mhurhangee/patent-ind-claim-en huggingface dataset:
A process for developing a method of operating a liquid chromatography device for separating a fluidic sample using a mobile phase, wherein the process comprises: executing a scouting method for separating a fluidic sample by controlling a set of controlled parameters ( C) during the execution of the scouting method , wherein non-controlled parameters ( Q ) are allowed to freely vary during the execution of the scouting method ; registering a course of at least one non-controlled parameter (Q i ) during the execution of the scouting method , the time dependence or development of the value over time of the non-controlled parameter (Q i ) being detected and stored; defining a modified method for separating a fluidic sample derived from the scouting method by changing the set of controlled parameters ( C ) and declaring the previously registered non-controlled parameter (Q i ) as a new controlled parameter in the modified method ; executing the modified method under application of the registered course of the parameter (Q i ) as execution program for this parameter (Q i ) in the role of new controlled parameter; characterized in that the scouting method is executed with a flow rate of at least a part of the mobile phase being part of the set of originally non-controlled parameters ( Q ); and in that the modified method is executed with the flow rate being the new controlled parameter. executing a scouting method for separating a fluidic sample by controlling a set of controlled parameters ( C) during the execution of the scouting method , wherein non-controlled parameters ( Q ) are allowed to freely vary during the execution of the scouting method ; registering a course of at least one non-controlled parameter (Q i ) during the execution of the scouting method , the time dependence or development of the value over time of the non-controlled parameter (Q i ) being detected and stored; defining a modified method for separating a fluidic sample derived from the scouting method by changing the set of controlled parameters ( C ) and declaring the previously registered non-controlled parameter (Q i ) as a new controlled parameter in the modified method ; executing the modified method under application of the registered course of the parameter (Q i ) as execution program for this parameter (Q i ) in the role of new controlled parameter; characterized in that the scouting method is executed with a flow rate of at least a part of the mobile phase being part of the set of originally non-controlled parameters ( Q ); and in that the modified method is executed with the flow rate being the new controlled parameter.
An anvil delivery system comprising: a delivery assembly ; an anvil assembly selectively securable to the delivery assembly , the anvil assembly including: a center rod assembly ; a head assembly pivotally secured to the anvil center rod about a pivot axis and movable between a first tilted position, an operative position, and a second tilted position, the head assembly including a housing , a cutting ring , and an anvil plate , the housing defining at least one throughbore passing through the housing and between the cutting ring and the anvil plate ; a retaining suture (S1) selectively secured between the head assembly and the delivery assembly for retaining the head assembly in the first tilted position; and a retrieval suture (S2) having first and second ends (S2a, S2b), at least one end (S2a, S2b) extending distally from the anvil assembly , wherein first and second ends (S2a, S2b) are received through the throughbore of the housing , or wherein a first end (S2a, S2b) is received through the throughbore and a second end (S2a, S2b) is received through a second throughbore passing through the housing and between the cutting ring and the anvil plate . a delivery assembly ; an anvil assembly selectively securable to the delivery assembly , the anvil assembly including: a center rod assembly ; a head assembly pivotally secured to the anvil center rod about a pivot axis and movable between a first tilted position, an operative position, and a second tilted position, the head assembly including a housing , a cutting ring , and an anvil plate , the housing defining at least one throughbore passing through the housing and between the cutting ring and the anvil plate ; a center rod assembly ; a head assembly pivotally secured to the anvil center rod about a pivot axis and movable between a first tilted position, an operative position, and a second tilted position, the head assembly including a housing , a cutting ring , and an anvil plate , the housing defining at least one throughbore passing through the housing and between the cutting ring and the anvil plate ; a retaining suture (S1) selectively secured between the head assembly and the delivery assembly for retaining the head assembly in the first tilted position; and a retrieval suture (S2) having first and second ends (S2a, S2b), at least one end (S2a, S2b) extending distally from the anvil assembly , wherein first and second ends (S2a, S2b) are received through the throughbore of the housing , or wherein a first end (S2a, S2b) is received through the throughbore and a second end (S2a, S2b) is received through a second throughbore passing through the housing and between the cutting ring and the anvil plate .
