mhurhangee/patent-ind-claim-en huggingface dataset:
A method of regenerating an ammonium bicarbonate solution, the method comprising: (A) supplying an ammonium bicarbonate solution diluted by forward osmosis to an upper portion of a distillation unit, an upper portion of an ammonia condenser, and an upper portion of an absorber; (B) distilling the diluted ammonium bicarbonate solution supplied to the upper portion of the distillation unit to discharge a first gas mixture including carbon dioxide and ammonia, and supplying the discharged first gas mixture to a lower portion of the ammonium condenser; (C) bringing the first gas mixture supplied to the lower portion of the ammonium condenser in process (B) into contact with the diluted ammonium bicarbonate solution supplied to the upper portion of the ammonium condenser in process (A) to be separated into a first mixed solution and a second gas mixture, supplying the first mixed solution to the upper portion of the absorber, and supplying the second gas mixture to a lower portion of the absorber; and (D) bringing the second gas mixture supplied to the lower portion of the absorber in process (C) into contact with the diluted ammonium bicarbonate solution supplied to the upper portion of the absorber in process (A) and the first mixed solution supplied to the upper portion of the absorber in process (C) to recover a concentrated ammonium bicarbonate solution. (A) supplying an ammonium bicarbonate solution diluted by forward osmosis to an upper portion of a distillation unit, an upper portion of an ammonia condenser, and an upper portion of an absorber; (B) distilling the diluted ammonium bicarbonate solution supplied to the upper portion of the distillation unit to discharge a first gas mixture including carbon dioxide and ammonia, and supplying the discharged first gas mixture to a lower portion of the ammonium condenser; (C) bringing the first gas mixture supplied to the lower portion of the ammonium condenser in process (B) into contact with the diluted ammonium bicarbonate solution supplied to the upper portion of the ammonium condenser in process (A) to be separated into a first mixed solution and a second gas mixture, supplying the first mixed solution to the upper portion of the absorber, and supplying the second gas mixture to a lower portion of the absorber; and (D) bringing the second gas mixture supplied to the lower portion of the absorber in process (C) into contact with the diluted ammonium bicarbonate solution supplied to the upper portion of the absorber in process (A) and the first mixed solution supplied to the upper portion of the absorber in process (C) to recover a concentrated ammonium bicarbonate solution.
A method comprising: receiving, over a plurality of consecutive signaling intervals, a plurality of codewords, each codeword received as a plurality of symbols via wires of a multi-wire bus, the plurality of symbols received at a plurality of multi-input comparators, MICs , wherein each symbol is received by at least two MICs; and generating, for each codeword, a corresponding set of MIC outputs by forming linear combinations of the received symbols using the plurality of MICs ; the method characterised in that it further comprises: generating a plurality of skew measurement signals over the plurality of consecutive signaling intervals based on an early-late measurement made by comparing at least one MIC output of the corresponding set of MIC outputs undergoing a transition between two consecutive signaling intervals to a pre-determined offset voltage, each skew measurement signal representing an aggregate combination of individual wire skew components for each wire of the multi-wire bus involved in the transition; updating, for each skew measurement signal, stored running estimates for each wire involved in the transition; and updating, responsive to the stored running estimate for a given wire reaching an action threshold, a wire-specific delay value for the given wire. generating, for each codeword, a corresponding set of MIC outputs by forming linear combinations of the received symbols using the plurality of MICs ; the method characterised in that it further comprises: generating a plurality of skew measurement signals over the plurality of consecutive signaling intervals based on an early-late measurement made by comparing at least one MIC output of the corresponding set of MIC outputs undergoing a transition between two consecutive signaling intervals to a pre-determined offset voltage, each skew measurement signal representing an aggregate combination of individual wire skew components for each wire of the multi-wire bus involved in the transition; updating, for each skew measurement signal, stored running estimates for each wire involved in the transition; and updating, responsive to the stored running estimate for a given wire reaching an action threshold, a wire-specific delay value for the given wire. generating a plurality of skew measurement signals over the plurality of consecutive signaling intervals based on an early-late measurement made by comparing at least one MIC output of the corresponding set of MIC outputs undergoing a transition between two consecutive signaling intervals to a pre-determined offset voltage, each skew measurement signal representing an aggregate combination of individual wire skew components for each wire of the multi-wire bus involved in the transition; updating, for each skew measurement signal, stored running estimates for each wire involved in the transition; and updating, responsive to the stored running estimate for a given wire reaching an action threshold, a wire-specific delay value for the given wire.
