mhurhangee/patent-ind-claim-en huggingface dataset:
A semi-autonomous processing system for processing objects, said semi-autonomous processing system comprising: a processing station ; an input conveyance system for moving objects to the processing station that includes a presentation area ; an identification system including perception units that are directed toward the presentation area for providing perception data regarding an object in the presentation area; at least two transport systems , each of which is adapted to receive the object and move the object in either of reciprocal directions; and a manual workstation area between the perception area and the at least two transport systems ; characterised in that : the manual workstation area includes a movable chair ; and the movable chair is actively moved to turn toward a designated chute that leads to one of the at least two transport systems responsive to the perception data from at least one of the perception units that is representative of an identity of the object. a processing station ; an input conveyance system for moving objects to the processing station that includes a presentation area ; an identification system including perception units that are directed toward the presentation area for providing perception data regarding an object in the presentation area; at least two transport systems , each of which is adapted to receive the object and move the object in either of reciprocal directions; and a manual workstation area between the perception area and the at least two transport systems ; characterised in that : the manual workstation area includes a movable chair ; and the movable chair is actively moved to turn toward a designated chute that leads to one of the at least two transport systems responsive to the perception data from at least one of the perception units that is representative of an identity of the object. the manual workstation area includes a movable chair ; and the movable chair is actively moved to turn toward a designated chute that leads to one of the at least two transport systems responsive to the perception data from at least one of the perception units that is representative of an identity of the object.
A system for manufacturing by electrospinning a composite fibre structure; wherein the system comprises: • a first device of solution electrospinning comprising ∘ a first head with a first nozzle, the first head being configured to be biased to a first voltage, and ∘ a pump in fluid communication with such first head; • a second device of melt electrospinning comprising ∘ a second head with a second nozzle, the second head configured to be electrically connected to ground, and ∘ heating means and an extruder in fluid communication with such second head; • a collector arranged spaced apart from the first and second heads, wherein the collector is configured to be either electrically connected to ground or biased to a second voltage; and • switching means configured to selectively assign the electrical status of the collector so that: ∘ when the first device is operating, the collector is electrically connected to ground so that there is a first voltage difference between the first head and the collector; and ∘ when the second device is operating, the collector is biased to a second voltage so that there is a second voltage difference between the second head and the collector. • a first device of solution electrospinning comprising ∘ a first head with a first nozzle, the first head being configured to be biased to a first voltage, and ∘ a pump in fluid communication with such first head; ∘ a first head with a first nozzle, the first head being configured to be biased to a first voltage, and ∘ a pump in fluid communication with such first head; • a second device of melt electrospinning comprising ∘ a second head with a second nozzle, the second head configured to be electrically connected to ground, and ∘ heating means and an extruder in fluid communication with such second head; ∘ a second head with a second nozzle, the second head configured to be electrically connected to ground, and ∘ heating means and an extruder in fluid communication with such second head; • a collector arranged spaced apart from the first and second heads, wherein the collector is configured to be either electrically connected to ground or biased to a second voltage; and • switching means configured to selectively assign the electrical status of the collector so that: ∘ when the first device is operating, the collector is electrically connected to ground so that there is a first voltage difference between the first head and the collector; and ∘ when the second device is operating, the collector is biased to a second voltage so that there is a second voltage difference between the second head and the collector. ∘ when the first device is operating, the collector is electrically connected to ground so that there is a first voltage difference between the first head and the collector; and ∘ when the second device is operating, the collector is biased to a second voltage so that there is a second voltage difference between the second head and the collector.
A laser cutting nozzle comprising: an inner nozzle that exhibits a tube shape having a through hole on an axis (CL1) and having a diameter decreasing on a first end portion side and includes a notch (1a1-1a3) extending in the axis direction along an outer peripheral surface (1b1) on a second end portion side; and an outer nozzle that is fitted to the outer peripheral surface (1b1) of the inner nozzle and includes a vent passage (GR) including the notch (1a1-1a3) and communicating between the first end portion and the second end portion in the axis direction, wherein a minimum flow cross-sectional area (Smin) of the vent passage (GR) matches an opening area of the notch (1a1-1a3) in an end surface on the second end portion side, characterized in that an upper end surface and a lower end surface of the inner nozzle in the nozzle are positioned on substantially the same surfaces, namely the same axial positions, as the upper end surface and the lower end surface of the outer nozzle , respectively. an inner nozzle that exhibits a tube shape having a through hole on an axis (CL1) and having a diameter decreasing on a first end portion side and includes a notch (1a1-1a3) extending in the axis direction along an outer peripheral surface (1b1) on a second end portion side; and an outer nozzle that is fitted to the outer peripheral surface (1b1) of the inner nozzle and includes a vent passage (GR) including the notch (1a1-1a3) and communicating between the first end portion and the second end portion in the axis direction, wherein a minimum flow cross-sectional area (Smin) of the vent passage (GR) matches an opening area of the notch (1a1-1a3) in an end surface on the second end portion side, characterized in that an upper end surface and a lower end surface of the inner nozzle in the nozzle are positioned on substantially the same surfaces, namely the same axial positions, as the upper end surface and the lower end surface of the outer nozzle , respectively.
