mhurhangee/patent-ind-claim-en huggingface dataset:
A rechargeable battery, comprising at least: a porous base ; a first electrode layer ; an ionic conductor layer ; and a second electrode layer , the porous base comprising a framework that is conductive, the framework having a three-dimensional network structure, on at least part of a surface of the framework in the interior of the porous base , the first electrode layer , the ionic conductor layer , and the second electrode layer being stacked in this order, the first electrode layer and the second electrode layer having opposite polarities, characterized in that , the rechargeable battery further comprising a liquid electrolyte, both the first electrode layer and the second electrode layer being porous, the ionic conductor layer containing a gelled electrolyte, the liquid electrolyte having penetrated the first electrode layer , the gelled electrolyte, and the second electrode layer . a porous base ; a first electrode layer ; an ionic conductor layer ; and a second electrode layer , the porous base comprising a framework that is conductive, the framework having a three-dimensional network structure, on at least part of a surface of the framework in the interior of the porous base , the first electrode layer , the ionic conductor layer , and the second electrode layer being stacked in this order, the first electrode layer and the second electrode layer having opposite polarities, characterized in that , the rechargeable battery further comprising a liquid electrolyte, both the first electrode layer and the second electrode layer being porous, the ionic conductor layer containing a gelled electrolyte, the liquid electrolyte having penetrated the first electrode layer , the gelled electrolyte, and the second electrode layer .
A computer-implemented method executable by a network appliance, the computer-implemented method comprising: storing a plurality of flow table entries in a flow table of a match-action pipeline of the network appliance, wherein the match-action pipeline is implemented via a packet processing circuit configured to process a plurality of network traffic flows associated with the plurality of flow table entries ; reading, by an extended packet processing pipeline of the network appliance, a flow table entry of the flow table , wherein the extended packet processing pipeline is implemented via a pipeline circuit that is external to the packet processing circuit; determining, by the extended packet processing pipeline , that a network traffic flow associated with the flow table entry is expired or terminated; and deleting, by the network appliance, the flow table entry from the flow table by processing a traffic flow deletion operation after determining that the network traffic flow is expired or terminated, wherein the flow table is stored in a pipeline memory of the match-action pipeline ; a plurality of shards of the flow table contain the plurality of flow table entries; the extended packet processing pipeline includes a plurality of extended packet processing pipeline stages ; and the extended packet processing pipeline stages are configured to concurrently search the plurality of shards. storing a plurality of flow table entries in a flow table of a match-action pipeline of the network appliance, wherein the match-action pipeline is implemented via a packet processing circuit configured to process a plurality of network traffic flows associated with the plurality of flow table entries ; reading, by an extended packet processing pipeline of the network appliance, a flow table entry of the flow table , wherein the extended packet processing pipeline is implemented via a pipeline circuit that is external to the packet processing circuit; determining, by the extended packet processing pipeline , that a network traffic flow associated with the flow table entry is expired or terminated; and deleting, by the network appliance, the flow table entry from the flow table by processing a traffic flow deletion operation after determining that the network traffic flow is expired or terminated, the flow table is stored in a pipeline memory of the match-action pipeline ; a plurality of shards of the flow table contain the plurality of flow table entries; the extended packet processing pipeline includes a plurality of extended packet processing pipeline stages ; and the extended packet processing pipeline stages are configured to concurrently search the plurality of shards.
