mhurhangee/patent-ind-claim-en huggingface dataset:
A remote control tail cover component , comprising a remote control device , a control unit and a tail cover ; wherein the control unit is arranged in the tail cover and is adapted to be connected with a power supply element and a light emitting element of a flashlight; wherein the control unit is adapted to be in wireless signal connection with a control element of said remote control device ; wherein the remote control device comprises a remote control shell , and said control element and a remote control battery are arranged in the remote control shell ; characterized in that the tail cover is provided with a second magnetic charging device (B) which is adapted to be matched with a first magnetic charging device (A) of said remote control device , and said remote control shell is provided with said first magnetic charging device (A) which is adapted to be electrically connected to the remote control battery via the control element ; the second magnetic charging device (B) is adapted to be connected with the power supply element via the control unit ; the second magnetic charging device (B) is adapted to come in contact with the first magnetic charging device (A), wherein in response to the first magnetic charging device (A) and the second magnetic charging device (B) coming into contact with each other, through the first magnetic charging device (A) and the second magnetic charging device (B), it is respectively implemented in different time intervals in a periodic way to charge the remote control battery by the power supply element and carry out data matching between the control unit and the control element ; the second magnetic charging device (B) comprises a second charging block (B1), a second magnetic sheet and a second wedge contact; the second magnetic sheet is fixed at an end part of the second charging block (B1); the second wedge contact is protruded on the second magnetic sheet and is adapted to be electrically connected to the control unit ; the second wedge contact is adapted to a first wedge contact (A3) of a first charging block (A1) of said first magnetic charging device (A) with said first wedge contact (A3) being adapted to be plugged in said second wedge contact; a first magnetic sheet (A2) is arranged at an end part of the first charging block (A1) of the first magnetic charging device (A) and the first wedge contact (A3) is protruded on the first magnetic sheet (A2) and is adapted to be electrically connected to the control element ; and in that in response to said fist wedge contact (A3) being plugged in said second wedge contact, the second magnetic sheet and the first magnetic sheet (A2) are attracted together magnetically to realize data matching between the control unit and the control element .
A Coriolis flow meter including first and second flow tubes , comprising: a printed circuit board , with at least a portion of the printed circuit board positioned between the first and second flow tubes ; and at least one of a driver component or a pick-off component coupled to the printed circuit board . a printed circuit board , with at least a portion of the printed circuit board positioned between the first and second flow tubes ; and at least one of a driver component or a pick-off component coupled to the printed circuit board .
A heating device, comprising a heating member , a liquid guiding member, and a base seat , wherein the heating member defines an airflow passage for airflow passing through, the liquid guiding member is configured for absorbing and/or storing e-liquid for the heating member to perform an atomizing action, both the heating member and the liquid guiding member are assembled in the base seat ; the base seat forms an air intake end and a smoke outlet end which are oppositely disposed, the smoke outlet end of the base seat forms a liquid gathering chamber, the heating member forms a smoke generating passage therein, the smoke generating passage of the heating member is in communication with the liquid gathering chamber; the liquid gathering chamber of the smoke outlet end of the base seat is a first liquid gathering chamber , the air intake end of the base seat is further provided with a second liquid gathering chamber ; characterized in that the base seat comprises a base portion , a blocking plate and a latching plate , the blocking plate and the latching plate are provided on opposite ends of the base portion , the blocking plate is detachably provided on the smoke outlet end of the base seat , the first liquid gathering chamber is formed between the blocking plate and the base portion , the second liquid gathering chamber is formed between the latching plate and the base portion , the base portion is recessed to form a liquid intake chamber, a bottom of the liquid intake chamber defines a plurality of oil guiding holes which are uniformly distributed, the plurality of oil guiding holes are in communication with the liquid guiding member. the base seat forms an air intake end and a smoke outlet end which are oppositely disposed, the smoke outlet end of the base seat forms a liquid gathering chamber, the heating member forms a smoke generating passage therein, the smoke generating passage of the heating member is in communication with the liquid gathering chamber; the liquid gathering chamber of the smoke outlet end of the base seat is a first liquid gathering chamber , the air intake end of the base seat is further provided with a second liquid gathering chamber ; characterized in that the base seat comprises a base portion , a blocking plate and a latching plate , the blocking plate and the latching plate are provided on opposite ends of the base portion , the blocking plate is detachably provided on the smoke outlet end of the base seat , the first liquid gathering chamber is formed between the blocking plate and the base portion , the second liquid gathering chamber is formed between the latching plate and the base portion , the base portion is recessed to form a liquid intake chamber, a bottom of the liquid intake chamber defines a plurality of oil guiding holes which are uniformly distributed, the plurality of oil guiding holes are in communication with the liquid guiding member.