A method for generating a customized AI machine-learning model to perform tasks using artificial intelligence, comprising: providing, by one or more computing systems and to a client system of a user, a user interface for display, the user interface comprising a first set of options for selecting an artificial intelligence - AI - task for integration into a user application, a second set of options for selecting one or more devices on which the user wants to deploy the selected AI task, and a third set of options for selecting one or more performance constraints specific to the selected devices; receiving, by the one or more computing systems and from the client system of the user, user specifications based on user selections in the first set of options, the second set of options, and the third set of options; generating, by the one or more computing systems, a custom AI model based on the user specifications; and sending, by the one or more computing systems and to the client system of the user, the custom AI model for integrating into the user application, wherein the custom AI model once integrated enables the user application to perform the selected AI task on the selected devices. providing, by one or more computing systems and to a client system of a user, a user interface for display, the user interface comprising a first set of options for selecting an artificial intelligence - AI - task for integration into a user application, a second set of options for selecting one or more devices on which the user wants to deploy the selected AI task, and a third set of options for selecting one or more performance constraints specific to the selected devices; receiving, by the one or more computing systems and from the client system of the user, user specifications based on user selections in the first set of options, the second set of options, and the third set of options; generating, by the one or more computing systems, a custom AI model based on the user specifications; and sending, by the one or more computing systems and to the client system of the user, the custom AI model for integrating into the user application, wherein the custom AI model once integrated enables the user application to perform the selected AI task on the selected devices.
A drive system comprising: a motor unit which has a data acquisition unit , a motor control which is connected to the motor unit via a motor cable , and at least one peripheral device , wherein the data acquisition unit is configured: to receive primary data from one or more components of the motor unit and secondary data from the at least one peripheral device , to fuse the primary data with the secondary data, to transmit the fused data to the motor control via the motor cable , to receive control and configuration data from the motor control via the motor cable , and to selectively transmit the control and configuration data to the one or more components of the motor unit and/or to the at least one peripheral device , wherein the drive system comprises at least two peripheral devices , characterized in that the data acquisition unit is configured to transmit secondary data between the at least two peripheral devices . a motor unit which has a data acquisition unit , a motor control which is connected to the motor unit via a motor cable , and at least one peripheral device , wherein the data acquisition unit is configured: to receive primary data from one or more components of the motor unit and secondary data from the at least one peripheral device , to fuse the primary data with the secondary data, to transmit the fused data to the motor control via the motor cable , to receive control and configuration data from the motor control via the motor cable , and to selectively transmit the control and configuration data to the one or more components of the motor unit and/or to the at least one peripheral device , to receive primary data from one or more components of the motor unit and secondary data from the at least one peripheral device , to fuse the primary data with the secondary data, to transmit the fused data to the motor control via the motor cable , to receive control and configuration data from the motor control via the motor cable , and to selectively transmit the control and configuration data to the one or more components of the motor unit and/or to the at least one peripheral device , wherein the drive system comprises at least two peripheral devices , characterized in that the data acquisition unit is configured to transmit secondary data between the at least two peripheral devices .
A drip emitter comprising a frame , preferably a plastic frame, and a membrane , preferably an elastomeric membrane, both formed by injection molding, wherein the frame and membrane being attached to each other, characterised in that the frame comprises a periphery bounding and surrounding the membrane, and the membrane comprises a regulating part configured to overlay a regulating chamber of the emitter in an assembled state of the emitter, and an area A1 of the regulating part and an area A2 of the membrane bound within the periphery satisfies a relation of about 0.7 ≤ A1/A2 ≤ 0.95; preferably about 0.7 ≤ A1/A2 ≤ 0.9.
A delivery apparatus configured to provide visual feedback of radial expansion of a prosthetic valve , the delivery apparatus comprising: a first portion configured to maintain a fixed spatial relationship relative to a first end of the prosthetic valve and a second portion configured to maintain a fixed spatial relationship relative to a second end of the prosthetic valve during radial expansion of the prosthetic valve ; wherein the first portion comprises one or more reference radiopaque markers and the second portion comprises an indicator radiopaque marker , wherein a position of the indicator radiopaque marker relative to the one or more reference radiopaque markers measures an axial distance between the first and second ends of the prosthetic valve indicative of a corresponding diameter of the prosthetic valve as it is radially expanded from a radially compressed state to a radially expanded state. a first portion configured to maintain a fixed spatial relationship relative to a first end of the prosthetic valve and a second portion configured to maintain a fixed spatial relationship relative to a second end of the prosthetic valve during radial expansion of the prosthetic valve ; wherein the first portion comprises one or more reference radiopaque markers and the second portion comprises an indicator radiopaque marker , wherein a position of the indicator radiopaque marker relative to the one or more reference radiopaque markers measures an axial distance between the first and second ends of the prosthetic valve indicative of a corresponding diameter of the prosthetic valve as it is radially expanded from a radially compressed state to a radially expanded state.