Plant for biogas upgrading, including: - a cooling and condensation column provided with a biogas feed conduit , a head outlet conduit , and a bottom outlet conduit from which a recirculating conduit departs, flowing into the upper portion of said column , - a liquefaction column into which said head outlet conduit flows, from the top of which departs a discharge conduit for incondensable gases, and from the bottom of which departs a discharge conduit for a liquid flow, which branches into a recirculation branch flowing into the top portion of the liquefaction column and into an outlet branch , - a heat exchanger for cooling the liquid flow in said discharge conduit , and - a filtration device for the liquid flow in said discharge conduit , which filtration device retains particles of solid carbon dioxide, is located downstream of the heat exchanger and upstream of the division into a recirculation branch and an outlet branch , and comprises at least two units arranged in parallel and intended to be used alternately in the operating stage and in the regeneration stage, wherein each filtration unit comprises a wall delimiting a chamber within which a filtering septum is arranged, said chamber being provided with openings for the entry of the liquid to be filtered and the exit of the filtered liquid during the operating stage, and, respectively, for the entry and the exit of the biogas during the regeneration stage. - a cooling and condensation column provided with a biogas feed conduit , a head outlet conduit , and a bottom outlet conduit from which a recirculating conduit departs, flowing into the upper portion of said column , - a liquefaction column into which said head outlet conduit flows, from the top of which departs a discharge conduit for incondensable gases, and from the bottom of which departs a discharge conduit for a liquid flow, which branches into a recirculation branch flowing into the top portion of the liquefaction column and into an outlet branch , - a heat exchanger for cooling the liquid flow in said discharge conduit , and - a filtration device for the liquid flow in said discharge conduit , which filtration device retains particles of solid carbon dioxide, is located downstream of the heat exchanger and upstream of the division into a recirculation branch and an outlet branch , and comprises at least two units arranged in parallel and intended to be used alternately in the operating stage and in the regeneration stage,
A method of detecting flowrate in a fluid channel , the method comprising: introducing a bluff body to a flow of fluid in the channel to form one of a shedded vortex and a perturbation of the fluid; detecting the one of the vortex and the perturbation at a first location in the channel; detecting the one of the vortex and the perturbation at a second location in the channel downstream of the first location; and calculating a flowrate for the flow of fluid based on a time difference between the detections, characterised in that the detecting of the perturbation is achieved with a sensor that is a piezo patch sensor. introducing a bluff body to a flow of fluid in the channel to form one of a shedded vortex and a perturbation of the fluid; detecting the one of the vortex and the perturbation at a first location in the channel; detecting the one of the vortex and the perturbation at a second location in the channel downstream of the first location; and calculating a flowrate for the flow of fluid based on a time difference between the detections, characterised in that the detecting of the perturbation is achieved with a sensor that is a piezo patch sensor.
An intraluminal device made from a series of interconnected beams and bends , comprising: a first beam comprising a first end portion , a second end portion and a middle portion connecting said first end portion and said second end portion; a first bend connected to said first end portion , said first bend being further connected to a second beam ; a second bend connected to said second end portion , said second bend being further connected to a third beam ; wherein said first bend and said second bend are elastic, the intraluminal device thereby being collapsible to form a low profile and expandable to form a larger profile; said first end portion comprising a first side surface disposed toward and connected to an inner surface of said first bend and a second side surface disposed away from and connected to an outer surface of said first bend; and a first distance between said first side surface and said second side surface adjacent said first bend being greater than a second distance between said first side surface and said second side surface adjacent said middle portion , a width of said first end portion thereby being tapered between said first bend and said middle portion , wherein said first side surface is tapered at a different rate than said second side surface ; and characterised in that said first side surface has a concave curved shape, and said second side surface has a convex curved shape. a first beam comprising a first end portion , a second end portion and a middle portion connecting said first end portion and said second end portion; a first bend connected to said first end portion , said first bend being further connected to a second beam ; a second bend connected to said second end portion , said second bend being further connected to a third beam ; wherein said first bend and said second bend are elastic, the intraluminal device thereby being collapsible to form a low profile and expandable to form a larger profile; said first end portion comprising a first side surface disposed toward and connected to an inner surface of said first bend and a second side surface disposed away from and connected to an outer surface of said first bend; and a first distance between said first side surface and said second side surface adjacent said first bend being greater than a second distance between said first side surface and said second side surface adjacent said middle portion , a width of said first end portion thereby being tapered between said first bend and said middle portion , wherein said first side surface is tapered at a different rate than said second side surface ; and characterised in that said first side surface has a concave curved shape, and said second side surface has a convex curved shape.
A hob having a display and a substrate , wherein the substrate at least partially consists of a partially transparent material having a spectrally inhomogeneous transmission curve, wherein the substrate has a display side (1.1) and a rear side (1.2), wherein luminous elements are arranged in the region of the rear side (1.2) and wherein said luminous elements have at least two primary colour lights (4.1), wherein the primary colour brightness of at least one of the primary colour lights (4.1) of said luminous elements is corrected characterised in that the brightness and the colour location of said luminous elements are set by means of pulse width modulation using switches (17.1) by means of an average attenuation factor (f (R, G, B)) or by means of programmable current drivers , and that the luminous elements form the light source for backlighting of a coloured display, or that the luminous elements form pixels of a colour display.