Inner plate fixator device for the correction of severe bone malformations, of the type comprising an elongated plate in which through holes for receiving bone screws are provided, said inner plate fixator device comprising: - a plate proximal portion , structurally independent from said elongated plate and hinged to the former at one of its shaped end ; - at least a through hole to receive at least a cephalic screw in said plate proximal portion ; - locking means located in proximity of the hinge point between the elongated plate and the plate proximal portion for locking the relative angular positioning of the two plates (2, 10; 2', 10' ; 102, 110; 202, 210); - said locking means including at last a nut element abutting against a portion of the plate proximal portion thus removably linking the elongated plate and the plate proximal portion , characterized in that in that said locking means comprise an eccentric nut element active in a housing seat formed in a hinge element linking the elongated plate and the plate proximal portion . - a plate proximal portion , structurally independent from said elongated plate and hinged to the former at one of its shaped end ; - at least a through hole to receive at least a cephalic screw in said plate proximal portion ; - locking means located in proximity of the hinge point between the elongated plate and the plate proximal portion for locking the relative angular positioning of the two plates (2, 10; 2', 10' ; 102, 110; 202, 210); - said locking means including at last a nut element abutting against a portion of the plate proximal portion thus removably linking the elongated plate and the plate proximal portion ,
A directional solidification apparatus , comprising: a mold heating chamber ; a solidification chamber adjacent the mold heating chamber for solidifying molten metal comprising an air melt alloy system as the metal is withdrawn from the mold heating chamber; a baffle separating the mold heating chamber from the solidification chamber , comprising an aperture configured to conform to a portion of a mold disposed within the aperture; and a gas source in fluid communication with the mold heating chamber, wherein the gas source is configured to provide a pressurized atmosphere for directionally solidifying the metal as a cast body with single crystal or multi-crystal columnar microstructure. a mold heating chamber ; a solidification chamber adjacent the mold heating chamber for solidifying molten metal comprising an air melt alloy system as the metal is withdrawn from the mold heating chamber; a baffle separating the mold heating chamber from the solidification chamber , comprising an aperture configured to conform to a portion of a mold disposed within the aperture; and a gas source in fluid communication with the mold heating chamber, wherein the gas source is configured to provide a pressurized atmosphere for directionally solidifying the metal as a cast body with single crystal or multi-crystal columnar microstructure.
A computer implemented method for monitoring a bioprocess comprising a cell culture in a bioreactor, the method including the steps of: obtaining measurements of the amount of biomass and the amount of one or more metabolites in the bioreactor as a function of bioprocess maturity; determining one or more metabolic condition variables selected from: the specific transport rates between the cells and a culture medium in the bioreactor for some or all of the one or more metabolites as a function of bioprocess maturity, the internal concentration of one or more metabolites as a function of bioprocess maturity, and reaction rates for one or more metabolic reactions that form part of the cell's metabolism as a function of bioprocess maturity; using a pre-trained multivariate model to determine the value of one or more latent variables as a function of bioprocess maturity, wherein the multivariate model is a linear model that uses process variables including the metabolic condition variables as predictor variables; comparing the value(s) of the one or more latent variables to one or more predetermined values as a function of maturity; and determining on the basis of the comparison whether the bioprocess is operating normally. obtaining measurements of the amount of biomass and the amount of one or more metabolites in the bioreactor as a function of bioprocess maturity; determining one or more metabolic condition variables selected from: the specific transport rates between the cells and a culture medium in the bioreactor for some or all of the one or more metabolites as a function of bioprocess maturity, the internal concentration of one or more metabolites as a function of bioprocess maturity, and reaction rates for one or more metabolic reactions that form part of the cell's metabolism as a function of bioprocess maturity; using a pre-trained multivariate model to determine the value of one or more latent variables as a function of bioprocess maturity, wherein the multivariate model is a linear model that uses process variables including the metabolic condition variables as predictor variables; comparing the value(s) of the one or more latent variables to one or more predetermined values as a function of maturity; and determining on the basis of the comparison whether the bioprocess is operating normally.
A dry powder inhaler having a housing and a cover which is pivotable relative to the housing from a closed position to an open position in order to expose a mouthpiece , wherein the inhaler is designed for use with a monitor having one or more sensors but operates to dispense powder whether the monitor is present or not, characterized in that the housing has one or more formations for mounting the monitor onto the inhaler, and wherein when the cover is in the open position, it at least partially covers the formations.