Method of heat treatment of natural clays and/or zeolites, wherein the clay and/or the zeolite is calcined under reducing conditions in the calcining zone in an entrained flow calciner or a fluidized bed within a temperature range from 600 to 1050°C, wherein a reduction of reddish-colored trivalent iron to divalent iron takes place under reducing conditions during the calcination and the clay and/or zeolite calcined under reducing conditions is then cooled down in a cooling zone .
A protective film for a foldable display comprising: an adhesive layer; a protective substrate provided on a surface of the adhesive layer; and a first hard coating layer provided on an opposite surface to the surface of the protective substrate in contact with the adhesive layer, a second hard coating layer between the adhesive layer and the protective substrate, wherein the protective substrate has a thickness of 10 μm or more and 150 μm or less, and an adhesive force measured at 23°C and 50 RH% after bonding a PI substrate to an opposite surface to the surface of the adhesive layer in contact with the protective substrate is 10 gf/inch or more. an adhesive layer; a protective substrate provided on a surface of the adhesive layer; and a first hard coating layer provided on an opposite surface to the surface of the protective substrate in contact with the adhesive layer, a second hard coating layer between the adhesive layer and the protective substrate, wherein the protective substrate has a thickness of 10 μm or more and 150 μm or less, and an adhesive force measured at 23°C and 50 RH% after bonding a PI substrate to an opposite surface to the surface of the adhesive layer in contact with the protective substrate is 10 gf/inch or more.
A system comprising: an aerial vehicle , wherein the aerial vehicle comprises a fuselage, a power sink, and a charging terminal ventral to the fuselage, wherein the charging terminal comprises a plurality of electric contacts; and a landing pad , wherein the landing pad comprises a housing , and an electrically conductive landing terminal dorsal to the housing, the landing terminal comprising: a first set of nodes, wherein the first set of nodes comprises a plurality of positive nodes; a second set of nodes, wherein the second set of nodes comprises a plurality of negative nodes; and a non-conductive space, wherein the first set of nodes and the second set of nodes are arranged in parallel strips or as a checkerboard of tiles, wherein the first set of nodes, the second set of nodes, and the non-conductive space are configured such that the positive nodes and negative nodes alternate , characterised in that for any pose of the aerial vehicle during a landing state of the aerial vehicle on the landing pad, at least one electric contact of the charging terminal makes contact with a node of the first set of nodes, and at least one other electric contact of the charging terminal makes contact with a node of the second set of nodes, and wherein the landing terminal is configured to transfer electric power to the aerial vehicle via the electric contacts. an aerial vehicle , wherein the aerial vehicle comprises a fuselage, a power sink, and a charging terminal ventral to the fuselage, wherein the charging terminal comprises a plurality of electric contacts; and a landing pad , wherein the landing pad comprises a housing , and an electrically conductive landing terminal dorsal to the housing, the landing terminal comprising: a first set of nodes, wherein the first set of nodes comprises a plurality of positive nodes; a second set of nodes, wherein the second set of nodes comprises a plurality of negative nodes; and a non-conductive space, a first set of nodes, wherein the first set of nodes comprises a plurality of positive nodes; a second set of nodes, wherein the second set of nodes comprises a plurality of negative nodes; and a non-conductive space, wherein the first set of nodes and the second set of nodes are arranged in parallel strips or as a checkerboard of tiles, wherein the first set of nodes, the second set of nodes, and the non-conductive space are configured such that the positive nodes and negative nodes alternate , characterised in that for any pose of the aerial vehicle during a landing state of the aerial vehicle on the landing pad, at least one electric contact of the charging terminal makes contact with a node of the first set of nodes, and at least one other electric contact of the charging terminal makes contact with a node of the second set of nodes, and wherein the landing terminal is configured to transfer electric power to the aerial vehicle via the electric contacts.