A computer-implemented method for performing a backup operation of data by a deduplication backup storage system having a landing zone memory configured to receive backup data from a backup application, the method comprising: receiving, at the deduplication backup storage system, a synthetic full backup of a data file, the synthetic full backup of the data file combines data from a previous full backup of the data file and one or more subsequent incremental backups of the data file into a single file; performing a partial re-synthesis of the synthetic full backup of the data file, the partial re-synthesis of the synthetic full backup of the data file merges a latest synthetic full backup of the data file with the previous incremental backups of the data file; determining a total size of the partial re-synthesized backup of the data file and the received synthetic full backup; computing a size of a complete re-synthesis of the synthetic full backup of the data file; determining whether the total size of data in partial re-synthesized backup of the data file and received synthetic full backup of the data file is greater than the computed size of the complete re-synthesis of the synthetic full backup of the data file; and performing the complete re-synthesis of the synthetic full backup of the data file when the determined total size exceeds the computed size of the complete re-synthesis of the synthetic full backup of the data file. receiving, at the deduplication backup storage system, a synthetic full backup of a data file, the synthetic full backup of the data file combines data from a previous full backup of the data file and one or more subsequent incremental backups of the data file into a single file; performing a partial re-synthesis of the synthetic full backup of the data file, the partial re-synthesis of the synthetic full backup of the data file merges a latest synthetic full backup of the data file with the previous incremental backups of the data file; determining a total size of the partial re-synthesized backup of the data file and the received synthetic full backup; computing a size of a complete re-synthesis of the synthetic full backup of the data file; determining whether the total size of data in partial re-synthesized backup of the data file and received synthetic full backup of the data file is greater than the computed size of the complete re-synthesis of the synthetic full backup of the data file; and performing the complete re-synthesis of the synthetic full backup of the data file when the determined total size exceeds the computed size of the complete re-synthesis of the synthetic full backup of the data file.
A flow rate measurement device configured to measure a flow rate of purge gas in a purge device configured to supply the purge gas to a container including a bottom lid configured to be attached to and detached from a container body , the flow rate measurement device comprising: a base on which a flow-rate measurer is mounted; an engaged part provided in the base and configured to be engaged with the bottom lid ; and a flow passage through which the purge gas injected from an injection port of the bottom lid is circulated to the flow-rate measurer when the engaged part is engaged with the bottom lid . a base on which a flow-rate measurer is mounted; an engaged part provided in the base and configured to be engaged with the bottom lid ; and a flow passage through which the purge gas injected from an injection port of the bottom lid is circulated to the flow-rate measurer when the engaged part is engaged with the bottom lid .
An inertial particle separator comprising: a body with an outer wall , an inlet disposed on an upstream end of the body ; an outlet disposed on a downstream end of the body ; an inner nozzle disposed radially inward from the outer wall , the inner nozzle forming a primary flow passage ; a settling chamber disposed in the body and extending between the outer wall and the inner nozzle , the settling chamber forming a secondary flow passage , wherein the settling chamber is fluidly connected to the inlet and the outlet ; a serpentine channel disposed radially between the outer wall of the body and the inner nozzle , wherein the serpentine channel fluidly connects the inlet and the settling chamber ; an ejector disposed on a downstream end of the inner nozzle , wherein the ejector forms an annular passageway that fluidly connects the secondary flow passage with the primary flow passage ; and characterized by a filter element disposed in the settling chamber . a body with an outer wall , an inlet disposed on an upstream end of the body ; an outlet disposed on a downstream end of the body ; an inner nozzle disposed radially inward from the outer wall , the inner nozzle forming a primary flow passage ; a settling chamber disposed in the body and extending between the outer wall and the inner nozzle , the settling chamber forming a secondary flow passage , wherein the settling chamber is fluidly connected to the inlet and the outlet ; a serpentine channel disposed radially between the outer wall of the body and the inner nozzle , wherein the serpentine channel fluidly connects the inlet and the settling chamber ; an ejector disposed on a downstream end of the inner nozzle , wherein the ejector forms an annular passageway that fluidly connects the secondary flow passage with the primary flow passage ; and characterized by a filter element disposed in the settling chamber .