Centrifugal fertilizer spreader to distribute a product in the form of granules or pellets on a ground, and adapted to be secured to a tractor, comprising: - a tank adapted to contain the product to be distributed, and divided into a right containment portion and a left containment portion , in which a right hole and a left hole are formed, respectively and have a respective adjustable opening for product output through respective closing means ; - distribution means to distribute on the ground the product leaving the tank , comprising a right rotary spreader plate and a left rotary spreader plate , placed below the right hole and the left hole , respectively and comprising a spreader scoop of substantially vertical development; - a frame to which the tank and the distribution means are fixed and which is adapted to be fixed to the tractor; - at least one load cell fixed to the frame and adapted to weigh the product inside the tank ; characterized by the fact of comprising a control unit connected to a GPS device, the at least one load cell, the closing means of the right hole and the closing means of the left hole , so that the opening of the right hole and the opening of the left hole are adjustable independently of each other and depending on the position of the fertilizer spreader and the weighing carried out continuously by the at least one load cell, such that the control unit is arranged to continuously interface with data coming out of the one or more load cells that weigh the quantity of product inside the tank , and to vary the openings of the two holes on the basis of the values indicated by a prescription map used, in order to allow to distribute the correct quantities of product. - a tank adapted to contain the product to be distributed, and divided into a right containment portion and a left containment portion , in which a right hole and a left hole are formed, respectively and have a respective adjustable opening for product output through respective closing means ; - distribution means to distribute on the ground the product leaving the tank , comprising a right rotary spreader plate and a left rotary spreader plate , placed below the right hole and the left hole , respectively and comprising a spreader scoop of substantially vertical development; - a frame to which the tank and the distribution means are fixed and which is adapted to be fixed to the tractor; - at least one load cell fixed to the frame and adapted to weigh the product inside the tank ;
Clamping device for fastening pipe or hose lines to a structural body , having two lateral, strip-shaped clamping legs which are aligned parallel to one another and have two mutually facing clamping surfaces for accommodating the pipe or hose line , wherein the two lateral clamping legs are connected via a strip-shaped central part and each have at least one nail-shaped protrusion at their free ends, and the clamping legs each merge via lateral bending regions into a central bending region of the central part, wherein the apex lines (S o ) of the lateral bending regions and the apex lines (S m ) of the central bending region each run parallel to the transverse axis (Q) of the clamping legs , and the apex lines (S o ) of the lateral bending regions have a greater distance from the nail-shaped protrusions than the apex line (S m ) of the central bending region , characterized in that the two clamping legs each have, on their clamping surfaces facing one another, a clamping projection which reduces the distance between the clamping surfaces and is intended for fitting onto the pipe or hose line and is designed in each case as a groove-shaped bending zone of the respective clamping leg , wherein the apex lines of the groove-shaped bending zones of the two clamping legs face one another.
An evaporator element for the evaporation of a liquid containing hydrogen peroxide to a desired enclosed air volume, in which - the evaporator element comprises heat conducting material, - the evaporator element comprises at least one heating element , the heat of which can be conducted to the upper surface of the evaporator element , characterized in that - the evaporator element comprises on its upper surface one meandering groove comprising mainly straight and parallel sections for a liquid comprising hydrogen peroxide, the groove having a desired constant or varying width and depth, and the area of the groove seen directly from above covers at least 50% of the entire area of the evaporator element seen directly from above, and in which - the evaporator element is suitable to be placed in an inclined angle or the bottom surface of the groove is arranged to be descending on the route of the liquid so that the liquid comprising hydrogen peroxide can be fed and drained to the start point of the groove at the first end of the evaporator element as the liquid flows along the groove towards the end point of the groove at the opposite, second end of the evaporator element , the liquid spreading at least to a part of the groove before its evaporation so that - the volume of the upper side of the groove , which is arranged open, makes it possible for the vaporized air-gas mixture comprising hydrogen peroxide to spread to a desired, enclosed air volume. - the evaporator element comprises heat conducting material, - the evaporator element comprises at least one heating element , the heat of which can be conducted to the upper surface of the evaporator element , - the evaporator element comprises on its upper surface one meandering groove comprising mainly straight and parallel sections for a liquid comprising hydrogen peroxide, the groove having a desired constant or varying width and depth, and the area of the groove seen directly from above covers at least 50% of the entire area of the evaporator element seen directly from above, and in which - the evaporator element is suitable to be placed in an inclined angle or the bottom surface of the groove is arranged to be descending on the route of the liquid so that the liquid comprising hydrogen peroxide can be fed and drained to the start point of the groove at the first end of the evaporator element as the liquid flows along the groove towards the end point of the groove at the opposite, second end of the evaporator element , the liquid spreading at least to a part of the groove before its evaporation so that - the volume of the upper side of the groove , which is arranged open, makes it possible for the vaporized air-gas mixture comprising hydrogen peroxide to spread to a desired, enclosed air volume.