A curved inflatable bone tamp comprising: an outer shaft defining a passageway ; an inner shaft positioned within the passageway , the inner shaft extending between opposite first and second ends , the inner shaft defining a lumen , the inner shaft being curved between the first end and the second end ; and a balloon having a curved configuration comprising a concave inner portion and a convex outer portion , the balloon having a first leg coupled to the outer shaft and a second leg coupled to the inner shaft such that a material (M) can flow through the lumen and into the balloon to inflate the balloon , the balloon comprising a wall having the concave inner portion and the convex outer portion , the wall having a variable thickness between the legs when the balloon is uninflated, characterized in that the concave inner portion between the legs has a first thickness (t3) when the balloon is uninflated, the convex outer portion between the legs has a second thickness (t4) when the balloon is uninflated, the second thickness (t4) is greater than the first thickness (t3); and the wall has a uniform thickness between the legs when the balloon is inflated. an outer shaft defining a passageway ; an inner shaft positioned within the passageway , the inner shaft extending between opposite first and second ends , the inner shaft defining a lumen , the inner shaft being curved between the first end and the second end ; and a balloon having a curved configuration comprising a concave inner portion and a convex outer portion , the balloon having a first leg coupled to the outer shaft and a second leg coupled to the inner shaft such that a material (M) can flow through the lumen and into the balloon to inflate the balloon , the balloon comprising a wall having the concave inner portion and the convex outer portion , the wall having a variable thickness between the legs when the balloon is uninflated,
A structured particle comprising: (a) from 20 wt% to 25 wt% of an amphiphilic graft copolymer comprising a polyethylene oxide backbone grafted with one or more side chains of polyvinyl acetate, wherein the amphiphilic graft copolymer has an average of no more than 1 graft site per 50 ethyleneoxide units and ; (b) from 40 wt% to 60 wt% of sodium carbonate particles having a particle size distribution Dw50 ranging from 70 microns to 90 microns; (c) from 15 wt% to 25 wt% of sodium sulfate particles having a particle size distribution Dw50 ranging from 180 microns to 220 microns; and (d) from 2 wt% to 4 wt% of a nonionic surfactant that is a C 8 -C 16 alkyl alkoxylated alcohol, wherein said structured particle is characterized by a particle size distribution Dw50 ranging from 250 microns to 1000 microns and a bulk density ranging from 500 to 1500 g/L, and wherein said structured particle has a moisture content of less than 4 wt% and comprises less than 0.5 wt% of zeolite wherein the structured particle has a total surfactant content of from Owt% to 5wt%, all the weight percentages are calculated based on total weight of the structured particle. (a) from 20 wt% to 25 wt% of an amphiphilic graft copolymer comprising a polyethylene oxide backbone grafted with one or more side chains of polyvinyl acetate, wherein the amphiphilic graft copolymer has an average of no more than 1 graft site per 50 ethyleneoxide units and ; (b) from 40 wt% to 60 wt% of sodium carbonate particles having a particle size distribution Dw50 ranging from 70 microns to 90 microns; (c) from 15 wt% to 25 wt% of sodium sulfate particles having a particle size distribution Dw50 ranging from 180 microns to 220 microns; and (d) from 2 wt% to 4 wt% of a nonionic surfactant that is a C 8 -C 16 alkyl alkoxylated alcohol,
A wound dressing comprising a) a wound contacting layer; b) a reagent layer comprising one or more testing regions, wherein the reagent layer is in fluid communication with the wound contacting layer; and c) an outer layer that overlays the reagent layer, wherein each of the one or more testing regions comprises a reagent pad and one or more reagents selected from enzyme-reactive indicators that are protein-indicator conjugates having the structure of Formula (I): A-B Formula (I) wherein: A is an anchor region or moiety that attaches an enzyme-reactive region to the reagent pad; and B is the enzyme-reactive region. a) a wound contacting layer; b) a reagent layer comprising one or more testing regions, wherein the reagent layer is in fluid communication with the wound contacting layer; and c) an outer layer that overlays the reagent layer, A is an anchor region or moiety that attaches an enzyme-reactive region to the reagent pad; and B is the enzyme-reactive region.
A system for mechanical stimulation of nasal tissues comprising a catheter assembly and a fluid flow generator connected to the catheter assembly , wherein the catheter assembly comprises: - a generally oblong inflatable catheter defining at least one catheter volume ; and - a tube part comprising at least one lumen configured to establish fluid flow connection between said fluid flow generator and said catheter , characterized in that said catheter is attached to a distal end of the tube part and has no structural rigidity in a first, non-inflated state, said catheter is configured to be inflated to a second, inflated state for insertion into a nasal cavity, and to a third, pulsating state for stimulating a nasal tissue, and substantially no part of said tube part extends into an inflatable part of the catheter . - a generally oblong inflatable catheter defining at least one catheter volume ; and - a tube part comprising at least one lumen configured to establish fluid flow connection between said fluid flow generator and said catheter , said catheter is attached to a distal end of the tube part and has no structural rigidity in a first, non-inflated state, said catheter is configured to be inflated to a second, inflated state for insertion into a nasal cavity, and to a third, pulsating state for stimulating a nasal tissue, and substantially no part of said tube part extends into an inflatable part of the catheter .
