansion valve , an evaporator , and a compressor having a refrigerant (R) circulating there through; and an absorption refrigeration cycle including an absorber and a desorber arranged in a generally closed-loop configuration such that an absorption solution (A) circulates there through, wherein the vapor compression cycle and the absorption refrigeration cycle are substantially integrated such that the absorber is fluidly coupled to the compressor and is configured to generate a mixture including refrigerant and absorbing solution and the desorber is fluidly coupled to the condenser, the desorber being configured to separate the refrigerant vapor from the mixture and increase a pressure of the refrigerant vapor, characterized in that the absorber is configured as a liquid-liquid mixer, and in that a first heat exchanger is arranged generally downstream from the compressor and generally upstream from the desorber , the first heat exchanger being configured to transfer heat between the refrigerant (R) and the mixture such that the refrigerant supplied to the absorber condenses to a liquid. a vapor compression cycle including a condenser , an expansion valve , an evaporator , and a compressor having a refrigerant (R) circulating there through; and an absorption refrigeration cycle including an absorber and a desorber arranged in a generally closed-loop configuration such that an absorption solution (A) circulates there through, wherein the vapor compression cycle and the absorption refrigeration cycle are substantially integrated such that the absorber is fluidly coupled to the compressor and is configured to generate a mixture including refrigerant and absorbing solution and the desorber is fluidly coupled to the condenser, the desorber being configured to separate the refrigerant vapor from the mixture and increase a pressure of the refrigerant vapor, characterized in that the absorber is configured as a liquid-liquid mixer, and in that a first heat exchanger is arranged generally downstream from the compressor and generally upstream from the desorber , the first heat exchanger being configured to transfer heat between the refrigerant (R) and the mixture such that the refrigerant supplied to the absorber condenses to a liquid.
Internal combustion engine with a crankcase and a cylinder head, comprising at least one cylinder block, at least one flat flange surface to receive at least one EGR cooler , at least one EGR cooler , at least one coolant inlet port to the EGR cooler , at least one coolant outlet port from the EGR cooler , at least one exhaust gas inlet to the EGR cooler , at least one exhaust gas leadthrough from the EGR cooler and at least one cooler cassette acting as a cooling section, wherein, in an exhaust flow direction, an inlet connection is arranged upstream of the cooler cassette and an outlet connection is arranged downstream of the cooler cassette , characterized in that the inlet connection and the outlet connection each have a cast fin , wherein a cast rib arranged on the crankcase is provided opposite the cast fins , and the cast fin is arranged with respect to the cast rib in such a way that a gap in a cooling water-conducting area of the EGR cooler is formed between them, which has an influence on the flow velocity of the cooling water. wherein, in an exhaust flow direction, an inlet connection is arranged upstream of the cooler cassette and an outlet connection is arranged downstream of the cooler cassette , characterized in that the inlet connection and the outlet connection each have a cast fin , wherein a cast rib arranged on the crankcase is provided opposite the cast fins , and the cast fin is arranged with respect to the cast rib in such a way that a gap in a cooling water-conducting area of the EGR cooler is formed between them, which has an influence on the flow velocity of the cooling water.
A handheld portable plant-based or synthetic vaporizer comprising: a main housing containing: a reaction chamber , a reaction cartridge comprised of a thermally conductive substrate, an air vent , a vapor escapement , a laser diode unit, and a vapor tube , the reaction chamber being a receiving chamber for the reaction cartridge; the reaction cartridge being a receiving means for plant-based or synthetic materials, and being partially comprised of a thermally conductive substrate; the laser diode unit comprising a laser diode , a focusing lens , a heat sink , a driver diode circuit, and batteries ; the air vent means for allowing the exchange of vapor and air through the reaction cartridge; the laser diode unit capable of sufficiently heating the reaction chamber to a temperature above the vaporization point of the plant-based or synthetic material within the reaction chamber; the vapor tube being an enclosed channel, connected on one end to the reaction chamber and the other end being open for inhalation or expulsion by the user; characterized in that the reaction cartridge contains a reaction cartridge insert placing viscous concentrate material within a heat envelope of a substrate. a main housing containing: a reaction chamber , a reaction cartridge comprised of a thermally conductive substrate, an air vent , a vapor escapement , a laser diode unit, and a vapor tube , a reaction chamber , a reaction cartridge comprised of a thermally conductive substrate, an air vent , a vapor escapement , a laser diode unit, and a vapor tube , the reaction chamber being a receiving chamber for the reaction cartridge; the reaction cartridge being a receiving means for plant-based or synthetic materials, and being partially comprised of a thermally conductive substrate; the laser diode unit comprising a laser diode , a focusing lens , a heat sink , a driver diode circuit, and batteries ; the air vent means for allowing the exchange of vapor and air through the reaction cartridge; the laser diode unit capable of sufficiently heating the reaction chamber to a temperature above the vaporization point of the plant-based or synthetic material within the reaction chamber; the vapor tube being an enclosed channel, connected on one end to the reaction chamber and the other end being open for inhalation or expulsion by the user; characterized in that the reaction cartridge contains a reaction cartridge insert placing viscous concentrate material within a heat envelope of a substrate.