An ultrasound imaging apparatus configured for acquiring a two-dimensional, flat image of an elongated, curved region disposed within a curved plane, said apparatus comprising: an ultrasound transducer array for imaging said curved region that is disposed within said curved plane; a localization processor configured for localizing said curved region with respect to said transducer array; an image segmentation module configured for segmenting a centerline of an elongated object containing said curved region; and an ultrasound imaging processor configured for operating said transducer array for said imaging of said curved region, for determining an optimal orientation of a flat image plane by fitting said flat image plane to the centerline of the elongated object by means of a least squares analysis, and for projecting said curved region onto the optimally oriented two-dimensional, flat image plane. an ultrasound transducer array for imaging said curved region that is disposed within said curved plane; a localization processor configured for localizing said curved region with respect to said transducer array; an image segmentation module configured for segmenting a centerline of an elongated object containing said curved region; and an ultrasound imaging processor configured for operating said transducer array for said imaging of said curved region, for determining an optimal orientation of a flat image plane by fitting said flat image plane to the centerline of the elongated object by means of a least squares analysis, and for projecting said curved region onto the optimally oriented two-dimensional, flat image plane.
A coating composition comprising: (a) an oxidized α-olefin having about 16 to about 40 carbon atoms, said oxidized α-olefin comprising one or more carboxylic acid groups or C1-C28 alkyl esters, such as methyl or butyl ester, of one or more of said carboxylic acids, said α-olefin having been oxidized to an Acid Number of about 10 to about 120 as measured prior to any esterification; (b) a hydrocarbon-soluble ester-containing polymer having at least one branch of about 10 to about 36 carbon atoms and having a number average molecular weight of about 5000 to about 300,000; (c) a carboxylic acid having at least 10 carbon atoms. (d) a salt of an alkylarylsulfonic acid, wherein the alkyl group thereof is of sufficient length to provide solubility of the salt in a hydrocarbon oil; (e) an oil in an amount sufficient to dissolve said salt; and (f) optionally, a volatile diluent. (a) an oxidized α-olefin having about 16 to about 40 carbon atoms, said oxidized α-olefin comprising one or more carboxylic acid groups or C1-C28 alkyl esters, such as methyl or butyl ester, of one or more of said carboxylic acids, said α-olefin having been oxidized to an Acid Number of about 10 to about 120 as measured prior to any esterification; (b) a hydrocarbon-soluble ester-containing polymer having at least one branch of about 10 to about 36 carbon atoms and having a number average molecular weight of about 5000 to about 300,000; (c) a carboxylic acid having at least 10 carbon atoms. (d) a salt of an alkylarylsulfonic acid, wherein the alkyl group thereof is of sufficient length to provide solubility of the salt in a hydrocarbon oil; (e) an oil in an amount sufficient to dissolve said salt; and (f) optionally, a volatile diluent.