A fluoropolyether compound comprising a C 8 aliphatic hydrocarbon chain present in the middle of the molecule and at least two perfluoropolyethers, each perfluoropolyether being ether-linked to the C 8 aliphatic hydrocarbon chain, the aliphatic hydrocarbon chain having at least one hydroxyl group, the at least two perfluoropolyethers having, at respective non-hydrocarbon chain terminals, at least one polar group selected from the group consisting of -OH, -OCH 2 CH(OH)CH 2 OH, -OCH 2 CH(OH)CH 2 OCH 2 CH(OH)CH 2 OH, -O(CH 2 ) m OH, and -OCH 2 (OH)CHCH 2 -OC 6 H 4 -R 1 wherein m is an integer of 2 to 8, and R 1 represents hydrogen, C 1-4 alkoxy, amino, or an amide residue.
A luminescent material comprising: a medium; and luminescent particles comprising a luminescent benzothiazole having a ureido linkage; wherein the ureido linkage joins a benzothiazolyl-containing group and an optionally halogenated phenyl group in the luminescent benzothiazole; the benzothiazolyl-containing group is a phenylbenzothiazolyl group wherein the ureido linkage joins the phenylbenzothiazolyl group to the optionally halogenated phenyl group in the luminescent benzothiazole; the phenylbenzothiazolyl group is free from pendant hydroxyl groups; wherein the luminescent benzothiazole has a peak intensity within a wavelength of from 555 to 630 nm in response to excitation with electromagnetic radiation at a wavelength of 366 nm, and wherein the luminescent particles comprise the luminescent benzothiazole in an amount of at least 99 weight % based upon a total weight of the luminescent particles. a medium; and luminescent particles comprising a luminescent benzothiazole having a ureido linkage; wherein the ureido linkage joins a benzothiazolyl-containing group and an optionally halogenated phenyl group in the luminescent benzothiazole; the benzothiazolyl-containing group is a phenylbenzothiazolyl group wherein the ureido linkage joins the phenylbenzothiazolyl group to the optionally halogenated phenyl group in the luminescent benzothiazole; the phenylbenzothiazolyl group is free from pendant hydroxyl groups; wherein the luminescent benzothiazole has a peak intensity within a wavelength of from 555 to 630 nm in response to excitation with electromagnetic radiation at a wavelength of 366 nm, and wherein the luminescent particles comprise the luminescent benzothiazole in an amount of at least 99 weight % based upon a total weight of the luminescent particles.
A battery comprising: a negative electrode (anode) comprising aluminum and a solid ionically conducting polymer material; wherein the solid ionically conducting polymer material is formed from the reaction product of a base polymer, electron acceptor, and an ionic compound; wherein the ionic compound comprises each at least one cationic and anionic diffusing ion; and wherein the solid ionically conducting polymer material becomes ionically conductive after being doped by an electron acceptor in the presence of an ionic compound that either contains both a cationic and anionic diffusing ion or is convertible into both the cationic and anionic diffusing ion via reaction with the electron acceptor; and wherein electrochemically active aluminum particles are incorporated into the solid ionically conductive polymer material and wherein the solid ionically conducting polymer material is thermoplastic, and/or wherein the aluminum is dispersed within the solid ionically conductive polymer material, and/or wherein fine aluminum powder is dispersed within the solid ionically conductive polymer material, and/or wherein aluminum powder is mixed with the solid ionically conducting polymer material; a positive electrode (cathode) comprising a depolarizer that is capable of electrochemically reacting to produce a hydroxide ion upon reduction; and an electrolyte interposed between the negative electrode and positive electrode to ionically conduct hydroxide ions between the electrodes. a negative electrode (anode) comprising aluminum and a solid ionically conducting polymer material; wherein the solid ionically conducting polymer material is formed from the reaction product of a base polymer, electron acceptor, and an ionic compound; wherein the ionic compound comprises each at least one cationic and anionic diffusing ion; and wherein the solid ionically conducting polymer material becomes ionically conductive after being doped by an electron acceptor in the presence of an ionic compound that either contains both a cationic and anionic diffusing ion or is convertible into both the cationic and anionic diffusing ion via reaction with the electron acceptor; and wherein electrochemically active aluminum particles are incorporated into the solid ionically conductive polymer material and wherein the solid ionically conducting polymer material is thermoplastic, and/or wherein the aluminum is dispersed within the solid ionically conductive polymer material, and/or wherein fine aluminum powder is dispersed within the solid ionically conductive polymer material, and/or wherein aluminum powder is mixed with the solid ionically conducting polymer material; a positive electrode (cathode) comprising a depolarizer that is capable of electrochemically reacting to produce a hydroxide ion upon reduction; and an electrolyte interposed between the negative electrode and positive electrode to ionically conduct hydroxide ions between the electrodes.