A device for continuous analysis of the concentration of dissolved inorganic carbon (DIC) and of the isotopic carbon and oxygen compositions thereof in a liquid sample, said device comprising: - a plurality of reservoirs, each comprising a fluid; - an assembly of tubes, each connected to a reservoir , , each containing a fluid, and connected to a pump positioned downstream of said tubes; - a mixing chamber positioned downstream of the pump , said mixing chamber making it possible to dynamically mix the fluids conveyed via the pump ; - a reaction loop positioned downstream of the mixing chamber , said reaction loop making it possible to convert the DIC into CO 2 gas according to an acid-base reaction; - a separation chamber positioned downstream of the reaction loop , said separation chamber also being connected to a vector-gas cylinder containing CO 2 -free vector gas; - a pressure regulator and a control unit positioned between the vector-gas cylinder and the separation chamber and which control the flow of vector gas sent from the vector-gas cylinder into the separation chamber for capturing the CO 2 produced in the reaction loop ; - a waste reservoir positioned downstream of the separation chamber for recovering, via the pump , the degassed residual fluids; - a water- and particle-trap positioned downstream of the separation chamber; - optionally, an open-split positioned between the separation chamber and the water- and particle-trap in order to adjust the flows; - a detection system of the concentration of dissolved inorganic carbon (DIC) and of the isotopic carbon and oxygen compositions thereof, positioned downstream of the water- and particle-trap . - a plurality of reservoirs, each comprising a fluid; - an assembly of tubes, each connected to a reservoir , , each containing a fluid, and connected to a pump positioned downstream of said tubes; - a mixing chamber positioned downstream of the pump , said mixing chamber making it possible to dynamically mix the fluids conveyed via the pump ; - a reaction loop positioned downstream of the mixing chamber , said reaction loop making it possible to convert the DIC into CO 2 gas according to an acid-base reaction; - a separation chamber positioned downstream of the reaction loop , said separation chamber also being connected to a vector-gas cylinder containing CO 2 -free vector gas; - a pressure regulator and a control unit positioned between the vector-gas cylinder and the separation chamber and which control the flow of vector gas sent from the vector-gas cylinder into the separation chamber for capturing the CO 2 produced in the reaction loop ; - a waste reservoir positioned downstream of the separation chamber for recovering, via the pump , the degassed residual fluids; - a water- and particle-trap positioned downstream of the separation chamber; - optionally, an open-split positioned between the separation chamber and the water- and particle-trap in order to adjust the flows; - a detection system of the concentration of dissolved inorganic carbon (DIC) and of the isotopic carbon and oxygen compositions thereof, positioned downstream of the water- and particle-trap .
A glass laminate comprising: a plurality of glass sheets ; a foamable interlayer comprising a hydrous alkaline silicate and disposed between two glass sheets selected from the plurality of glass sheets; and an ultraviolet-absorbing layer , wherein the ultraviolet-absorbing layer is disposed between one of two outermost glass sheets of the plurality of glass sheets and the foamable interlayer , wherein an ultraviolet-absorbing component in the form of fine particles is dispersed in the ultraviolet-absorbing layer , and the ultraviolet-absorbing layer has a light transmittance of less than 50% at a wavelength of 380 nm, as measured in the description. a plurality of glass sheets ; a foamable interlayer comprising a hydrous alkaline silicate and disposed between two glass sheets selected from the plurality of glass sheets; and an ultraviolet-absorbing layer , wherein the ultraviolet-absorbing layer is disposed between one of two outermost glass sheets of the plurality of glass sheets and the foamable interlayer , wherein an ultraviolet-absorbing component in the form of fine particles is dispersed in the ultraviolet-absorbing layer , and the ultraviolet-absorbing layer has a light transmittance of less than 50% at a wavelength of 380 nm, as measured in the description.