A leaf filter bag for a leaf of a pressure leaf filter , the leaf filter bag comprising: - a first sheet portion , and - a second sheet portion , wherein the first sheet portion is adjacent to the second sheet portion and the adjacent sheet portions comprise o a first edge , a second edge and a third edge so that the first sheet portion is connected to the second sheet portion at the first edge , the second edge and the third edge , and ∘ one openable and closable edge having at least an open position and a closed position, which openable and closable edge allows inserting a frame of the leaf into the leaf filter bag through an opening formed by the openable and closable edge in the open position, wherein the leaf filter bag further comprises a closure characterized in that the closure comprises both: 1) a zipper at the openable and closable edge for closing the openable and closable edge , wherein the zipper is preferably placed along the length of the openable and closable edge of the leaf filter bag , and 2) a hook-and-loop fastener , which hook-and-loop fastener is preferably fixed to the filter bag along the length of the openable and closable edge . - a first sheet portion , and - a second sheet portion , wherein the first sheet portion is adjacent to the second sheet portion and the adjacent sheet portions comprise o a first edge , a second edge and a third edge so that the first sheet portion is connected to the second sheet portion at the first edge , the second edge and the third edge , and ∘ one openable and closable edge having at least an open position and a closed position, which openable and closable edge allows inserting a frame of the leaf into the leaf filter bag through an opening formed by the openable and closable edge in the open position, o a first edge , a second edge and a third edge so that the first sheet portion is connected to the second sheet portion at the first edge , the second edge and the third edge , and ∘ one openable and closable edge having at least an open position and a closed position, which openable and closable edge allows inserting a frame of the leaf into the leaf filter bag through an opening formed by the openable and closable edge in the open position, wherein the leaf filter bag further comprises a closure characterized in that the closure comprises both: 1) a zipper at the openable and closable edge for closing the openable and closable edge , wherein the zipper is preferably placed along the length of the openable and closable edge of the leaf filter bag , and 2) a hook-and-loop fastener , which hook-and-loop fastener is preferably fixed to the filter bag along the length of the openable and closable edge . 1) a zipper at the openable and closable edge for closing the openable and closable edge , wherein the zipper is preferably placed along the length of the openable and closable edge of the leaf filter bag , and 2) a hook-and-loop fastener , which hook-and-loop fastener is preferably fixed to the filter bag along the length of the openable and closable edge .
A method performed by a second combined Session Management Function, SMF, / Packet Data Network Gateway-Control Plane ,PGW-C, node for interworking between a 4G Evolved Packet Network, EPC, and a 5G Core, the method comprising: - receiving (3-12), at the second combined SMF/PGW-C node from a first combined SMF/PGW-C node, a request to create a session for a UE for a particular Access Point Name, APN, / Data Network Name, DNN, the request comprising information that enables or otherwise causes the second combined SMF/PGW-C node to send the response to an originating node of the request wherein the originating node is a Mobility Management Entity, MME, node from which the first combined SMF/PGW-C node received the request; and the method characterised by , - sending (3-13), to the originating node, a response to the request, wherein the response comprises a fully qualified domain name, FQDN, of the second combined SMF/PGW-C node. - receiving (3-12), at the second combined SMF/PGW-C node from a first combined SMF/PGW-C node, a request to create a session for a UE for a particular Access Point Name, APN, / Data Network Name, DNN, the request comprising information that enables or otherwise causes the second combined SMF/PGW-C node to send the response to an originating node of the request wherein the originating node is a Mobility Management Entity, MME, node from which the first combined SMF/PGW-C node received the request; and the method characterised by , - sending (3-13), to the originating node, a response to the request, wherein the response comprises a fully qualified domain name, FQDN, of the second combined SMF/PGW-C node.
A method in a network switch, comprising : receiving a packet comprising a source Media Access Control address, called MAC address, and a Virtual Local Area Network Identifier, called VLAN Identifier, wherein the VLAN Identifier corresponds to a VLAN that is not pre-configured on the network switch, and wherein the VLAN Identifier is in the received packet within a customer VLAN Identifier tag, called CVID tag; in response to receiving the packet, modifying the packet received to include a second VLAN tag, distinct from the CVID tag; determining no forwarding database entry exists for the modified packet; and dynamically creating the VLAN on the network switch to handle received packets that include the CVID tag. receiving a packet comprising a source Media Access Control address, called MAC address, and a Virtual Local Area Network Identifier, called VLAN Identifier, wherein the VLAN Identifier corresponds to a VLAN that is not pre-configured on the network switch, and wherein the VLAN Identifier is in the received packet within a customer VLAN Identifier tag, called CVID tag; in response to receiving the packet, modifying the packet received to include a second VLAN tag, distinct from the CVID tag; determining no forwarding database entry exists for the modified packet; and dynamically creating the VLAN on the network switch to handle received packets that include the CVID tag.