A fingerprint identification method performed by a fingerprint identification device, comprising: controlling at least one first light emitting unit in a first light emitting array to emit light; receiving, by a plurality of photosensitive elements at a plurality of first positions in the first light emitting array (113; 113x), reflected signals caused by the light of the at least one first light emitting unit , respectively, as a plurality of first reflected light signals; and performing a fingerprint identification based on the plurality of first reflected light signals and distances between the plurality of first positions in the first light emitting array and the at least one first light emitting unit . controlling at least one first light emitting unit in a first light emitting array to emit light; receiving, by a plurality of photosensitive elements at a plurality of first positions in the first light emitting array (113; 113x), reflected signals caused by the light of the at least one first light emitting unit , respectively, as a plurality of first reflected light signals; and performing a fingerprint identification based on the plurality of first reflected light signals and distances between the plurality of first positions in the first light emitting array and the at least one first light emitting unit .
A photochromic polycarbonate composition comprising: a poly(aliphatic ester-carbonate) comprising bisphenol A carbonate units; a cycloaliphatic polyester comprising units of the formula wherein R is a C 2-12 alkylene or a C 3-12 cycloalkylene; and a photochromic dye; wherein the composition has a transmission of 80% or more and a haze of 3% or less, measured according to ASTM D1003 using the color space CIE1931 (Illuminant C and a 2° observer) at a thickness of 1.5 mm. a poly(aliphatic ester-carbonate) comprising bisphenol A carbonate units; a cycloaliphatic polyester comprising units of the formula wherein R is a C 2-12 alkylene or a C 3-12 cycloalkylene; and a photochromic dye; wherein the composition has a transmission of 80% or more and a haze of 3% or less, measured according to ASTM D1003 using the color space CIE1931 (Illuminant C and a 2° observer) at a thickness of 1.5 mm.
A degradable branched-block copolymer comprising a polyether central core having n arms and degradable polymer chains extending from each arm of the polyether central core, the polyether central core being a star core or a linear core, each degradable polymer chain being constituted by I monomer unit(s) of a degradable polymer, characterized in that each degradable polymer chain is identical and functionalized at its extremity by a photoreactive group chosen among an aryl-azide derivative, a (meth)acrylate group or a thiol group, said degradable branched-block copolymer being illustrated by the following schema: wherein is the monomer unit of the degradable polymer constituting the degradable polymer chain, G is the photoreactive group, n is an integer of at least 4, and is wherein is the star polyether central core, and is the monomer unit corresponding to the polyether core, and m is comprised between 4 and 400 and I is comprised between 4 and 1500, or is wherein is the monomer unit which forms the linear polyether central core, and R is a multivalent branched functional group comprising a number n/2 of terminal functions or atoms selected among oxygen atom or NH group, each of this terminal function being linked to one polymer chain and n is advantageously between 4 and 32, m is comprised between 4 and 600 units and I is comprised between 2 and 400. G is the photoreactive group, n is an integer of at least 4, and is wherein is the star polyether central core, and is the monomer unit corresponding to the polyether core, and m is comprised between 4 and 400 and I is comprised between 4 and 1500, or is wherein is the monomer unit which forms the linear polyether central core, and R is a multivalent branched functional group comprising a number n/2 of terminal functions or atoms selected among oxygen atom or NH group, each of this terminal function being linked to one polymer chain and
A biopsy system comprising: (a) a biopsy device , wherein the biopsy device comprises a probe couplable to a holster ; (b) an outer cannula , wherein the outer cannula extends distally from the probe and defines a lateral aperture ; (c) a cutter , wherein the cutter is movable relative to the outer cannula and is configured to sever tissue protruding through the aperture; (d) a tissue sample holder , wherein the tissue sample holder is detachably coupled to a proximal end of the probe; (e) a vacuum source , wherein the vacuum source is configured to apply vacuum to the cutter; (f) a cutter actuation assembly including a sleeve secured to the cutter, a gear , and a nut member , wherein the sleeve includes a threaded section having external threading , wherein the gear is disposed coaxially about the sleeve and is operable to rotate the cutter via the sleeve, wherein the nut member includes internal threading positioned to engage the external threading of the sleeve such that the internal threading and external threading are operable to translate the cutter in response to rotation of the cutter, wherein cutter actuation assembly is configured, in a cutting cycle, to retract the cutter to a proximal position relative to the lateral aperture, advance the cutter to a distal position in order to cut tissue positioned in the lateral aperture, and oscillate the cutter proximally and distally after advancing to the distal position. (a) a biopsy device , wherein the biopsy device comprises a probe couplable to a holster ; (b) an outer cannula , wherein the outer cannula extends distally from the probe and defines a lateral aperture ; (c) a cutter , wherein the cutter is movable relative to the outer cannula and is configured to sever tissue protruding through the aperture; (d) a tissue sample holder , wherein the tissue sample holder is detachably coupled to a proximal end of the probe; (e) a vacuum source , wherein the vacuum source is configured to apply vacuum to the cutter; (f) a cutter actuation assembly including a sleeve secured to the cutter, a gear , and a nut member , wherein the sleeve includes a threaded section having external threading , wherein the gear is disposed coaxially about the sleeve and is operable to rotate the cutter via the sleeve, wherein the nut member includes internal threading positioned to engage the external threading of the sleeve such that the internal threading and external threading are operable to translate the cutter in response to rotation of the cutter, wherein cutter actuation assembly is configured, in a cutting cycle, to retract the cutter to a proximal position relative to the lateral aperture, advance the cutter to a distal position in order to cut tissue positioned in the lateral aperture, and oscillate the cutter proximally and distally after advancing to the distal position.