Fuel injector for an internal combustion engine, the injector extending along a main axis (X) and comprising - an overmoulded coil assembly provided with an axial blind hole extending towards the inside of the coil assembly , - a helical spring axially compressed in the blind hole between a pin and a stem passing through a magnetic armature , characterized in that the winding diameter (D30) of a first turn of the spring in contact with the stem passing through the magnetic armature is smaller than the winding diameter (D36) of the central portion of turns of the spring , wherein the first turn is curved inwards by an angular length (A) equal to the last 270°. - an overmoulded coil assembly provided with an axial blind hole extending towards the inside of the coil assembly , - a helical spring axially compressed in the blind hole between a pin and a stem passing through a magnetic armature ,
A computer system for network validation of information, comprising: a server and a plurality of clients connected via a network , wherein the server comprises: at least one processor configured to carry out the method of claim 2, and a memory coupled to the at least one processor and configured to provide the at least one processor with instructions. at least one processor configured to carry out the method of claim 2, and a memory coupled to the at least one processor and configured to provide the at least one processor with instructions.
A process for the production of a polyazole with an inherent viscosity of more than 2.9 dL/g, wherein the inherent viscosity is measured in at least 96 % sulphuric acid at 25 °C and at a concentration of 100 mg of polymer dried for 2h at 160 °C in 100 ml of at least 96 % sulphuric acid, wherein the process comprises the steps of i) mixing one or more aromatic tetraamino compounds with one or more aromatic carboxylic acids or esters thereof which contain at least two acid groups per carboxylic acid monomer, or mixing one or more aromatic and/or heteroaromatic diaminocarboxylic acids, in polyphosphoric acid in order to form a solution and/or dispersion ii) heating the mixture from step i) under inert gas to temperatures up to 350 °C in order to form the polyazole, characterized in that ▪ in step ii), a mixture is heated which has a concentration of polyphosphoric acid, calculated as P 2 O 5 (by acidimetric means), with respect to the total quantity of H 3 PO 4 , polyphosphoric acid and water in the mixture, or more than 81.85 %, ▪ the quantities of the components in step i) are selected in a manner such that the proportion by weight of the tetraamino compounds and of the aromatic carboxylic acids or esters thereof which comprise at least two acid groups per carboxylic acid monomer, or of the diaminocarboxylic acids of the mixture in step ii), with respect to the total weight of the mixture, is less than 11.0 % by weight, ▪ the reaction mixture in step ii) is heated to more than 220 °C. i) mixing one or more aromatic tetraamino compounds with one or more aromatic carboxylic acids or esters thereof which contain at least two acid groups per carboxylic acid monomer, or mixing one or more aromatic and/or heteroaromatic diaminocarboxylic acids, in polyphosphoric acid in order to form a solution and/or dispersion ii) heating the mixture from step i) under inert gas to temperatures up to 350 °C in order to form the polyazole, ▪ in step ii), a mixture is heated which has a concentration of polyphosphoric acid, calculated as P 2 O 5 (by acidimetric means), with respect to the total quantity of H 3 PO 4 , polyphosphoric acid and water in the mixture, or more than 81.85 %, ▪ the quantities of the components in step i) are selected in a manner such that the proportion by weight of the tetraamino compounds and of the aromatic carboxylic acids or esters thereof which comprise at least two acid groups per carboxylic acid monomer, or of the diaminocarboxylic acids of the mixture in step ii), with respect to the total weight of the mixture, is less than 11.0 % by weight, ▪ the reaction mixture in step ii) is heated to more than 220 °C.
A cover for a work vehicle that defines a housing space (R) for housing a device , comprising: a plurality of panels , each of which has a panel body having an obverse surface facing an outside of the housing space (R) and a reverse surface facing an inside of the housing space (R), the plurality of panels being arranged so that the obverse surfaces of the panel bodies are positioned on the same plane; a connecting member including a pair of abutting plates respectively abutting the reverse surfaces of a pair of the panel bodies adjacent to each other, and a connecting portion connecting the pair of abutting plates ; and a fixing member provided at an abutting portion of each of the panel bodies and the connecting member , and detachably fixing each of the panel bodies to the connecting member from the obverse surface side. a plurality of panels , each of which has a panel body having an obverse surface facing an outside of the housing space (R) and a reverse surface facing an inside of the housing space (R), the plurality of panels being arranged so that the obverse surfaces of the panel bodies are positioned on the same plane; a connecting member including a pair of abutting plates respectively abutting the reverse surfaces of a pair of the panel bodies adjacent to each other, and a connecting portion connecting the pair of abutting plates ; and a fixing member provided at an abutting portion of each of the panel bodies and the connecting member , and detachably fixing each of the panel bodies to the connecting member from the obverse surface side.