A method for removing dissolved organic compounds from wastewater originating from pulp and/or paper mill, characterized in that - obtaining wastewater from pulp and/or paper mill comprising organic dissolved compounds, - adding a coagulant to wastewater to precipitate organic dissolved compounds after biological treatment step of the wastewater and prior to tertiary treatment, - removing precipitated organic substances from the wastewater and forming organic sludge, wherein the coagulant comprises the treatment system comprising - a water-soluble cationic polymer, which comprises synthetic cationic polymer and/or bio-based cationic polymer, - wood-based organic material in a form of powder, flakes, chips, sticks and/or other particles having an average particle size < 10 mm, and - Al and/or Fe based inorganic metal coagulant, wherein the treatment system comprises the Al and/or Fe based inorganic metal coagulant and a combination of wood-based organic material and the cationic polymer in a weight ratio of 4:1 - 1:10. - obtaining wastewater from pulp and/or paper mill comprising organic dissolved compounds, - adding a coagulant to wastewater to precipitate organic dissolved compounds after biological treatment step of the wastewater and prior to tertiary treatment, - removing precipitated organic substances from the wastewater and forming organic sludge, wherein the coagulant comprises the treatment system comprising - a water-soluble cationic polymer, which comprises synthetic cationic polymer and/or bio-based cationic polymer, - wood-based organic material in a form of powder, flakes, chips, sticks and/or other particles having an average particle size < 10 mm, and - Al and/or Fe based inorganic metal coagulant, - a water-soluble cationic polymer, which comprises synthetic cationic polymer and/or bio-based cationic polymer, - wood-based organic material in a form of powder, flakes, chips, sticks and/or other particles having an average particle size < 10 mm, and - Al and/or Fe based inorganic metal coagulant, wherein the treatment system comprises the Al and/or Fe based inorganic metal coagulant and a combination of wood-based organic material and the cationic polymer in a weight ratio of 4:1 - 1:10.
A solar tracking system (100; 200) comprising: multiple rows of solar panel modules (110A-110D) forming a grid of solar panel modules, wherein the multiple rows of solar panel modules (110A-110D) are orientatable to a solar source independently of each other; and a control system configured to orient each of the multiple rows of solar panel modules (110A-110D) to the solar source independently of each other based on a performance model to optimize an energy output from the grid of solar panel modules, characterized in that the performance model predicts an energy output from the grid of solar panel modules based on an orientation of each of the multiple rows of solar panel modules (110A-110D) to the solar source and first data comprising weather conditions local to each of the multiple rows of solar panel modules (110A-110D) and a predicted amount of irradiance upon each of the multiple rows of solar panel modules (110A-110D), wherein the amount of irradiance is a function of a diffuse horizontal irradiance, DHI, to global horizontal irradiance, GHI, ratio. multiple rows of solar panel modules (110A-110D) forming a grid of solar panel modules, wherein the multiple rows of solar panel modules (110A-110D) are orientatable to a solar source independently of each other; and a control system configured to orient each of the multiple rows of solar panel modules (110A-110D) to the solar source independently of each other based on a performance model to optimize an energy output from the grid of solar panel modules, characterized in that
A fan comprising: - a fan rotor having a plurality of slots, with the slots each receiving a fan blade, - the fan blades comprising: a radially inner dovetail supporting a radially outer airfoil; and the dovetail having a radial thickness which is less in a circumferentially central portion of the dovetail than circumferentially opposing outer edges ; characterized in that the fan further comprises a spacer configured to be disposed radially between a radial inner surface of the dovetail and a rotor , wherein the spacer includes a radial outer surface matching a contour of at least a portion of the radial inner surface of the dovetail ; wherein the radial inner surface has a single concave shape; wherein the spacer includes opposed planar sidewalls that slope inwardly from the radial outer surface toward a convex radially inner surface opposed to the radially outer surface such that the radial outer surface extends outwardly of the radially inner surface of the dovetail. - a fan rotor having a plurality of slots, with the slots each receiving a fan blade, - the fan blades comprising: a radially inner dovetail supporting a radially outer airfoil; and the dovetail having a radial thickness which is less in a circumferentially central portion of the dovetail than circumferentially opposing outer edges ; characterized in that the fan further comprises a spacer configured to be disposed radially between a radial inner surface of the dovetail and a rotor , wherein the spacer includes a radial outer surface matching a contour of at least a portion of the radial inner surface of the dovetail ; wherein the radial inner surface has a single concave shape; wherein the spacer includes opposed planar sidewalls that slope inwardly from the radial outer surface toward a convex radially inner surface opposed to the radially outer surface such that the radial outer surface extends outwardly of the radially inner surface of the dovetail. a radially inner dovetail supporting a radially outer airfoil; and the dovetail having a radial thickness which is less in a circumferentially central portion of the dovetail than circumferentially opposing outer edges ; characterized in that the fan further comprises a spacer configured to be disposed radially between a radial inner surface of the dovetail and a rotor , wherein the spacer includes a radial outer surface matching a contour of at least a portion of the radial inner surface of the dovetail ; wherein the radial inner surface has a single concave shape; wherein the spacer includes opposed planar sidewalls that slope inwardly from the radial outer surface toward a convex radially inner surface opposed to the radially outer surface such that the radial outer surface extends outwardly of the radially inner surface of the dovetail.