Method for securely operating a field device , wherein the field device has at least one human-machine interface , wherein the human-machine interface comprises a display apparatus and a keypad, by way of which the field device can be operated, and wherein the field device additionally has a communication interface for connecting a local control unit , wherein the field device does not have a secure connection to a network for process control while being used as intended, wherein - the field device is at least logically connected to the local control unit by way of a local connection , - authentication features of a local operator are used to set up a secure connection between the local control unit and a trusted server , - a request key is generated in the field device , - the request key is conveyed to the trusted server by way of the local control unit and a secure connection, - a signed response key is formed by signing the request key using a private key of the trusted server , - the signed response key is transmitted to the local control unit by way of the secure connection between the trusted server and the local control unit and on to the field device by way of the local connection , - the response key is extracted from the signed response key in the field device using a public key, - the response key is compared with the request key , and - if the response key matches the request key then a predefined procedure for authenticated unlocking of local operation of the field device is enabled while maintaining the existing configuration in the field device . - the field device is at least logically connected to the local control unit by way of a local connection , - authentication features of a local operator are used to set up a secure connection between the local control unit and a trusted server , - a request key is generated in the field device , - the request key is conveyed to the trusted server by way of the local control unit and a secure connection, - a signed response key is formed by signing the request key using a private key of the trusted server , - the signed response key is transmitted to the local control unit by way of the secure connection between the trusted server and the local control unit and on to the field device by way of the local connection , - the response key is extracted from the signed response key in the field device using a public key, - the response key is compared with the request key , and - if the response key matches the request key then a predefined procedure for authenticated unlocking of local operation of the field device is enabled while maintaining the existing configuration in the field device .
Method of manufacturing a structure for high-temperature applications comprising a basic structure , which includes a ceramic composite material, and a coating , the method comprising: a) providing a basic structure made of a ceramic composite material, in particular ceramic fiber composite material, and b) coating the basic structure with an ultra-high-temperature ceramic coating of a coating material containing at least one metal-semimetal compound, at least one metal boride, at least one metal carbide and/or at least one metal nitride, by - installing the base structure in a vacuum process chamber for plasma jet techniques; - providing a plasma torch having a cathode , an elongated plasma channel downstream of a cathode for conducting a plasma jet, and a supersonic nozzle ; - introducing the coating material into the elongated plasma channel and forming a gas mixture in the elongated plasma channel; - expanding the gas mixture with coating material via the supersonic nozzle ; and - plasma coating the basic structure with the coating material. a) providing a basic structure made of a ceramic composite material, in particular ceramic fiber composite material, and b) coating the basic structure with an ultra-high-temperature ceramic coating of a coating material containing at least one metal-semimetal compound, at least one metal boride, at least one metal carbide and/or at least one metal nitride, by - installing the base structure in a vacuum process chamber for plasma jet techniques; - providing a plasma torch having a cathode , an elongated plasma channel downstream of a cathode for conducting a plasma jet, and a supersonic nozzle ; - introducing the coating material into the elongated plasma channel and forming a gas mixture in the elongated plasma channel; - expanding the gas mixture with coating material via the supersonic nozzle ; and - plasma coating the basic structure with the coating material. - installing the base structure in a vacuum process chamber for plasma jet techniques; - providing a plasma torch having a cathode , an elongated plasma channel downstream of a cathode for conducting a plasma jet, and a supersonic nozzle ; - introducing the coating material into the elongated plasma channel and forming a gas mixture in the elongated plasma channel; - expanding the gas mixture with coating material via the supersonic nozzle ; and - plasma coating the basic structure with the coating material.